Latest revision as of 18:50, 19 October 2016

Notebook

Preparation
Molecular Cloning
Cell Experiment
In Vitro Confirmation
Animal Experiment
Submission

Preparation
2015.11
2015.12
2016.01
2016.01~02
2016.02.22
2016.02~03
2016.03.04
2016.03.11
2016.03.15
2016.04~05
2016.06.05
Molecular Cloning
2016.06.05-12
2016.06.13-19
2016.06.20-26
2016.06.27-07.03
2016.07.04-10
2016.07.11-17
2016.07.18-24
2016.07.25-31
2016.08.01-07
2016.08.08-14
Cell Experiment
2016.08.15-21
2016.08.22-28
2016.08.29-09.04
In Vitro Confirmation
2016.09.05-11
2016.09.12-18
2016.09.19-25
Animal Experiment
2016.09.05
2016.09.07
2016.09.11
2016.09.12
2016.09.13
2016.09.14
2016.09.15-22
2016.09.16-21
2016.09.17
2016.09.17-24
2016.09.25
2016.09.28-10.05
Submission
2016.09.26-29
2016.10.04-09
2016.10.09-15

Since it is the first time for our school to participate in the iGEM competition ……
Having basic knowledge of iGEM, six kindred spirits gathered together and decided to participate in this competition. After deliberation, we started to prepare our team.
Our team, named as SYSU-MEDICINE, was successfully built, comprising four groups for lab work, modeling, art design and human practice respectively.
Assigned the tasks for winter vacation, including exploring feasible project theme, learned basic methods of literature search and summarized previous iGEM projects of the latest three years.
Six internal meetings were held and had a meet up with SYSU-China, from which we learned the importance of having a round knowledge of the rules of iGEM competition.
Started raising fund and lab resources.
Got in touch with leadership of Zhongshan School of Medicine and several professors and finally gained official support of Zhongshan School of Medicine. Refined our project at the suggestion of professors.
Final determination of supporting lab and fund resource.
Determined our first PI, second PI and instructor, to whom we presented our primary project and had a further discussion.
Signed up for iGEM.
Internal meetings for routine progress report were held, in which we decided the main topic of our project: mesenchymal stem cells (MSCs). After related article readings and with the guidance of our instructor, we further enriched our project and detailed our experiment plans. On May 20th, our final design was born.
Experiments Began.
Molecular Cloning

1. Extraction, Purification, and Analysis of total RNA from PBMCs (peripheral blood mononuclear cells)
2. RT-PCR——DNA : RNA hybridization
3. PCR, agarose gel electrophoresis, (primers without attB * cDNA; new primers with attB * cDNA) 10μl


100bp marker positive control	100bp marker only

4. Extraction, Purification, and Analysis of total RNA from new PBMCs (peripheral blood mononuclear cells) and RT-PCR——DNA : RNA hybridization

1. TIANprep Mini Plasmid Kit (TIANGEN)
2. Continue experiment yesterday.
PCR (new primers without attB * template cDNA; new primers without attB * template cDNA; CXCR5 primer * CXCR5 plasmid DNA), agarose gel electrophoresis 10μl

	New primers without attB * template cDNA 100bp marker positive control CCR7 1kb marker
	New primers without attB * new template cDNA 100bp marker CXCR5 1kb marker

3. PCR
(new primers without attB * new template cDNA→ CXCR5；
New primers without attB * template→ CCR7)
4. Agarose Gel Electrophoresis

100bp marker
Positive control
CCR7
CCR7
No CXCR5s

5. Purify the PCR products and detect the concentration of them.
6. PCR + Agarose Gel Electrophoresis: 50μl system
TA primers (CCR7) * new template
TA primers (CXCR5) * template

CCR7 CXCR5 positive control 100bp marker

7. Vector 2: Combine CCR7/CXCR5 TA DNA and T3 vectors.
Transformation: Transfer vector 2 into trans5a bacteria and culture the modified bacteria for 16 hours.
8. Confirm whether we successfully transfer CXCR5 and CCR7 plasmids (TA primer) into the bacteria.

Positive control CXCR5 * 2 CCR7 * 1 1kb marker

9. Amply the bacteria culture, store them, extract the plasmids(TA-CXCR5, TA-CCR7) from them and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
10. PCR：attB primers(CXCR5, CCR7) * plasmid templates, and Agarose Gel Electrophoresis 10μl

100bp marker
CXCR5 CCR7

11. PCR: TA primers（CXCR1, CXCR3, CXCR4, CCR2, CCR5）* template，Agarose Gel Electrophoresis 10μl
Surprise: CCR2, CXCR3

100bp marker CXCR3 CCR2 Positive control 1kb marker

12. PCR: attB primers (CXCR5, CCR7) * plasmid templates, and Agarose Gel Electrophoresis 50μl

Positive control CXCR5 * 1 CCR7 * 2 1 kb marker

13. PCR: TA primers（CXCR1, CXCR3, CXCR4, CCR2, CCR5）* template，Agarose Gel Electrophoresis 50μl

CXCR3 CCR2 Positive control 1kb marker

14. Purify the CXCR5, CCR7 DNA (both containing attB primer) and detect the concentration of them (TIANGEN kit)
15. Gateway: BP reaction (CXCR5, CCR7 DNA (both containing attB primer))
16. TA primers（CXCR1, CXCR3, CXCR4, CCR2）* template cDNA, Agarose Gel Electrophoresis 10μl

Positive control 1kb marker No results.

17. TA primers（CXCR3, CCR2）* template，Agarose Gel Electrophoresis 50μl

1kb marker CXCR3 100bp marker

18. Continue Gateway from Experiment (Confirm whether we successfully transfer Entry clone: CXCR5-1064 vector and CCR7-1064 vector into the bacteria, respectively.)

Positive control
CXCR5 * 2
1kb marker

100bp marker
CCR7 * 2
Positive control

19. Amply the modified bacteria culture
Incubate the bacteria culture for 16 hours at 37°C with vigorous agitation, monitoring the growth of the culture.
20. Continue Gateway (Preparation of Plasmid DNA (Entry clone: CXCR5-1064 vector and CCR7-1064 vector) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
21. DNA sequence: Entry clone: CXCR5-1064 vector and CCR7-1064 vector
(CXCR5-1064 vector and CCR7-1064 vector pDown vector are finished.)

1. PCR: change annealing temperature (CXCR1, CXCR3, CXCR4, CCR2, CCR5 gene)
2. Agarose Gel Electrophoresis

CXCR4 100bp marker

3. PCR: new primers (CXCR4) * a new blood template, and Agarose Gel Electrophoresis 80μl

100bp marker CXCR4 positive control 1kb marker

4. Purify the PCR product from step 3
5. Vector 2: Combine CXCR4 TA DNA and T3 vectors.
Transfer vector 2 into trans5a bacteria and culture the modified bacteria for 16 hours.
6. PCR: new primers (CXCR1, CXCR3, CCR2, CCR5 gene) * a new blood template2, and Agarose Gel Electrophoresis 10μl

Positive control CXCR1 CXCR3 CCR2 CCR5 1kb marker

7. PCR: new primers(CXCR1, CXCR3, CCR2, CCR5 gene) * a new blood template2, and Agarose Gel Electrophoresis 80μl

Positive control CXCR1 CXCR3 CCR2 CCR5 1kb marker

8. Confirm whether we successfully transfer CXCR4 plasmids (TA primer) into the bacteria and amply the bacteria culture and store them.

1kb marker Positive control CXCR4 * 2

9. Purify the PCR products yesterday and detect the concentration of them. (CXCR1, CXCR3, CCR2, CCR5)
10. Vector 2: Combine CXCR1/CXCR3/CCR2/CCR5 TA DNA and T3 vectors.
11. Transfer vector 2 into trans5α and culture them for 16 hours.
12. Confirm whether we successfully transfer CXCR1/CXCR3/CCR2/CCR5 plasmids (TA primer) into the bacteria and amply the bacteria culture and store them.

Positive control CXCR1 CCR5 1kb marker

13. Extract the plasmids (TA-CXCR1/ CXCR4/ CCR5) from them.
14. PCR：attB primers (CXCR1, CXCR4, CCR5) * plasmid templates, and Agarose Gel Electrophoresis 10μl

CXCR1, CXCR4, CCR5, Positive control 1kb marker

15. PCR：attB primers (CXCR1, CXCR4, CCR5) * plasmid templates, and Agarose Gel Electrophoresis 80μl

CXCR1, CXCR4, CCR5, 1kb marker

16. Purify PCR products
17. Gateway: BP reaction(CXCR1/ CXCR4/ CCR5-vector 1064)
18. Transfer plasmids (CXCR1/ CXCR4/ CCR5-vector 1064) into trans5α and culture the modified bacteria for 14 hours.
19. Pick a single bacterial colony again. Transfer the colony into medium (containing Amp antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.
20. Continue Gateway (Confirm whether we successfully transfer Entry clone: CXCR1-1064 vector, CXCR4-1064 vector and CCR5-1064 vector into the bacteria, respectively.)

Positive control CXCR1 * 1 CXCR4 * 2 CCR5 * 2 1kb marker 100bp marker

21. Amply the modified bacteria culture
Incubate the bacteria culture for 16 hours at 37°C with vigorous agitation, monitoring the growth of the culture.
22. Confirm whether we successfully transfer CCR2 plasmids (T3) into the bacteria and amply the bacteria culture and store them.

CCR2 Positive control 1kb marker

23. Preparation of Plasmid DNA (CCR2-T3 vector) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
24. PCR: attB primers (CCR2) * CCR2-T3 vector and Agarose Gel Electrophoresis 100μl

1kb marker CCR2 others Positive control 100bp marker

25. Purify the PCR product and detect its concentration.

1. Continue Gateway (Preparation of Plasmid DNA (Entry clone: CXCR1-1064 vector, CXCR4-1064 vector and CCR5-1064 vector) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
2. DNA sequence: Entry clone: CXCR1-1064 vector, CXCR4-1064 vector and CCR5-1064 vector.
3. Gateway: BP reaction (CCR2-vector 1064)
Transfer plasmids (CCR2-vector 1064) into trans5α and culture the modified bacteria for 14 hours.
4. Continue Gateway (Confirm whether we successfully transfer Entry clone: CCR2-1064 vector into the bacteria and culture them at 37°C for 14 hours.)

100bp marker CCR2-1064 * 2

5. Explore CXCR3——PCR and Agarose Gel Electrophoresis
A new blood template * new primers (CXCR3) 10μl

100bp marker CXCR3 Positive control 1kb marker

6. PCR and Agarose Gel Electrophoresis
A new blood template * new primers (CXCR3) 100μl

CXCR3 100bp marker

7. Purify the PCR product from step 3 and detect its concentration.
Fail~~TOO LOW.
8. Preparation of Plasmid DNA (Entry clone: CCR2-1064 vector) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
9. DNA sequence: Entry clone: CCR2-1064 vector.
10. Design point mutation of CXCR1, CXCR3, CXCR5, CCR2, CCR5
11. DNA sequence: dTomato, eGFP, luciferase-Ires-eGFP

1. Single point mutation for CXCR1, CXCR5, CCR2, CCR5
Agarose Gel Electrophoresis

100bp marker (tract 2) CXCR1 (tract4,5)，CXCR5 (tract7,8), CCR2 (tract 10, 11) CCR5(tract 12,13)，

2. Purify intermediate product of CXCR5/CCR5 and form mixture
3. Agarose Gel Electrophoresis

100bp marker (tract 5) CXCR5 (tract2), CCR5(tract 3)，

4.Repeat single point mutation of CXCR1 and CCR2.
5. Amply the plasmid backbone pSB1C3 and DNA sequence
6. Purify CXCR5 and CCR5 single-point mutation product and combine them with T3 vector, respectively.
7. Transfer CXCR5-T3 and CCR5-T3 vector into trans5α bacteria, respectively and culture them at 37°C for 14 hours.
8. Pick up a single clone of bacteria and confirm whether we successfully transfer them into bacteria.
9. Culture the single clone bacteria at 37°C for 14 hours, extract the plasmids from them, detect the concentration of them, and DNA sequencing. (CXCR5 and CCR5 single-point mutation product)
10. PCR: dTomato, eGFP, IRES, luciferase.
11. Purify CXCR1 and CCR2 single-point mutation product and combine them with T3 vector, respectively.
12. Transfer CXCR1-T3 and CCR2-T3 vector into trans5α bacteria, respectively and culture them at 37°C for 14 hours.
13. Pick up a single clone of bacteria and confirm whether we successfully transfer them into bacteria.
14. Culture the single clone bacteria at 37°C for 14 hours, extract the plasmids from them, detect the concentration of them, and DNA sequencing. (CXCR1 and CCR2 single-point mutation product)
15 Repeat single point mutation of CXCR1 and CCR2
RESULTS: fail to finish the point mutations of CXCR1 and CCR2

1 continue to conduct the point mutation of CXCR1 and CCR2
Results: NO. Now we change our method to conduct our point mutation of CXCR1 & CCR2
2 PCR: Single point mutation for CXCR1, Agarose Gel Electrophoresis

100bp marker (tract 1) CXCR1-86bp (tract2), CXCR1-1000+bp (tract 3)

3 overlap of anterior fragment and posterior fragment (PCR)
Agarose Gel Electrophoresis

100bp marker (tract 1) CXCR1-overlap (tract2), CXCR1-postive control (tract 3)

RESULTS: NO
4 Using another method to run the point mutation of CXCR1 (PCR to lengthen the posterior fragment to make an entire fragment)
5 PCR: the first time (adding 32bp to the posterior fragment)
Agarose Gel Electrophoresis

100bp marker (tract 1) CXCR1-postive control (tract2), CXCR1-adding 32bp (tract 3)

6 PCR: fragment IRES to dTomato
Agarose Gel Electrophoresis

100bp marker (tract 1) IRES (tract2), dTomato (tract 3)

RESULTS: NO

1 PCR: the second time (adding 34bp to the posterior+32bp fragment)
Agarose Gel Electrophoresis

100bp marker (tract 1) CXCR1-34bp+posterior+32bp (tract2), CXCR1-positve control (tract 4)

2 Purify CXCR1 single-point mutation product and combine it with T3 vector
3 Transfer CXCR1-T3 vector into trans5α bacteria and culture it at 37°C for 14 hours.
4 Pick up a single clone of bacteria from step3 and confirm whether we successfully transfer them into bacteria.

100bp marker (tract 1) CXCR1 (tract2-6), CXCR1-positve control (tract 7)

5 Culture the single clone bacteria at 37°C for 14 hours, extract the plasmids from them, detect the concentration of them, and DNA sequencing. (CXCR1 single-point mutation product)
So far, we have conduct all our chemokine receptors except for CXCR3, and finish the point mutation of CXCR1, CXCR5, CCR5 (CXCR4, CCR7 do not have to conduct the point mutation experiment.)
6 Conduct the Gateway LR reactions (EF-1α-CXCR4-IRES-eGFP)
7 Transfer plasmid (EF-1α-CXCR4-IRES-eGFP) into trans5α and culture the modified bacteria for 14 hours.
8 Pick a single bacterial colony from plates. And run a PCR to test the results

100bp marker (tract 1) CXCR4-LR (tract2-6), CXCR4-positve control (tract 7)

9 Transfer the colony into medium (containing Amp antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.
10 Preparation of Plasmid DNA (expression vector: EF-1α-CXCR4-IRES-eGFP) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
6 DNA sequence: expression vector: EF-1α-CXCR4-IRES-eGFP
Finish conduct the expression vector: EF-1α-CXCR4-IRES-eGFP
7 PCR：attB primers (CXCR5 point mutation) * plasmid templates from CXCR5 point mutation plasmid, and Agarose Gel Electrophoresis 80μl

100bp (tract1) CXCR5 point mutation (tract 2) CXCR5 positive control (tract 3)

8 Purify PCR products
9 Gateway: BP reaction (CXCR5 point mutation-vector 1064)
10 Transfer plasmids (CXCR5 point mutation-vector 1064) into trans5α and culture the modified bacteria for 14 hours.
11 Pick a single bacterial colony. And run a PCR and Agarose Gel Electrophoresis to test the results

100bp marker (tract 1) CXCR5-point mutation-BP (tract2-4), CXCR5-positve control (tract 5)

12 Transfer the colony into medium (containing kana antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.
13 Preparation of Plasmid DNA (entry clone: CXCR5 point mutation -vector 1064) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
14 DNA sequence: CXCR5 point mutation-vector 1064
Finish conduct the CXCR5 point mutation-vector 1064

1 PCR: α-SMA promoter and run a Agarose Gel Electrophoresis to confirm the results

α-SMA promoter (tract1-2), 100bp marker (tract 3)

2 purify the PCR product
3 conduct Gateway: BP reaction——Pup α-SMA promoter
4 Transfer plasmids(Pup α-SMA promoter) into trans5α and culture the modified bacteria for 14 hours.
5 Pick a single bacterial colony. And run a PCR and Agarose Gel Electrophoresis to test the results

Pup α-SMA promoter (tract1-3), 1kbp marker (tract 4)

6 Transfer the colony into medium (containing kana antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.
7 Preparation of Plasmid DNA (entry clone: pup-α-SMA promoter) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
8 Gateway:LR reaction(α-SMA promoter-eGFP)
9 Transfer plasmid (α-SMA promoter-eGFP) into trans5α and culture the modified bacteria for 14 hours.
10 Pick a single bacterial colony from plates. And run a PCR and Agarose Gel Electrophoresis to test the results

100bp marker (tract 1) a-SMA promoter-eGFP (tract2-7),

11 Transfer the colony into medium (containing Amp antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.
12 Preparation of Plasmid DNA (expression vector: α-SMA promoter-eGFP) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
13 DNA sequence: expression vector: α-SMA promoter-eGFP
Finish conduct the expression vector: α-SMA promoter-eGFP
14 PCR: CXCR5 point mutation+T2A (anterior fragment, short for R1); T2A (posterior fragment, short for F1) + luciferase
15 run an Agarose Gel Electrophoresis to test the results

100bp marker (tract 1) CXCR5-R1 (tract10), F1-luciferase (tract11)

16 Purify CXCR5-R1 and F1-luciferase product and combine them with T3 vector, respectively.
17 Transfer CXCR5-R1-T3 and F1-luciferase-T3 vector into trans5α bacteria, respectively and culture them at 37°C for 14 hours.
18 Pick up a single clone of bacteria and confirm whether we successfully transfer them into bacteria.

F1-luciferase-T3 (tract1-4) CXCR5-R1-T3 (tract5-8), 100bp marker (tract 9)

19 Culture the single clone bacteria at 37°C for 14 hours, extract the plasmids from them, detect the concentration of them, and DNA sequencing. (CXCR5-R1 & F1-luciferase)
20 PCR the second time: CXCR5 point mutation + T2A (anterior fragment 2, short for R2) and T2A (posterior fragment 2, short for F2) + luciferase
21 run an Agarose Gel Electrophoresis to test the results

CXCR5-R2 (tract1), F2-luciferase (tract2) 100bp marker (tract 3)

22 purify the PCR products of CXCR5-R2 & F2 luciferase
23 PCR: overlap of CXCR5-R2 & F2-luciferase ( short for CXCR5-luciferase attB)
24 run an Agarose Gel Electrophoresis to test the results

CXCR5-Luciferase attB (tract1), 100bp marker (tract 2)

25 purify the PCR products of CXCR5-Luciferase attB
26 Gateway: BP reaction (CXCR5-Luciferase-vector 1064)
27 Transfer plasmids (CXCR5-Luciferase-vector 1064) into trans5α and culture the modified bacteria for 14 hours.
28 Pick a single bacterial colony from plates. And run a PCR and Agarose Gel Electrophoresis to test the results

Positive control (tract1), CXCR5-luciferase BP (tract 2-4) 100bp marker (tract 5)

29 Transfer the colony into medium (containing kana antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.
30 Preparation of Plasmid DNA (entry clone: CXCR5-luciferase -vector 1064) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
31 DNA sequence: CXCR5-luciferase -vector 1064
Finish conduct the CXCR5 point mutation -vector 1064
32 Gateway: LR reaction (EF-1α-CXCR5-luciferase-IRES-eGFP)
33 Transfer plasmid (EF-1α-CXCR5-luciferase-IRES-eGFP) into trans5α and culture the modified bacteria for 14 hours.
34 Pick a single bacterial colony from plates. And run a PCR and Agarose Gel Electrophoresis to test the results

100bp marker (tract 1) CXCR5-luciferase-ires-eGFP-LR (tract2-5), positve control (tract 6)

35 Transfer the colony into medium (containing Amp antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.
36 Preparation of Plasmid DNA (expression vector: EF-1α-CXCR5-luciferase-IRES-eGFP) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
37 DNA sequence: expression vector: EF-1α-CXCR5-luciferase-IRES-eGFP
Finish conduct the expression vector: EF-1α-CXCR5-luciferase-IRES-eGFP

1 PCR: CXCR4 +T2A (anterior fragment, short for R1);
2 Run an Agarose Gel Electrophoresis to test the results

CXCR4-R1 (tract1), 100bp marker (tract 3)

3 Purify CXCR4-R1 product and combine with T3 vector.
4 Transfer CXCR4-R1-T3 into trans5α bacteria, respectively and culture it at 37℃ for 14 hours.
5 Pick up a single clone of bacteria and confirm whether we successfully transfer them into bacteria.

CXCR4-R1-T3 (tract1-4), 100bp marker (tract 5)

6 Culture the single clone bacteria at 37℃ for 14 hours, extract the plasmids from them, detect the concentration of them, and DNA sequencing. (CXCR4-R1)
7 PCR the second time: CXCR4+T2A (anterior fragment 2, short for R2)
8 run an Agarose Gel Electrophoresis to test the results

CXCR4-R2 (tract1), 1kbp marker (tract 2)

9 purify the PCR products of CXCR4-R2
10 PCR: overlap of CXCR4-R2 & F2-luciferase (short for CXCR4-luciferase attB)
11 run an Agarose Gel Electrophoresis to test the results

CXCR4-Luciferase attB (tract1), 100bp marker (tract 4)

12 purify the PCR products of CXCR4-Luciferase attB
13 Gateway: BP reaction (CXCR4-Luciferase-vector 1064)
14 Transfer plasmids (CXCR4-Luciferase-vector 1064) into trans5α and culture the modified bacteria for 14 hours.
15 Pick a single bacterial colony from plates. And run a PCR and Agarose Gel Electrophoresis to test the results

100bp marker (tract 1) Positive control (tract3), CXCR5-luciferase BP (tract 4)

16 Transfer the colony into medium (containing kana antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.
17 Preparation of Plasmid DNA (entry clone: CXCR4-luciferase -vector 1064) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
18 DNA sequence: CXCR4-luciferase-vector 1064
Finish conduct the CXCR4 point mutation-vector 1064
19 Gateway: LR reaction (EF1-a-CXCR4-luciferase-IRES-eGFP)
20 Transfer plasmid (EF1-a-CXCR4-luciferase-IRES-eGFP) into trans5α and culture the modified bacteria for 14 hours.
21 Pick a single bacterial colony from plates. And run a PCR and Agarose Gel Electrophoresis to test the results

100bp marker (tract 1) CXCR5-luciferase-ires-eGFP-LR (tract2-5), positive control (tract 6)

22 Transfer the colony into medium (containing Amp antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.
23 Preparation of Plasmid DNA (expression vector: EF1-a-CXCR4-luciferase-IRES-eGFP) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
24 DNA sequence: expression vector: EF1-a-CXCR4-luciferase-IRES-eGFP
Finish conduct the expression vector: EF1-a-CXCR4-luciferase-IRES-eGFP

1 PCR: Overlap method to conduct the point mutation of luciferase + dTomato (point mutation) + hFTH
2 Agarose Gel Electrophoresis to test the results

	1kbp marker (tract 1) luciferase+dtomato (anterior fragment) (tract2-3), 100bp marker(track6)
	100bp marker (tract 1) dtomato(posterior fragment)+hFTH (tract3),

3 purify the PCR products of luciferase+dTomato (anterior fragment) and dTomato (posterior fragment)+hFTH
4 PCR: overlap of luciferase+dTomato (anterior fragment) and dTomato (posterior fragment)+hFTH
5 Agarose Gel Electrophoresis to test the results

Luciferase-dtomato(point mutation)-hFTH (tract1), 100bp marker (tract 2)

6 PCR: Overlap method to conduct the point mutation of luciferase+dTomato+hFTH(point mutation)
7 Agarose Gel Electrophoresis to test the results

100bp marker (tract 1) dtomato(posterior fragment)+hFTH(anterior fragment) (tract2), hFTH(posterior fragment)(tract3)

8 purify the PCR products of dTomato (posterior fragment)+hFTH(anterior fragment)+hFTH (posterior fragment)
9 PCR: overlap of dTomato (posterior fragment)+hFTH(anterior fragment)+hFTH (posterior fragment)
10 Agarose Gel Electrophoresis to test the results

dtomato+hFTH(point mutation) (tract1), 100bp marker (tract 3)

11 purify the PCR products of dTomato+hFTH (point mutaion)
12 PCR: overlap of luciferase+dTomato (anterior fragment) & dTomato (posterior fragment)+hFTH(anterior fragment)+hFTH (posterior fragment)
13 Agarose Gel Electrophoresis to test the results

100bp marker(tract1)
Luciferase-dtomato(point mutation)-hFTH(point mutation) (tract1-2)

14 purify the PCR products of Luciferase-dTomato(point mutation)-hFTH(pointi mutation)
15 PCR：IRES fragment
16 Agarose Gel Electrophoresis to test the results

IRES (tract1-2) 100bp marker(tract3)

17 purify the PCR product of IRES
18 PCR: Overlap of IRES & luciferase+dTomato+hFTH( including the attB)
19 Agarose Gel Electrophoresis to test the results

IRES-luciferase-dtomato(point mutation)-hFTH(point mutation) (tract1-2)
100bp marker(tract3)

20 purify the product of IRES- luciferase-dTomato-hFTH( including the attB)
21 Gateway: BP reaction(IRES-luciferase-dTomato-hFTH-vector ptail)
22 Transfer plasmids (IRES-luciferase-dTomato-hFTH-vector ptail) into trans5α and culture the modified bacteria for 14 hours.
23 Pick a single bacterial colony from plates. And run a PCR and Agarose Gel Electrophoresis to test the results

100bp marker (tract 1) IRES-luciferase-dtomato-hFTH-vector ptail (tract2-5), Positive control (tract 5)

24 Transfer the colony into medium (containing kana antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.
25 Preparation of Plasmid DNA (entry clone: IRES-luciferase-dTomato-hFTH-vector ptail) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
26 DNA sequence: IRES-luciferase-dTomato-hFTH-vector ptail
Finish conduct the entry clone: IRES-luciferase-dTomato-hFTH-vector ptail
27 Gateway: LR reaction (EF1-a-CXCR4- IRES-luciferase-dTomato-hFTH)
28 Transfer plasmid (EF1-a-CXCR4- IRES-luciferase-dTomato-hFTH) into trans5α and culture the modified bacteria for 14 hours.
29 Pick a single bacterial colony from plates. And run a PCR and Agarose Gel Electrophoresis to test the results

100bp marker (tract 1) CXCR5-luciferase-ires-eGFP-LR (tract2-5), positve control (tract 6)

30 Transfer the colony into medium (containing Amp antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.
31 Preparation of Plasmid DNA (expression vector: EF1-a-CXCR4- IRES-luciferase-dTomato-hFTH) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)
32 DNA sequence: expression vector: EF1-a-CXCR4- IRES-luciferase-dTomato-hFTH
Finish conduct the expression vector: EF1-a-CXCR4- IRES-luciferase-dTomato-hFTH

Cell Experiment
293FT cells culture
Virus transduction to 293FT cells
Virus transduction to hMSC and culture
293FT cells culture
Virus transduction to 293FT cells
Virus transduction to hMSC and culture
In Vitro Confirmation
1. qPCR: Expression of chemokine receptors and CD markers on the surface of hMSCs

2.Confirm whether MSCs modified express fluorescent protein.
1.Confirm whether MSCs remain their characteristics after modified.

2.Transwell: Confirm the function of hMSCs modified by CXCR4/CXCR5

3. qPCR and western blot: Confirm whether CXCR4/CXCR5 express on the surface of hMSCs
1.Switch confirmation
qPCR: Expression of alpha-SMA on hMSCs before and after adding TGF-β

2. hMSCs modified by switch plasmid express eGFP after adding TGF-β
Animal Experiment
IBD
1. Carefully shaved a 1cm×1cm filed on the back between the shoulders of the mouse using an electric razor.
2. While holding the mouse with one hand, smeared the shaved backs with presensitization solution (150μL/20g), which is the mixture of acetone, olive oil and TNBS in 16:4:5 scale.
3. Control mice are treated with presensitization solution without TNBS.
4. All the mice were in good condition.
DTH
1. Carefully shaved a 1cm×1cm filed on the back between the shoulders of the mouse using an electric razor.
2. While holding the mouse with one hand, smeared shaved backs with 150μL 0.5% DNFB solution in acetone/olive oil (4:1).
3. Control mice are treated with identical amount of acetone/olive oil (4:1).
4. All the mice were in good condition.
IBD
Absolute diet is applied to the mice apart from the water.
Anesthetize the mouse by intraperitoneal injection of 4% chloral hydrate (150μL/20g).
Insert the catheter into the colon 4cm proximal to the anus and slowly administer 150μL/20g TNBS/alcohol solution into the colon. Keep the mice with hand down for 60s before returning to the cage.
Concerning the damaged colon, we replace normal mice food with jelly to lessen the pain ensuing from sensitization.
In the evening, 3 mice are found dead, 2 mice are weak and have less activity, while the others are in good condition.
IBD
Weak mice are dead finally.
We weight the mice left. The weight change indicates that 18 of them are modeled successfully. So, we inject 200 μL MSCs in dose of 1*106 into 9 mice from caudal vein.
DTH
Challenge right ears with 20μL 0.3% DNFB solution. Two hours after sensitization, inject 200 μL MSCs in dose of 1*106 to 16 mice and PBS of identical amount to another 8 mice of control groups from caudal veins respectively.
IBD
All the animals are sacrificed by cervical dislocation. Then we take the colon tissue and measured the length .The colon tissue are kept in PFA or Trizol in EP tube for HE staining or q-PCR. The colon length, DAI score and the concentration of the cytokines will be performed using SPSS.
DTH
All the animals are sacrificed by cervical dislocation. Then we take the ear tissue and measured the thickness .The ear tissues are kept in PFA or Trizol in EP tube for HE staining or q-PCR. The ear thickness and the concentration of the cytokines will be performed using SPSS.
Start animal experiments for mathematical modeling and cooperation project with Team ShanghaiTechChina_B
Day 1, carefully shave a 1cm×1cm filed on the back between the shoulders of the mouse using an electric razor.
While holding the mouse with one hand, smear the shaved abdominal skin with presensitization solution (150μL/20g), which is the mixture of acetone, olive oil and TNBS in 16:4:5 scale.
Control mice are treated with presensitization solution without TNBS.
All the mice are in good condition.
Leave the mice until day 7.
On day 7, absolute diet is applied to the mice apart from the water.
On day 8, anesthetize the mouse by intraperitoneal injection of 4% chloral hydrate (150μL/20g). Insert the catheter into the colon 4cm proximal to the anus and slowly administer 150μL/20g TNBS/alcohol solution into the colon. Keep the mice with hand down for 60s before returning to the cage. Concerning the damaged colon, we take the jelly for the mice to lessen the pain after modelling.
On Day 11, dissolve 5 μg of recombinational EGF in 25 ml saline. Insert 150ug/20g EGF solution into the colon for 6 mice. Sacrifice the narcotic mice with EGF on Day 13.Take the large intestine tissue and measured the length. Keep the large intestine in PFA or Trizol in EP tube for qPCR or HE staining. The colon length, DAI score and the concentration of the cytokines will be performed using SPSS.

The mice left were injected 200 μL MSCs in dose of 1*106 into from caudal vein. At 5min, 30 min, 1h, 2h, 4h, 8h, 16h, 24h, 32h, 40h, 48h, 72h after injection, 1 narcotic mouse is taken living image by IVIS spectrum. After that, the mouse are sacrificed and colons are taken and measured for their length. The colons are kept in PFA or Trizol in EP tube for qPCR or HE staining.
Submission
Using the DNA carrier provided by iGEM, and the DNA to submit, digest and ligate them. But we failed. After analyzing, the reasons we suspect are as followed:
1.The concentration of the DNA is too low to make it,
2.The carrier provided by iGEM is useless because the linear carrier has low working efficiency.
As a result, we are going to have some meetings to solve it.
3.Using the part distribution to get the carrier annular carrier by Enzyme digestion, and put the first group of gene into the carrier by ligament.
Successful!
As a result, we finish the first group of submission, including two genes: CCR7 and CXCR4.
1.We started working the second group, including CXCR1, CCR5, Luciferease-IRES-eGFP, Luciferase-dTomato-hFTH, CXCR4-IRES-eGFP.
2.After four days’work, we finally finished the second group and put them all into a 96-well format.
1.Using the part distribution to get another carrier annular carrier by Enzyme digestion, and put the third group of genes into the carrier by ligament.
The third group includes CXCR5-Luciferease-IRES-eGFP, CXCR4-Luciferease-IRES-eGFP, CXCR4-Luciferase-dTomato-hFTH
2.After four days’work, we finally finished the third group and put them all into another 96-well format.

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@@ Line 445: / Line 463: @@
 <div class="jumbotron" id="content">
      <div class="my-content">
+        <br/>
          <table class="content-table">
              <tr>
-                 <td class="left">
+                 <td class=left>
-                     <ul class="nav nav-pills nav-stacked" role="tablist">
+                     <a href="#Story_Began"  class="tline-trigger">Preparation</a><br/>
-                        <li role="presentation" class="active"><a href="#preparation" aria-controls="preparation" role="tab" data-toggle="pill">Preparation</a></li>
+                    <a href="#Molecular_Cloning"  class="tline-trigger">Molecular Cloning</a><br/>
-                        <li role="presentation"><a href="#molecular" aria-controls="molecular" role="tab" data-toggle="pill">Molecular Cloning</a></li>
+                    <a href="#Cell_Experiment"  class="tline-trigger">Cell Experiment</a><br/>
-                        <li role="presentation"><a href="#cell" aria-controls="cell" role="tab" data-toggle="pill">Cell Experiment</a></li>
+                    <a href="#In_Vitro_Confirmation"  class="tline-trigger">In Vitro Confirmation</a><br/>
-                        <li role="presentation"><a href="#vitro" aria-controls="vitro" role="tab" data-toggle="pill">In Vitro Confirmation</a></li>
+                    <a href="#Animal_Experiment"  class="tline-trigger">Animal Experiment</a><br/>
-                        <li role="presentation"><a href="#animal" aria-controls="animal" role="tab" data-toggle="pill">Animal Experiment</a></li>
+                    <a href="#Submission"  class="tline-trigger">Submission</a><br/>
-                        <li role="presentation"><a href="#submission" aria-controls="submission" role="tab" data-toggle="pill">Submission</a></li>
-                    </ul>
                  </td>
-                <td class="padding"></td>
                  <td class="right">
-                     <div class="tab-content">
+                     <div id="timeline">
-                         <div role="tabpanel" class="tab-pane active" id="preparation">
+                         <style>
-                             <b>Preparation</b><br/>
+                             #issues p {
+                                width: 80%;
+                                margin: 0 auto;
+                            }
+                        </style>
-                        </div>
-                        <div role="tabpanel" class="tab-pane" id="molecular">
-                            <b>Molecular Cloning</b><br/>
-                        </div>
-                        <div role="tabpanel" class="tab-pane" id="cell">
-                            <b>Cell Experiment</b><br/>
-                        </div>
-                        <div role="tabpanel" class="tab-pane" id="vitro">
-                            <b>In Vitro Confirmation</b><br/>
-                        </div>
-                        <div role="tabpanel" class="tab-pane" id="animal">
-                            <b>Animal Experiment</b><br/>
-                        </div>
-                        <div role="tabpanel" class="tab-pane" id="submission">
-                            <b>Submission</b><br/>
-                        </div>
-                    </div>
-                </td>
-            </tr>
-        </table>
-        <br/>
-        <Br/>
-        <div id="timeline">
-            <style>
-                #issues p {
-                    width: 85%;
-                    margin: 0 auto;
-                }
-            </style>
+                        <ul id="dates" style="width: 3030px; margin-left: -950px;">
+                            <!--01Preparation-->
+                            <li><a href="#Story_Began" class="selected">Preparation</a></li>
+                            <li><a href="#2015.11">2015.11</a></li>
+                            <li><a href="#2015.12">2015.12</a></li>
+                            <li><a href="#2016.01">2016.01</a></li>
+                            <li><a href="#2016.01~02">2016.01~02</a></li>
+                            <li><a href="#2016.02.22">2016.02.22</a></li>
+                            <li><a href="#2016.02~03">2016.02~03</a></li>
+                            <li><a href="#2016.03.04">2016.03.04</a></li>
+                            <li><a href="#2016.03.11">2016.03.11</a></li>
+                            <li><a href="#2016.03.15">2016.03.15</a></li>
+                            <li><a href="#2016.04~05">2016.04~05</a></li>
+                            <li><a href="#2016.06.05">2016.06.05</a></li>
+                            <!--02Molecular Cloning-->
+                            <li><a href="#Molecular_Cloning">Molecular Cloning</a></li>
+                            <li><a href="#2016.06.05-12">2016.06.05-12</a></li>
+                            <li><a href="#2016.06.13-19">2016.06.13-19</a></li>
+                            <li><a href="#2016.06.20-26">2016.06.20-26</a></li>
+                            <li><a href="#2016.06.27-07.03">2016.06.27-07.03</a></li>
+                            <li><a href="#2016.07.04-10">2016.07.04-10</a></li>
+                            <li><a href="#2016.07.11-17">2016.07.11-17</a></li>
+                            <li><a href="#2016.07.18-24">2016.07.18-24</a></li>
+                            <li><a href="#2016.07.25-31">2016.07.25-31</a></li>
+                            <li><a href="#2016.08.01-07">2016.08.01-07</a></li>
+                            <li><a href="#2016.08.08-14">2016.08.08-14</a></li>
+                            <!--03Cell Experiment-->
+                            <li><a href="#Cell_Experiment">Cell Experiment</a></li>
+                            <li><a href="#2016.08.15-21">2016.08.15-21</a></li>
+                            <li><a href="#2016.08.22-28">2016.08.22-28</a></li>
+                            <li><a href="#2016.08.29-09.04">2016.08.29-09.04</a></li>
-            <ul id="dates" style="width: 3030px; margin-left: -950px;">
+                            <!--04In Vitro Confirmation-->
-                <li><a href="#2015-04-16" class="">2015-04-16</a></li>
+                            <li><a href="#In_Vitro_Confirmation">In Vitro Confirmation</a></li>
-                <li><a href="#2015-04-25" class="">2015-04-25</a></li>
+                            <li><a href="#2016.09.05-11">2016.09.05-11</a></li>
-                <li><a href="#2015-05-01" class="">2015-05-01</a></li>
+                            <li><a href="#2016.09.12-18">2016.09.12-18</a></li>
-                <li><a href="#2015-05-08" class="">2015-05-08</a></li>
+                            <li><a href="#2016.09.19-25">2016.09.19-25</a></li>
-                <li><a href="#2015-05-12" class="">2015-05-12</a></li>
-                <li><a href="#2015-05-14" class="">2015-05-14</a></li>
-                <li><a href="#2015-05-26" class="">2015-05-26</a></li>
-                <li><a href="#2015-06-01" class="">2015-06-01</a></li>
-                <li><a href="#2015-06-07" class="">2015-06-07</a></li>
-                <li><a href="#2015-06-12" class="">2015-06-12</a></li>
-                <li><a href="#2015-06-18" class="">2015-06-18</a></li>
-                <li><a href="#2015-06-25" class="">2015-06-25</a></li>
-                <li><a href="#2015-07-01" class="">2015-07-01</a></li>
-                <li><a href="#2015-07-10" class="selected">2015-07-10</a></li>
-                <li><a href="#2015-07-15">2015-07-15</a></li>
-                <li><a href="#2015-07-18">2015-07-18</a></li>
-                <li><a href="#2015-07-23">2015-07-23</a></li>
-                <li><a href="#2015-07-24">2015-07-24</a></li>
-                <li><a href="#2015-07-29">2015-07-29</a></li>
-                <li><a href="#2015-08-01">2015-08-01</a></li>
-                <li><a href="#2015-08-04">2015-08-04</a></li>
-                <li><a href="#2015-08-10">2015-08-10</a></li>
-                <li><a href="#2015-08-17">2015-08-17</a></li>
-                <li><a href="#2015-08-25">2015-08-25</a></li>
-                <li><a href="#2015-08-28">2015-08-28</a></li>
-                <li><a href="#2015-09-01">2015-09-01</a></li>
-                <li><a href="#2015-09-06">2015-09-06</a></li>
-                <li><a href="#2015-09-10">2015-09-10</a></li>
-                <li><a href="#2015-09-12">2015-09-12</a></li>
-                <li><a href="#2015-09-14">2015-09-14</a></li>
-            </ul>
-            <ul id="issues" style="width: 24030px; margin-left: -10400px;">
+                            <!--05Animal Experiment-->
+                            <li><a href="#Animal_Experiment">Animal Experiment</a></li>
+                            <li><a href="#2016.09.05">2016.09.05</a></li>
+                            <li><a href="#2016.09.07">2016.09.07</a></li>
+                            <li><a href="#2016.09.11">2016.09.11</a></li>
+                            <li><a href="#2016.09.12">2016.09.12</a></li>
+                            <li><a href="#2016.09.13">2016.09.13</a></li>
+                            <li><a href="#2016.09.14">2016.09.14</a></li>
+                            <li><a href="#2016.09.15-22">2016.09.15-22</a></li>
+                            <li><a href="#2016.09.16-21">2016.09.16-21</a></li>
+                            <li><a href="#2016.09.17">2016.09.17</a></li>
+                            <li><a href="#2016.09.17-24">2016.09.17-24</a></li>
+                            <li><a href="#2016.09.25">2016.09.25</a></li>
+                            <li><a href="#2016.09.28-10.05">2016.09.28-10.05</a></li>
-                <li id="2015-04-16" class="" style="opacity: 0.2;">
+                            <!--06Submission-->
-                    <p>
+                            <li><a href="#Submission">Submission</a></li>
-                        -culture the competence cell
+                            <li><a href="#2016.09.26-29">2016.09.26-29</a></li>
-                        <br>
+                            <li><a href="#2016.10.04-09">2016.10.04-09</a></li>
-                        -test the experiment kits
+                            <li><a href="#2016.10.09-15">2016.10.09-15</a></li>
-                    </p>
-                </li>
-                <li id="2015-04-25" class="" style="opacity: 0.2;">
+                         </ul>
-                    <p>
-                         -Molecular cloning for Bba_J06602, BBa_B0012, Bba_K592024, Bba_I13453, Bba_B0010
-                        <br>
-                        -Tried to reverse pBAD(BBa_I13453)
-                        <br>
-                        -preparation of the target bio-brick
-                    </p>
-                </li>
-                <li id="2015-05-01" class="" style="opacity: 0.2;">
+                        <ul id="issues" style="width: 24030px; margin-left: -10400px;">
-                    <p>
+                            <!--01Preparation-->
-                        -Ligation: flpe-BFP, loxP-pBAD, B0010-loxP, eGFP-B0015, FRT-pBAD
+                            <li id="Story_Began" class="" style="opacity: 0.2;">
-                        <br>
+                                <p></br>
-                        -Preservation of the plasmid pAUR135 in E.coli;
+                                    Since it is the first time for our school to participate in the iGEM competition ……
-                        Transformation of the commercial plasmid pAUR135(from TAKARA, Item No.D3604);
+                                </p>
-                        select monoclonal colony and extract plasmid(pAUR135) from the culture.
+                            </li>
-                        <br>
+                            <li id="2015.11" class="" style="opacity: 0.2;">
-                        -Prepared Yeast Extract Peptone Dextrose(YPD) Medium
+                                <p></br>
-                    </p>
+                                    Having basic knowledge of iGEM, six kindred spirits gathered together and decided to participate in this competition. After deliberation, we started to prepare our team.
-                </li>
+                                </p>
-                <li id="2015-05-08" class="" style="opacity: 0.2;">
+                            </li>
-                    <p>
+                            <li id="2015.12" class="" style="opacity: 0.2;">
-                        -Patch:
+                                <p></br>
-                        strain: S.cerevisiae W303;
+                                    Our team, named as SYSU-MEDICINE, was successfully built, comprising four groups for lab work, modeling, art design and human practice respectively.
-                        medium: YPD agar
+                                </p>
-                    </p>
+                            </li>
-                </li>
+                            <li id="2016.01" class="" style="opacity: 0.2;">
-                <li id="2015-05-12" class="" style="opacity: 0.2;">
+                                <p>
-                    <p>
+                                    </br>
-                        -Extract the genome of the budding yeast as the template used in the subsequence PCR, yeast stains was Saccharomyces cerevisiae laboratory strain W303 (haploid), and the extraction procedure is based on the fungal genome extraction kit(Omega Bio-Tec).
+                                    Assigned the tasks for winter vacation, including exploring feasible project theme, learned basic methods of literature search and summarized previous iGEM projects of the latest three years.
-                        <br>
+                                </p>
-                        -Poor yield, partly because the yeast concentration in the suspension is low for genome extraction. The time for yeast incubation should be prolong for extraction next time.
+                            </li>
-                    </p>
+                            <li id="2016.01~02" class="" style="opacity: 0.2;">
-                </li>
+                                <p>
-                <li id="2015-05-14" class="" style="opacity: 0.2;">
+                                    </br>
-                    <p>
+                                    Six internal meetings were held and had a meet up with SYSU-China, from which we learned the importance of having a round knowledge of the rules of iGEM competition.
-                        -ligation: pBAD-eGFP- B0010;pBAD-EFP- B0010;PBAD-mCherry- B0010.
+                                </p>
-                        <br>
+                            </li>
-                        -induction and test the intensity of fluorescence
+                            <li id="2016.02.22" class="" style="opacity: 0.2;">
-                        <br>
+                                <p>
-                        -HOWEVER our results went bad
+                                    </br>
-                        <br>
+                                    Started raising fund and lab resources.
-                        -Extract genome DNA from W303 with yeast genome extraction kit(Omega Bio-Tec).
+                                </p>
-                    </p>
+                            </li>
-                </li>
+                            <li id="2016.02~03" class="" style="opacity: 0.2;">
-                <li id="2015-05-26" class="" style="opacity: 0.2;">
+                                <p>
-                    <p>
+                                    </br>
-                        -Acquire homologous franking sequence for target integrating site with PCR procedure, using the extracted genome from W303 as a template.
+                                    Got in touch with leadership of Zhongshan School of Medicine and several professors and finally gained official support of Zhongshan School of Medicine. Refined our project at the suggestion of professors.
-                        <br>
+                                </p>
-                        -Ultraviolet exposure result of the identification gel shows nonspecific amplification. We plan to employ nested PCR.
+                            </li>
-                        <br>
+                            <li id="2016.03.04" class="" style="opacity: 0.2;">
-                        -Preservation of W303 strain.
+                                <p>
-                        <br>
+                                    </br>
-                        -Extract genome DNA from W303 with yeast genome extraction kit(Omega Bio-Tec).
+                                    Final determination of supporting lab and fund resource.
-                    </p>
+                                </p>
-                </li>
+                            </li>
+                            <li id="2016.03.11" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    Determined our first PI, second PI and instructor, to whom we presented our primary project and had a further discussion.
+                                </p>
+                            </li>
+                            <li id="2016.03.15" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    Signed up for iGEM.
+                                </p>
+                            </li>
+                            <li id="2016.04~05" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    Internal meetings for routine progress report were held, in which we decided the main topic of our project: mesenchymal stem cells (MSCs). After related article readings and with the guidance of our instructor, we further enriched our project and detailed our experiment plans. On May 20th, our final design was born.
+                                </p>
+                            </li>
+                            <li id="2016.06.05" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    Experiments Began.
+                                </p>
+                            </li>
-                <li id="2015-06-01" class="" style="opacity: 0.2;">
+                            <!--02Molecular Cloning-->
-                    <p>
+                            <li id="Molecular_Cloning" class="" style="opacity: 0.2;">
-                        -Employ nest PCR to acquire homologous sequence and M phase Promoter sequence using W303 genome.
+                                <p></br>
-                        <br>
+                                    Molecular Cloning
-                        -Ultraviolet exposure result of the identification gel shows no target band.
+                                </p>
-                    </p>
+                            </li>
-                </li>
+                            <li id="2016.06.05-12" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+. Extraction, Purification, and Analysis of total RNA from PBMCs (peripheral blood mononuclear cells)<br/>
+. RT-PCR——DNA : RNA hybridization<br/>
+. PCR, agarose gel electrophoresis, (primers without attB * cDNA; new primers with attB * cDNA)     10μl<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/b/b8/T--SYSU-MEDICINE--project_note_02_01.png">
+                                        </td>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/5/57/T--SYSU-MEDICINE--project_note_02_02.png">
+                                        </td>
+                                    </tr>
+                                    <tr>
+                                        <td style="text-align: center">
+bp marker  positive control
+                                        </td>
+                                        <td style="text-align: center">
+bp marker only<br/>
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
-                <li id="2015-06-07" class="" style="opacity: 0.2;">
+. Extraction, Purification, and Analysis of total RNA from new PBMCs (peripheral blood mononuclear cells) and RT-PCR——DNA : RNA hybridization<br/>
-                    <p>
+                                </p>
-                        -Employ nest PCR and gradient anneal temperature from 50-60℃ to define the best anneal temperature.
+                            </li>
-                        <br>
+                            <li id="2016.06.13-19" class="" style="opacity: 0.2;">
-                        -Anneal at 60℃ should be better.
+                                <p>
-                    </p>
+                                    </br>
-                </li>
+.  TIANprep Mini Plasmid Kit (TIANGEN)<br/>
+.  Continue experiment yesterday.<br/>
+                                    PCR (new primers without attB * template cDNA; new primers without attB * template cDNA; CXCR5 primer * CXCR5 plasmid DNA), agarose gel electrophoresis     10μl<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/9/91/T--SYSU-MEDICINE--project_note_02_03.png">
+                                        </td>
+                                        <td>
+                                            New primers without attB * template cDNA<br/>
+bp marker  positive control  CCR7  1kb marker
-                <li id="2015-06-12" class="" style="opacity: 0.2;">
+                                        </td>
-                    <p>
+                                    </tr>
-                        -The ligation of pBAD-FR, pBAD-flpe is successful, we tried to insert Cre segment to pSB1A2
+                                    <tr>
-                        <br>
+                                        <td>
-                        -Employ nest PCR and gradient anneal temperature from 56-66℃ to define the best anneal temperature.
+                                            <img src="https://static.igem.org/mediawiki/2016/1/17/T--SYSU-MEDICINE--project_note_02_04.png">
-                        <br>
+                                        </td>
-                        -The most appropriate anneal temperature should be 65℃.
+                                        <td>
-                        <br>
+                                            New primers without attB * new template cDNA<br/>
-                        -Extract genome DNA from W303 with yeast genome extraction kit(Omega Bio-Tec).
+bp marker       CXCR5      1kb marker
-                    </p>
-                </li>
-                <li id="2015-06-18" class="" style="opacity: 0.2;">
+                                        </td>
-                    <p>
+                                    </tr>
-                        -Ligation again: pBAD-mCherry-B0010, pBAD-BFP-B0010, pBAD-eGFP-B0015
+                                </table>
-                        <br>
+                                <br/>
-                        -induction and test the intensity of fluorescence
+                                <p>
-                        <br>
+. PCR <br/>
-                        -Again, we ligated pBAD with FRT
+                                    (new primers without attB * new template cDNA→ CXCR5；<br/>
-                    </p>
+                                    New primers without attB * template→ CCR7) <br/>
-                </li>
+. Agarose Gel Electrophoresis<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/2/2e/T--SYSU-MEDICINE--project_note_02_05.png">                                        </td>
+                                        <td>
+bp marker <br/>
+                                            Positive control <br/>
+                                            CCR7<Br/>
+                                            CCR7<br/>
+                                            No CXCR5s<br/>
-                <li id="2015-06-25" class="" style="opacity: 0.2;">
+                                        </td>
-                    <p>
+                                    </tr>
-                        -We designed qPCR experiments to test whether our system work.
+                                </table>
-                    </p>
+                                <br/>
-                </li>
+                                <p>
+. Purify the PCR products and detect the concentration of them.<br/>
+. PCR + Agarose Gel Electrophoresis:  50μl system<br/>
+                                    TA primers (CCR7) * new template<br/>
+                                    TA primers (CXCR5) * template<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/3/3f/T--SYSU-MEDICINE--project_note_02_06.png">                                       </td>
+                                        <td>
+                                            CCR7    CXCR5   positive control   100bp marker
-                <li id="2015-07-01" class="" style="opacity: 0.2;">
+                                        </td>
-                    <p>
+                                    </tr>
-                        -We ordered our IDT gBlocks products.
+                                </table>
-                        <br>
+                                <br/>
-                        -We tested whether our ligation products were corrected by sequence and enzyme digestion, and we found that BBa_B0010 in distribution plate was a fake one!
+                                <p>
-                        <br>
+. Vector 2: Combine CCR7/CXCR5 TA DNA and T3 vectors.<br/>
-                        -Acquire M phase promoter sequence with GenStar 2x Taq PCR Star(Mix with Loading Dye) using W303 genome.
+                                    Transformation: Transfer vector 2 into trans5a bacteria and culture the modified bacteria for 16 hours.<br/>
-                        <br>
+. Confirm whether we successfully transfer CXCR5 and CCR7 plasmids (TA primer) into the bacteria. <br/>
-                        -Clean up the PCR product(M phase promoter nest sequence).
+                                    <br/>
-                        <br>
+                                </p>
-                        -Mutation of the plasmid pAUR135.( Muta-direct™ Kit from SBS Genetech Co.,Ltd. SDM-15).
+                                <table>
-                    </p>
+                                    <tr>
-                </li>
+                                        <td>
-                <li id="2015-07-10" class="selected" style="opacity: 1;">
+                                            <img src="https://static.igem.org/mediawiki/2016/e/eb/T--SYSU-MEDICINE--project_note_02_07.png">                                    </td>
-                    <p>
+                                        <td>
-                        -We found that some of the clones turned red after overnight grown in LB broth. All of these clones were transferred with plasmids contain parts BBa_B0010, indicating that these plasmids were polluted by BBa_J04450.
+                                            Positive control  CXCR5 * 2   CCR7 * 1   1kb marker
-                        <br>
-                        -Acquire M phase promoter (prefix and suffix added M phase promoter sequence) with PCR procedure, using nest PCR product as template, and gel extraction.
-                        <br>
-                        -Acquire homologous sequence (prefix and suffix added homologous sequence) with PCR procedure, using nest PCR product as template, and gel extraction.
-                    </p>
-                </li>
-                <li id="2015-07-15" style="opacity: 0.2;">
+                                        </td>
-                    <p>
+                                    </tr>
-                        -Add RBS and ssrA(strong) to mCherry by PCR and Extract PCR products by using Gel Extraction Kit.
+                                </table>
-                        <br>
+                                <br/>
-                        -Double digestion of RBS-mc-ssrA(strong) PCR product and pSB1C3(r) with Spe I and EcoR I. Extract double digestion products by using Gel Extraction Kit.
+                                <p>
-                        <br>
+. Amply the bacteria culture, store them, extract the plasmids(TA-CXCR5, TA-CCR7) from them and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
-                        -Ligation of RBS-mc-ssrA(strong).
+. PCR：attB primers(CXCR5, CCR7) * plasmid templates, and Agarose Gel Electrophoresis             10μl<br/>
-                        <br>
+                                </p>
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+cm.
+                                <table>
-                        <br>
+                                    <tr>
-                        -We conducted digestion identification and sequencing. No sequencing results were obtained, and the sizes of digestion products were incorrect!
+                                        <td>
-                        <br>
-                        -Sequencing result of pAUR135 mutant: pAUR135 mutant have  A1041C mutation in CDS of AurR gene, which result in the elimination of Pst I restriction site.
-                        <br>
-                        -Enzyme digestion with FD Pst I (Takara)
-                        <br>
-                        -Extract the product(pAUR135 backbone with pst I sticky end) of 5000+bp
-                        <br>
-                        -End-filling with S1 nuclease.
-                        <br>
-                        -Ligation with T4 DNA polymerase.
-                    </p>
-                </li>
-                <li id="2015-07-18" style="opacity: 0.2;">
+                                            <img src="https://static.igem.org/mediawiki/2016/f/f7/T--SYSU-MEDICINE--project_note_02_08.png">                                   </td>
-                    <p>
+                                        <td>
-                        -Pick single colonies of RBS-mc-ssrA(strong), and streak them onto another plate to expand culture.
+bp marker  <br>   CXCR5      CCR7
-                        <br>
-                        -Perform colony PCR of RBS-mc-ssrA(strong).
-                        <br>
-                        -Pick correct colonies of RBS-mc-ssrA(strong), and inoculate a culture of 4 ml LB medium containing chloromycetin.
-                        <br>
-                        -We noted that BBa_B0010(fake) can ligate with our parts, and thus any part ligated with it must be reconstructed!
-                        <br>
-                        -We began to reconstruct our parts, and some of our parts, like Cre and eGFP run out. We amplified BBa_B1006 and BBa_B0015 in DH5a.
-                        <br>
-                        -Transform 5ul T4 ligation product (Jul.15) into 50ul DH5α.
-                        <br>
-                        -Select monoclonal colony and extract plasmid (pAUR135 circular backbone without pst I).
-                        <br>
-                        -Checkout of the removal of Pst I enzyme site.
-                    </p>
-                </li>
-                <li id="2015-07-23" style="opacity: 0.2;">
+                                        </td>
-                    <p>
+                                    </tr>
-                        -Use Plasmid Miniprep Kit to isolate mc-ssrA(strong) from the cultures.
+                                </table>
-                        <br>
+                                <br/>
-                        -We received our booked IDT gBlocks products arrived!
+                                <p>
-                        <br>
+. PCR: TA primers（CXCR1, CXCR3, CXCR4, CCR2, CCR5）* template，Agarose Gel Electrophoresis                 10μl<br/>
-                        -We changed our circuits by replacing some devide parts with composite parts. we converted BFP to BBa_E0422(ECFP), converted eGFP to E0840 (GFP with terminator), such changes can accelerate our work
+                                    Surprise: CCR2, CXCR3 <br/>
-                        <br>
+                                    <br/>
-                        -Double enzyme digestion (HF，NEB) with EcoR I and Sac I.
+                                </p>
-                        <br>
+                                <table>
-                        -Gel extraction (Digestion product with EcoR I and Sac I sticky end) With Tiangen gel extraction kit.
+                                    <tr>
-                        <br>
+                                        <td>
-                        -Anneal of MCS oligonucleotide.
-                        <br>
-                        -Ligation with double digested backbone and MCS anneal product.
-                        <br>
-                        -Transformation with ligation product.
-                        <br>
-                        -no colony found on the plate
-                        <br>
-                        -Double enzyme digestion did not work, as enzyme Sac I has very low(~20%) efficiency when the space between the two enzyme sites is very close(2bp in this experiment).
-                    </p>
-                </li>
-                <li id="2015-07-24" style="opacity: 0.2;">
+                                            <img src="https://static.igem.org/mediawiki/2016/a/a2/T--SYSU-MEDICINE--project_note_02_09.png">                                  </td>
-                    <p>
+                                        <td>
-                        -Add RTS sequences (loxp) to the flanks of RBS-mC-ssrA(strong)-1 by PCR.
+bp marker
-                        <br>
+                                            CXCR3
-                        -Extract PCR products by using Gel Extraction Kit.
+                                            CCR2
-                        <br>
+                                            Positive control
-                        -Double digestion of loxp-mcss-1 and B0015 (B0015 digest with Xba I and EcoR I, Fragments digest with Spe I and EcoR I). Extract double digestion products by using Gel Extraction Kit.
+kb marker
-                        <br>
-                        -Ligation of loxp-mcss-T.
-                        <br>
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+cm.
-                        <br>
-                        -Later sequence result shows the template we used, RBS-mC-ssrA(strong)-1, is not correct. So the clones made by this day are not correct too.
-                        <br>
-                        -We tested and confirmed that mCherry, E0422, E0840, Cre and B1006. They were all corrected.
-                        <br>
-                        -We ligated E0840 with loxP(reverse) and mCherry with B1006. But nearly no clone grown.
-                        <br>
-                        -We obtained some clones with ligation products of mCherry-B1006
-                        <br>
-                        -The first part, BBa_K1641213, was successfully constructed!
-                        <br>
-                        -Parts construction
-                        <br>
-                        -Adjust double enzyme digestion into two single digestions, first Sac I then EcoR I.
-                        <br>
-                        -MSC modification fails.
-                        <br>
-                        -Change MSC modification primer using Kpn I and EcoR I as sticky end.
-                        <br>
-                        -Double enzyme digestion with Kpn I and EcoR I and then ligate with MCS annealed product.
-                        <br>
-                        -Transformation.
-                        <br>
-                        -Extract plasmid: pAUR135-KE.
-                        <br>
-                        -Sequencing result shows incorrect ligation.
-                    </p>
-                </li>
-                <li id="2015-07-29" style="opacity: 0.2;">
+                                        </td>
-                    <p>
+                                    </tr>
-                        -Add RTS sequences (loxp) to the flanks of RBS-mC-ssrA(strong)-2 by PCR. Extract PCR products by using Gel Extraction Kit.
+                                </table>
-                        <br>
+                                <br/>
-                        -Ligated E0840 with loxP and pBAd-flpe-ECFP. We tried several methods of ligation. Preliminary "2A" assembly mthod was developed. However, colony PCR showed high false positive rate of these clones.
+                                <p>
-                    </p>
+. PCR: attB primers (CXCR5, CCR7) * plasmid templates, and Agarose Gel Electrophoresis                                50μl<br/>
-                </li>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
-                <li id="2015-08-01" style="opacity: 0.2;">
+                                            <img src="https://static.igem.org/mediawiki/2016/e/e6/T--SYSU-MEDICINE--project_note_02_10.png">                                </td>
-                    <p>
+                                        <td>
-                        -Double digestion of loxp-mcss and B0015. (B0015/B1006 digested with Xba I and EcoR I, Fragments digested with Spe I and EcoR I).Extract double digestion products by using Gel Extraction Kit.
+                                            Positive control
-                        <br>
+                                            CXCR5 * 1
-                        -Ligation of loxp-mcss-T.
+                                            CCR7 * 2
-                        <br>
+kb marker
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+cm.
-                        <br>
-                        -Pick single colonies of loxp-mcss-T, and streak them onto another plate to expand culture.
-                    </p>
-                </li>
-                <li id="2015-08-04" style="opacity: 0.2;">
-                    <p>
-                        -Perform colony PCR of loxp-mcss-T and record the correct colonies.
-                        <br>
-                        -Pick correct colonies of loxp-mcss-T, and inoculate a culture of 4 ml LB medium containing chloromycetin.
-                        <br>
-                        -Use Plasmid Miniprep Kit to isolate loxp-mcss-T from the cultures.
-                        <br>
-                        -We used PCR to reconstruct RBS-Cre-ssrA, and inserted this fragment into pSB backbone.
-                        <br>
-                        -All clones grown well! But somebody placed our enzymes out of refrigerator overnight. We went crazy! So our process was delayed.
-                        <br>
-                        -We placed the gBlocks products into pSB backbones. Most of them were successful. Also we gained some correct clones of loxP-GFP(BBa_K16416209).
-                        <br>
-                        -Ligations: Cre with mCherry and K1641206 with flpe-ECFP
-                        <br>
-                        -pAUR135-MCS modification
-                        <br>
-                        -Double enzyme digestion with Kpn I and EcoR I and then ligate with MCS annealed product.
-                        <br>
-                        -Transformation;Extract plasmid: pAUR135-MCS-KE
-                        <br>
-                        -Clone biobrick:KRE9UTR;GFP-PEST191;SV40NLS;Venus YFP
-                        <br>
-                        -Patch:bxb1gp35 RFC25optimized-puc19
-                        <br>
-                        -Transformation and Plasmid Preparation-MCS-KE
-                        <br>
-                        -Sequencing confirmed.
-                    </p>
-                </li>
-                <li id="2015-08-10" style="opacity: 0.2;">
+                                        </td>
-                    <p>
+                                    </tr>
-                        -Again, we tried to ligate the short intermediates with the long parts:pBAD(reverse) with FPs, etc.
+                                </table>
-                        <br>
+                                <br/>
-                        -We successfully ligated pBAD(reverse) with flpe-ECFP.
+                                <p>
-                        <br>
+. PCR: TA primers（CXCR1, CXCR3, CXCR4, CCR2, CCR5）* template，Agarose Gel Electrophoresis                   50μl<br/>
-                        -We used endonuclease and sequencing skills to test the correctness of ligation
+                                    <br/>
-                        <br>
+                                </p>
-                        -Clone cyclic promoters;PCR :YMR013C/Cln3p/Met16p from yeast genome add attB/P sites, prefix and suffix
+                                <table>
-                        <br>
+                                    <tr>
-                        -transformation and plasmid preparation:MCS-KE
+                                        <td>
-                        <br>
-                        -Assemble:Pgal+kozak-1C3;bxb1gp35+SV40NLS-1C3;;Pbad-RBS-1C3
-                        <br>
-                        -Double digestion, ligation and transformation
-                        <br>
-                        -Mutation:MCS-KE to RFC25 optimized
-                        <br>
-                        -Substrate digested via Fast Digest-Dpn I.
-                        <br>
-                        -product transformed in TOP10 50, Amp
-                    </p>
-                </li>
-                <li id="2015-08-17" style="opacity: 0.2;">
+                                            <img src="https://static.igem.org/mediawiki/2016/7/7b/T--SYSU-MEDICINE--project_note_02_11.png">                               </td>
-                    <p>
+                                        <td>
-                        -Double digestion of loxp-mc-1, loxp-mc-2, B0015 and CG, CGS, B1006 (B0015/B1006 digested with Xba I and EcoR I. Fragments digested with Spe I and EcoR I). Extract double digestion products by using Gel Extraction Kit.
+                                            CXCR3
-                        <br>
+                                            CCR2
-                        -Ligation of loxp-mc-1-T, loxp-mc-2-T and CGT, CGST.
+                                            Positive control
-                        <br>
+kb marker
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+cm.
-                        <br>
-                        -Use Plasmid Miniprep Kit to isolate I0500 from the cultures.
-                        <br>
-                        -We ligated pBAD(forward) with other parts contains FPs
-                        <br>
-                        -We test whether pBAD and FPs can worked, but we met high false positive rates.
-                        <br>
-                        -We found that the ECFP sequence of our BBa_K1641209 sample was reverse! Oh my God!
-                        <br>
-                        -Clone biobrick:ECFP;EYFP;mRFP1
-                        <br>
-                        -PCR:reversed mRFP1;reversed KRE9UTR
-                        <br>
-                        -Plasmid preparation: pAUR135 RFC25 optimized
-                        <br>
-                        -Assemble:reversed KRE9UTR+reversed mRFP1;eCFP+KRE9UTR
-                        <br>
-                        -Double digestion, ligation and transformation
-                        <br>
-                        -Add sequence via PCR:
-                        prefix-RBS-eCFP-terminatior-frt;loxP-RBS-Cre-ssrA;prefix-RBS-GFP-Terminator-loxp;prefix-ECFP-frt-suffix;prefix-loxP-Cre-suffix;prefix-GFP-loxp-suffix
-                        <br>
-                        -Assemble:Met16p-eCFP;YMR013C-eCFP;Loxp-cre+gfp-loxp;frt-flpe-cfp-frt
-                        <br>
-                        -Transformation.
-                        <br>
-                        -Plasmid preparation.
-                    </p>
-                </li>
-                <li id="2015-08-25" style="opacity: 0.2;">
-                    <p>
-                        -Double digestion of dre, vika, scre, vcre, pSB1C3(r) with Spe I and EcoR I. Extract double digestion products by using Gel Extraction Kit.<br>
-                        -Ligation of dre, vika, scre, vcre and pSB1C3(r).<br>
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+cm.<br>
-                        -Pick single colonies of dre(1c3), vika(1c3), vcre(1c3), scre(1c3), and streak them onto another plate to expand culture. <br>
-                        -Perform colony PCR of dre(1c3), vika(1c3), vcre(1c3), scre(1c3) and record the correct colonies.<br>
-                        -Pick correct colonies of dre(1c3), vika(1c3), vcre(1c3), scre(1c3), and inoculate a culture of 3 ml LB medium containing chloromycetin<br>
-                        -Add RTS sequences(loxp) to the flanks of RBS-mC-ssrA(strong) by PCR. Electrophoresis result didn’t shows correct bands.<br>
-                        -Use Plasmid Miniprep Kit to isolate dre(1c3), vika(1c3), vcre(1c3), scre(1c3) from the cultures.<br>
-                        -We tried to amplify BBa_K1641203, BBa_K1641201, BBa_K1641209 <br>
-                        -We ligated mCherry with BBa_K1641208.<br>
-                        -Assemble:reversed KRE9UTR+reversed mRFP1;eCFP+KRE9UTR<br>
-                        -Restriction analysis:loxp-cre-gfp-loxp<br>
-                        -Assemble:YFP-KRE9UTR;reversed KRE9UTR+reversed mRFP1<br>
-                        -Sequencing:loxp-cre-gfp-loxp
-                    </p>
-                </li>
-                <li id="2015-08-28" style="opacity: 0.2;">
+                                        </td>
-                    <p>
+                                    </tr>
-                        -Prepare RBS-Flpe-fc by PCR.<br>
+                                </table>
-                        -Use Plasmid Miniprep Kit to isolate CG, CGS, B0015, B1006, I0500 from the cultures.<br>
+                                <br/>
-                        -Add RTS sequences(loxp) to the flanks of RBS-mC-ssrA(strong) by PCR. Electrophoresis result didn’t shows correct bands.<br>
+                                <p>
-                        -Add RTS sequences(FRT, Rox, SloxpM1, Vloxp, vox) to the flanks of RBS-mC-ssrA(strong) by PCR. Electrophoresis result didn’t shows correct bands.<br>
+. Purify the CXCR5, CCR7 DNA (both containing attB primer) and detect the concentration of them (TIANGEN kit)<br/>
-                        -We had many colony PCR experiments to find a correct clone, we did.<br>
+. Gateway: BP reaction (CXCR5, CCR7 DNA (both containing attB primer)) <br/>
-                        -We eventually had a real BBa_K1641209. Also we have correct BBa_1641203 and BBa_K1641201. So we can use these parts to construct the Circuit2, which was improved on the basis of Circuit1. <br>
+. TA primers（CXCR1, CXCR3, CXCR4, CCR2）* template cDNA, Agarose Gel Electrophoresis                      10μl<br/>
-                        -clone and assemble:loxp-cre-gfp-loxp;frt-flpe-cfp-frt<br>
+                                    <br/>
-                        -sequencing inconsistant
+                                </p>
-                    </p>
+                                <table>
-                </li>
+                                    <tr>
+                                        <td>
-                <li id="2015-09-01" style="opacity: 0.2;">
+                                            <img src="https://static.igem.org/mediawiki/2016/4/40/T--SYSU-MEDICINE--project_note_02_12.png">                              </td>
-                    <p>
+                                        <td>
-                        -Double digestion of PCG-1, PCGS-1, B1006. (B1006 digested with Xba I and EcoR I, fragment digested with Spe I and EcoR I). Extract double digestion products by using Gel Extraction Kit.<br>
+                                            Positive control
-                        -Ligation of PCGT, PCGST.<br>
+kb marker
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+cm.<br>
+                                            No results.
-                        -Perform 20ul system PCR to test if the primers of FRT, Rox, SLM, VL, vox work.<br>
-                        -Add RTS sequences to the flanks of FRT, Rox, SLM, VL, vox by PCR. Extract PCR products by using Gel Extraction Kit.<br>
-                        -Double digestion of FRT, Rox, SLM, VL, vox and pSB1C3(r) with EcoR I and Pst I. Extract double digestion products by using Gel Extraction Kit.<br>
-                        -Ligation of FRT, Rox, SLM, VL, vox.<br>
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+cm.<br>
-                        -Use Plasmid Miniprep Kit to isolate PCGT-1, PCGST-1, pSB3k3 from the cultures.<br>
-                        -Double digestion of PCGT-1, PCGST-1 and pSB3k3. Extract double digestion products by using Gel Extraction Kit.<br>
-                        -Ligation of PCGT-1(3k3), PCGST-1(3k3).<br>
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+kan.<br>
-                        -Perform colony PCR of FRT-mcsm, Rox-mcsm, VL-mcsm, vox-mcsm.<br>
-                        -Pick correct colonies of FRT-mcsm, Rox-mcsm, VL-mcsm, vox-mcsm, and inoculate a culture of 4 ml LB medium containing chloromycetin.<br>
-                        -Perform colony PCR of RBS-mc-ssrA(strong).<br>
-                        -Pick correct colonies of RBS-mc-ssrA(strong), and inoculate a culture of 4 ml LB medium containing chloromycetin.<br>
-                        -We successfully ligated pBAD(reverse) with flpe-ECFP and we also got correct BBa_K1641214.<br>
-                        -We tried to induce BBa_K1641214 in DH5a and Top10 strains with L-arabinose in LB broth, then test the intensity of fluorescence
-                    </p>
-                </li>
-                <li id="2015-09-06" style="opacity: 0.2;">
-                    <p>
-                        -Use Plasmid Miniprep Kit to isolate FRT-mcsm-3, Rox-mcsm-3, SLM-mcsm-4, VL-mcsm-4, vox-mcsm-2,VGC-3, PCGT(3k3), PCGST(3k3), mc-ss-2 from the cultures.<br>
-                        -Double digestion of ScGS-1, VGS-3, VcGS-4, FGS-1, DGS-1 and I0500. Extract double digestion products by using Gel Extraction Kit.<br>
-                        -Ligation of PDGS, PFGS, PVcGS, PVGS, PScGS.<br>
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+cm.<br>
-                        -Perform colony PCR of PDGS, PFGS, PScGS, PVcGS.<br>
-                        -Pick correct colonies of PDGS, PFGS, PScGS, PVcGS, and inoculate a culture of 4 ml LB medium containing chloromycetin.<br>
-                        -Double digestion of RT-mcsm-3, Rox-mcsm-3, SLM-mcsm-4, VL-mcsm-4, vox-mcsm-2 and B0015. (B0015 digested with Xba I and EcoR I, fragment digested with Spe I and EcoR I). Extract double digestion products by using Gel Extraction Kit.<br>
-                        -Ligation of FRT-mcsm-T, Rox-mcsm-T, SLM-mcsm, VL-mcsm-T.<br>
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+cm.<br>
-                        -Use Plasmid Miniprep Kit to isolate PDGS-2, PFGS-5, PVcGS-1, PVGS-4, p23101, B0015, loxp-mcsm-Inv-rep from the cultures.<br>
-                        -Double digestion of PDGS-2, PFGS-5, PVcGS-1, PVGS-4 and B1006. (B1006 digested with Xba I and EcoR I, fragment digest with Spe I and EcoR I). Extract double digestion products by using Gel Extraction Kit.<br>
-                        -Ligation of PDGST, PFGST, PScGST, PVcGST.<br>
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+cm.<br>
-                        -Transform PCGT with loxp-mcsm-Inv-rep, PCGST with loxp-mcsm-Inv-rep, plate the transformed cells on LB+kan+cm.
-                    </p>
-                </li>
-                <li id="2015-09-10" style="opacity: 0.2;">
+                                        </td>
-                    <p>
+                                    </tr>
-                        -Use Plasmid Miniprep Kit to isolate FRT-mcsm-T, Rox-mcsm-T, SLM-mcsm, VL-mcsm-T from the cultures.<br>
+                                </table>
-                        -Extract double digestion products by using Gel Extraction Kit.<br>
+                                <br/>
-                        -Ligation of P-FRT-mcsm-T(FRT-reporter), P-Rox-mcsm-T(Rox-reporter), P-SLM-mcsm(SLM-reporter), P-VL-mcsm-T(VL-reporter).<br>
+                                <p>
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+cm.<br>
+. TA primers（CXCR3, CCR2）* template，Agarose Gel Electrophoresis                      50μl<br/>
-                        -Use Plasmid Miniprep Kit to isolate PDGST-5, PFGST-1, PScGST-4, PVcGST-1, VGS-4, VGS-5 from the cultures.<br>
+                                    <br/>
-                        -Double digestion of PDGST-5, PFGST-1, PScGST-4, PVcGST-1 and pSB3K3. Extract double digestion products by using Gel Extraction Kit.<br>
+                                </p>
-                        -Ligation of PDGST-5(3k3), PFGST-1(3k3), PScGST-4(3k3), PVcGST-1(3k3). <br>
+                                <table>
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+kan.<br>
+                                    <tr>
-                        -pcr (add sequence):prefix-RBS-flpe-FC, FC-Mcherry-T7-frt-suffix from biobrick<br>
+                                        <td>
-                        -overlap pcr:RBS-flpe-FC-Mcherry
-                    </p>
+                                            <img src="https://static.igem.org/mediawiki/2016/0/0b/T--SYSU-MEDICINE--project_note_02_13.png">                             </td>
-                </li>
+                                        <td>
+kb marker
+                                            CXCR3
+bp marker
-                <li id="2015-09-12" style="opacity: 0.2;">
-                    <p>
-                        -Pick single colonies of PDGST-5(3k3), PFGST-1(3k3), PScGST-4(3k3), PVcGST-1(3k3), and streak them onto another plate to expand culture.<br>
-                        -Perform colony PCR of PDGST-5(3k3), PFGST-1(3k3), PScGST-4(3k3), PVcGST-1(3k3). Colony No. 2, 3, 4, 6 of PDGST-5(3k3), No. 2, 3, 4, 5 of PFGST-1(3k3), No. 1, 2, 3, 4, 5, 6 of PScGST-4(3k3), No. 3, 4, 5, 6 of PVcGST-1(3k3) are correct.<br>
-                        -Pick correct colonies of PDGST-5(3k3), PFGST-1(3k3), PScGST-4(3k3), PVcGST-1(3k3), and inoculate a culture of 4 ml LB medium containing kanamycin. <br>
-                        -Use Plasmid Miniprep Kit to isolate PDGST-5-2, PFGST-1-2, PScGST-4-1, PVcGST-1-4 from the cultures.<br>
-                        -Double digestion of PDGST-5-2, PFGST-1-2, PScGST-4-1, PVcGST-1-4 and pSB1K3 with EcoR I and Pst I. Extract double digestion products by using Gel Extraction Kit.<br>
-                        -Ligation of PDGST-5-2(1k3), PFGST-1-2(1k3), PScGST-4-1(1k3), PVcGST-1-4(1k3).<br>
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+kan.<br>
-                        -Transform PDGST-2(3k3) with Rox-repoter, PFGST-4(3k3) with FRT-reporter, PScGST-1(3k3) with SLM-repoter, PVcGST-2(3k3) with vox-repoter, plate the transformed cells on LB+kan+cm. <br>
-                        -We detected ECFP in M9 broth!<br>
-                        -BBa_K1641225 correctly constructed!<br>
-                        -pcr (add sequence):prefix-flpe-FC, FC-Mcherry-T7TE-frt-suffix from biobrick<br>
-                        -overlap pcr:flpe-FC-Mcherry;overlap pcr worked<br>
-                        -assemble:Pbad-frt-RBS-flpe-FC-Mcherry-T7TE-frt in pSB1A2
-                    </p>
-                </li>
-                <li id="2015-09-14" style="opacity: 0.2;">
+                                        </td>
-                    <p>
+                                    </tr>
-                        -Use Plasmid Miniprep Kit to isolate cgs, vgs, gp38 from the cultures.<br>
+                                </table>
-                        -Pick single colonies of PDGST-4(1k3), PFGST-4(1k3), PScGST-4(1k3), PVcGST-1(1k3) , and streak them onto another plate to expand culture.<br>
+                                <br/>
-                        -Perform colony PCR of PDGST-4(1k3), PFGST-4(1k3), PScGST-4(1k3), PVcGST-1(1k3). Colony No. 1, 2, 3, 4, 5, 6 of PDGST-4(1k3), No. 2, 4, 6, 7 of PFGST-4(1k3), No. 1, 2, 3, 4, 5, 6 of PScGST-4(1k3), No. 1, 2, 3, 4, 5, 6 of PVcGST-1(1k3) are correct.<br>
+                                <p>
-                        -Pick correct colonies of PDGST-4(1k3), PFGST-4(1k3), PScGST-4(1k3), PVcGST-1(1k3), and inoculate a culture of 4 ml LB medium containing kanamycin.<br>
+. Continue Gateway from Experiment (Confirm whether we successfully transfer Entry clone: CXCR5-1064 vector and CCR7-1064 vector into the bacteria, respectively.)<br/>
-                        -Use Plasmid Miniprep Kit to isolate PDGST(1k3), PFGST(1k3), PScGST(1k3), PVcGST(1k3), Test-mc-T, Test-rep, p23101, I0500, B1006 from the cultures.<br>
+                                    <br/>
-                        -Double digestion of FRT-mcsm-T, Rox-mcsm-T, SLM-mcsm-T, VL-mcsm-T (Spe I and Pst I) and p23101(Xba I and Pst I). Extract double digestion products by using Gel Extraction Kit.<br>
+                                </p>
-                        -Ligation of p-FRT-mcsm-T, p-Rox-mcsm-T, p-SLM-mcsm-T and p-VL-mcsm-T.<br>
+                                <table>
-                        -Transform the ligation reactions into standard bacterial cloning cells(DH5α), plate the transformed cells on LB+cm.<br>
+                                    <tr>
-                        -We conducted fluorescence measurements to confirmed whether BBa_K1641225 can work. We still tried to construct a full plasmid in Circuit 2.<br>
+                                        <td>
-                        -pcr (add sequence):prefix-loxP-RBS-Cre-FC, FC-eGFP-T7TE-loxP-suffix from biobrick<br>
+                                            <img src="https://static.igem.org/mediawiki/2016/d/d4/T--SYSU-MEDICINE--project_note_02_14.png">                           </td>
-                        -overlap pcr:loxP-RBS-Cre-FC-eGFP-T7TE-loxP;overlap pcr worked<br>
+                                        <td>
-                        -assemble:Pbad-frt-RBS-flpe-FC-Mcherry-T7TE-frt-loxP-RBS-Cre-FC-eGFP-T7TE-loxP in pSB1A2
+                                            Positive control<br/>
-                    </p>
+                                            CXCR5 * 2<Br/>
-                </li>
+kb marker<br/>
+                                        </td>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/9/95/T--SYSU-MEDICINE--project_note_02_15.png">                           </td>
+                                        <td>
+bp marker<br/>
+                                            CCR7 * 2<Br/>
+                                            Positive control<br/>
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+. Amply the modified bacteria culture<br/>
+                                    Incubate the bacteria culture for 16 hours at 37°C with vigorous agitation, monitoring the growth of the culture.<br/>
+. Continue Gateway (Preparation of Plasmid DNA (Entry clone: CXCR5-1064 vector and CCR7-1064 vector) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
+. DNA sequence: Entry clone: CXCR5-1064 vector and CCR7-1064 vector<br/>
+                                    (CXCR5-1064 vector and CCR7-1064 vector pDown vector are finished.)<br/>
+                                </p>
+                            </li>
+                            <li id="2016.06.20-26" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+. PCR: change annealing temperature (CXCR1, CXCR3, CXCR4, CCR2, CCR5 gene)<br/>
+. Agarose Gel Electrophoresis<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/5/50/T--SYSU-MEDICINE--project_note_02_16.png">                                       </td>
+                                        <td>
+                                            CXCR4     100bp marker
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+. PCR: new primers (CXCR4) * a new blood template, and Agarose Gel Electrophoresis            80μl          <br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/d/d8/T--SYSU-MEDICINE--project_note_02_17.png">                                   </td>
+                                        <td>
+bp marker   CXCR4   positive control   1kb marker
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+. Purify the PCR product from step 3<br/>
+. Vector 2: Combine CXCR4 TA DNA and T3 vectors.<br/>
+                                    Transfer vector 2 into trans5a bacteria and culture the modified bacteria for 16 hours.<br/>
+. PCR: new primers (CXCR1, CXCR3, CCR2, CCR5 gene) * a new blood template2, and Agarose Gel Electrophoresis            10μl          <br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/5/5a/T--SYSU-MEDICINE--project_note_02_18.png">                                </td>
+                                        <td>
+                                            Positive control
+                                            CXCR1   CXCR3
+                                            CCR2    CCR5
+kb marker
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+. PCR: new primers(CXCR1, CXCR3, CCR2, CCR5 gene) * a new blood template2, and Agarose Gel Electrophoresis            80μl          <br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/6/6e/T--SYSU-MEDICINE--project_note_02_19.png">                              </td>
+                                        <td>
+                                            Positive control
+                                            CXCR1
+                                            CXCR3
+                                            CCR2
+                                            CCR5
+kb marker
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+                                    <br/>
+. Confirm whether we successfully transfer CXCR4 plasmids (TA primer) into the bacteria and amply the bacteria culture and store them.<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/e/e7/T--SYSU-MEDICINE--project_note_02_20.png">                            </td>
+                                        <td>
+kb marker
+                                            Positive control
+                                            CXCR4 * 2
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+. Purify the PCR products yesterday and detect the concentration of them. (CXCR1, CXCR3, CCR2, CCR5)<br/>
+. Vector 2: Combine CXCR1/CXCR3/CCR2/CCR5 TA DNA and T3 vectors.<br/>
+. Transfer vector 2 into trans5α and culture them for 16 hours.<br/>
+. Confirm whether we successfully transfer CXCR1/CXCR3/CCR2/CCR5 plasmids (TA primer) into the bacteria and amply the bacteria culture and store them.  <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/7/74/T--SYSU-MEDICINE--project_note_02_21.png">                           </td>
+                                        <td>
+                                            Positive control
+                                            CXCR1
+                                            CCR5
+kb marker
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+. Extract the plasmids (TA-CXCR1/ CXCR4/ CCR5) from them.<br/>
+. PCR：attB primers (CXCR1, CXCR4, CCR5) * plasmid templates, and Agarose Gel Electrophoresis             10μl<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/9/9e/T--SYSU-MEDICINE--project_note_02_22.png">                          </td>
+                                        <td>
+                                            CXCR1, CXCR4, CCR5,
+                                            Positive control
+kb marker
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+. PCR：attB primers (CXCR1, CXCR4, CCR5) * plasmid templates, and Agarose Gel Electrophoresis             80μl<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/0/03/T--SYSU-MEDICINE--project_note_02_23.png">                       </td>
+                                        <td>
+                                            CXCR1, CXCR4, CCR5,
+kb marker
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+. Purify PCR products<br/>
+. Gateway: BP reaction(CXCR1/ CXCR4/ CCR5-vector 1064)<br/>
+. Transfer plasmids (CXCR1/ CXCR4/ CCR5-vector 1064) into trans5α and culture the modified bacteria for 14 hours.<br/>
+. Pick a single bacterial colony again. Transfer the colony into medium (containing Amp antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.<br/>
+. Continue Gateway (Confirm whether we successfully transfer Entry clone: CXCR1-1064 vector, CXCR4-1064 vector and CCR5-1064 vector into the bacteria, respectively.)<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/a/ab/T--SYSU-MEDICINE--project_note_02_24.png">                     </td>
+                                        <td>
+                                            Positive control
+                                            CXCR1 * 1
+                                            CXCR4 * 2
+                                            CCR5 * 2
+kb marker
+bp marker
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+                                    <br/>
+. Amply the modified bacteria culture<br/>
+                                    Incubate the bacteria culture for 16 hours at 37°C with vigorous agitation, monitoring the growth of the culture.<br/>
+. Confirm whether we successfully transfer CCR2 plasmids (T3) into the bacteria and amply the bacteria culture and store them.<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/0/0f/T--SYSU-MEDICINE--project_note_02_25.png">                    </td>
+                                        <td>
+                                            CCR2
+                                            Positive control
+kb marker
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+. Preparation of Plasmid DNA (CCR2-T3 vector) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
+. PCR: attB primers (CCR2) * CCR2-T3 vector and Agarose Gel Electrophoresis    100μl   <br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/d/d7/T--SYSU-MEDICINE--project_note_02_26.png">                   </td>
+                                        <td>
+kb marker
+                                            CCR2
+                                            others
+                                            Positive control
+bp marker
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+. Purify the PCR product and detect its concentration.<br/>
+                                    <br/>
+                                </p>
+                            </li>
+                            <li id="2016.06.27-07.03" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+. Continue Gateway (Preparation of Plasmid DNA (Entry clone: CXCR1-1064 vector, CXCR4-1064 vector and CCR5-1064 vector) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
+                                    <b>2.</b> DNA sequence: Entry clone: CXCR1-1064 vector, CXCR4-1064 vector and CCR5-1064 vector.<br/>
+. Gateway: BP reaction (CCR2-vector 1064)<br/>
+                                    Transfer plasmids (CCR2-vector 1064) into trans5α and culture the modified bacteria for 14 hours.<br/>
+. Continue Gateway (Confirm whether we successfully transfer Entry clone: CCR2-1064 vector into the bacteria and culture them at 37°C for 14 hours.)<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/6/6f/T--SYSU-MEDICINE--project_note_02_27.png">
+                                        </td>
+                                        <td>
+bp marker
+                                            CCR2-1064 * 2
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+. Explore CXCR3——PCR and Agarose Gel Electrophoresis       <br/>
+                                    A new blood template * new primers (CXCR3)          10μl<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/4/4e/T--SYSU-MEDICINE--project_note_02_28.png">
+                                        </td>
+                                        <td>
+bp marker
+                                            CXCR3
+                                            Positive control
+kb marker
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+                                    <br/>
+. PCR and Agarose Gel Electrophoresis       <br/>
+                                    A new blood template * new primers (CXCR3)        100μl<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/5/50/T--SYSU-MEDICINE--project_note_02_29.png">
+                                        </td>
+                                        <td>
+                                            CXCR3
+bp marker
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+. Purify the PCR product from step 3 and detect its concentration.<br/>
+                                    Fail~~TOO LOW.<br/>
+. Preparation of Plasmid DNA (Entry clone: CCR2-1064 vector) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
+. DNA sequence: Entry clone: CCR2-1064 vector.<br/>
+. Design point mutation of CXCR1, CXCR3, CXCR5, CCR2, CCR5 <br/>
+. DNA sequence: dTomato, eGFP, luciferase-Ires-eGFP<br/>
+                                </p>
+                            </li>
+                            <li id="2016.07.04-10" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+. Single point mutation for CXCR1, CXCR5, CCR2, CCR5<br/>
+                                    Agarose Gel Electrophoresis<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/3/36/T--SYSU-MEDICINE--project_note_02_30.png">
+                                        </td>
+                                        <td>
+bp marker (tract 2)
+                                            CXCR1 (tract4,5)，CXCR5 (tract7,8),
+                                            CCR2 (tract 10, 11)
+                                            CCR5(tract 12,13)，
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+. Purify intermediate product of CXCR5/CCR5 and form mixture<br/>
+. Agarose Gel Electrophoresis<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/3/37/T--SYSU-MEDICINE--project_note_02_31.jpeg">
+                                        </td>
+                                        <td>
+bp marker (tract 5) CXCR5 (tract2),
+                                            CCR5(tract 3)，
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+.Repeat single point mutation of CXCR1 and CCR2. <br/>
+. Amply the plasmid backbone pSB1C3 and DNA sequence<br/>
+. Purify CXCR5 and CCR5 single-point mutation product and combine them with T3 vector, respectively.<br/>
+. Transfer CXCR5-T3 and CCR5-T3 vector into trans5α bacteria, respectively and culture them at 37°C for 14 hours.<br/>
+. Pick up a single clone of bacteria and confirm whether we successfully transfer them into bacteria.<br/>
+. Culture the single clone bacteria at 37°C for 14 hours, extract the plasmids from them, detect the concentration of them, and DNA sequencing. (CXCR5 and CCR5 single-point mutation product)<br/>
+. PCR: dTomato, eGFP, IRES, luciferase.<br/>
+. Purify CXCR1 and CCR2 single-point mutation product and combine them with T3 vector, respectively.<br/>
+. Transfer CXCR1-T3 and CCR2-T3 vector into trans5α bacteria, respectively and culture them at 37°C for 14 hours.<br/>
+. Pick up a single clone of bacteria and confirm whether we successfully transfer them into bacteria.<br/>
+. Culture the single clone bacteria at 37°C for 14 hours, extract the plasmids from them, detect the concentration of them, and DNA sequencing. (CXCR1 and CCR2 single-point mutation product)<br/>
+   Repeat single point mutation of CXCR1 and CCR2<br/>
+                                    RESULTS: fail to finish the point mutations of CXCR1 and CCR2<br/>
+                                </p>
+                            </li>
+                            <li id="2016.07.11-17" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+    continue to conduct the point mutation of CXCR1 and CCR2<br/>
+                                    Results: NO. Now we change our method to conduct our point mutation of CXCR1 & CCR2<br/>
+    PCR: Single point mutation for CXCR1, Agarose Gel Electrophoresis<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/a/a0/T--SYSU-MEDICINE--project_note_02_32.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            CXCR1-86bp (tract2),
+                                            CXCR1-1000+bp (tract 3)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+    overlap of anterior fragment and posterior fragment (PCR) <br/>
+                                    Agarose Gel Electrophoresis<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/b/bc/T--SYSU-MEDICINE--project_note_02_33.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            CXCR1-overlap (tract2),
+                                            CXCR1-postive control (tract 3)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+                                    RESULTS: NO<br/>
+  Using another method to run the point mutation of CXCR1 (PCR to lengthen the posterior fragment to make an entire fragment)<br/>
+  PCR: the first time (adding 32bp to the posterior fragment)<br/>
+                                    Agarose Gel Electrophoresis<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/7/7e/T--SYSU-MEDICINE--project_note_02_34.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            CXCR1-postive control (tract2),
+                                            CXCR1-adding 32bp (tract 3)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   PCR: fragment IRES to dTomato<br/>
+                                    Agarose Gel Electrophoresis<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/b/b2/T--SYSU-MEDICINE--project_note_02_35.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            IRES (tract2),
+                                            dTomato (tract 3)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+                                    RESULTS: NO<br/>
+                                </p>
+                            </li>
+                            <li id="2016.07.18-24" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+  PCR: the second time (adding 34bp to the posterior+32bp fragment)<br/>
+                                    Agarose Gel Electrophoresis<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/4/4d/T--SYSU-MEDICINE--project_note_02_36.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            CXCR1-34bp+posterior+32bp (tract2),
+                                            CXCR1-positve control (tract 4)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   Purify CXCR1 single-point mutation product and combine it with T3 vector<br/>
+   Transfer CXCR1-T3 vector into trans5α bacteria and culture it at 37°C for 14 hours.<br/>
+  Pick up a single clone of bacteria from step3 and confirm whether we successfully transfer them into bacteria.<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/4/4b/T--SYSU-MEDICINE--project_note_02_37.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            CXCR1 (tract2-6),
+                                            CXCR1-positve control (tract 7)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+  Culture the single clone bacteria at 37°C for 14 hours, extract the plasmids from them, detect the concentration of them, and DNA sequencing. (CXCR1 single-point mutation product) <br/>
+                                    So far, we have conduct all our chemokine receptors except for CXCR3, and finish the point mutation of CXCR1, CXCR5, CCR5 (CXCR4, CCR7 do not have to conduct the point mutation experiment.)<br/>
+    Conduct the Gateway LR reactions (EF-1α-CXCR4-IRES-eGFP)<br/>
+    Transfer plasmid (EF-1α-CXCR4-IRES-eGFP) into trans5α and culture the modified bacteria for 14 hours.<br/>
+    Pick a single bacterial colony from plates. And run a PCR to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/b/bb/T--SYSU-MEDICINE--project_note_02_38.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            CXCR4-LR (tract2-6),
+                                            CXCR4-positve control (tract 7)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+    Transfer the colony into medium (containing Amp antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.<br/>
+    Preparation of Plasmid DNA (expression vector: EF-1α-CXCR4-IRES-eGFP) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
+   DNA sequence: expression vector: EF-1α-CXCR4-IRES-eGFP<br/>
+                                    Finish conduct the expression vector: EF-1α-CXCR4-IRES-eGFP<br/>
+   PCR：attB primers (CXCR5 point mutation) * plasmid templates from CXCR5 point mutation plasmid, and Agarose Gel Electrophoresis             80μl<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/6/66/T--SYSU-MEDICINE--project_note_02_39.png">
+                                        </td>
+                                        <td>
+bp (tract1)
+                                            CXCR5 point mutation (tract 2)
+                                            CXCR5 positive control (tract 3)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   Purify PCR products<br/>
+   Gateway: BP reaction (CXCR5 point mutation-vector 1064)<br/>
+   Transfer plasmids (CXCR5 point mutation-vector 1064) into trans5α and culture the modified bacteria for 14 hours.<br/>
+   Pick a single bacterial colony. And run a PCR and Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/1/1c/T--SYSU-MEDICINE--project_note_02_40.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            CXCR5-point mutation-BP (tract2-4),
+                                            CXCR5-positve control (tract 5)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+    Transfer the colony into medium (containing kana antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.<br/>
+    Preparation of Plasmid DNA (entry clone: CXCR5 point mutation -vector 1064) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
+   DNA sequence: CXCR5 point mutation-vector 1064<br/>
+                                    Finish conduct the CXCR5 point mutation-vector 1064<br/>
+                                </p>
+                            </li>
+                            <li id="2016.07.25-31" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+PCR: α-SMA promoter and run a Agarose Gel Electrophoresis to confirm the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/1/1c/T--SYSU-MEDICINE--project_note_02_41.png">
+                                        </td>
+                                        <td>
+                                            α-SMA promoter (tract1-2),
+bp marker (tract 3)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   purify the PCR product <br/>
+   conduct Gateway: BP reaction——Pup α-SMA promoter<br/>
+   Transfer plasmids(Pup α-SMA promoter) into trans5α and culture the modified bacteria for 14 hours.<br/>
+   Pick a single bacterial colony. And run a PCR and Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/1/1b/T--SYSU-MEDICINE--project_note_02_42.png">
+                                        </td>
+                                        <td>
+                                            Pup α-SMA promoter (tract1-3),
+kbp marker (tract 4)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   Transfer the colony into medium (containing kana antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.<br/>
+   Preparation of Plasmid DNA (entry clone: pup-α-SMA promoter) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
+   Gateway:LR reaction(α-SMA promoter-eGFP)<br/>
+   Transfer plasmid (α-SMA promoter-eGFP) into trans5α and culture the modified bacteria for 14 hours.<br/>
+   Pick a single bacterial colony from plates. And run a PCR and Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/2/2e/T--SYSU-MEDICINE--project_note_02_43.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            a-SMA promoter-eGFP (tract2-7),
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   Transfer the colony into medium (containing Amp antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.<br/>
+   Preparation of Plasmid DNA (expression vector: α-SMA promoter-eGFP) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
+   DNA sequence: expression vector: α-SMA promoter-eGFP<br/>
+                                    Finish conduct the expression vector: α-SMA promoter-eGFP<br/>
+   PCR: CXCR5 point mutation+T2A (anterior fragment, short for R1); T2A (posterior fragment, short for F1) + luciferase<br/>
+   run an Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/7/7b/T--SYSU-MEDICINE--project_note_02_44.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            CXCR5-R1 (tract10),
+                                            F1-luciferase (tract11)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   Purify CXCR5-R1 and F1-luciferase product and combine them with T3 vector, respectively.<br/>
+   Transfer CXCR5-R1-T3 and F1-luciferase-T3 vector into trans5α bacteria, respectively and culture them at 37°C for 14 hours.<br/>
+    Pick up a single clone of bacteria and confirm whether we successfully transfer them into bacteria.<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/3/3d/T--SYSU-MEDICINE--project_note_02_45.png">
+                                        </td>
+                                        <td>
+                                            F1-luciferase-T3 (tract1-4)
+                                            CXCR5-R1-T3 (tract5-8),
+bp marker (tract 9)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+    Culture the single clone bacteria at 37°C for 14 hours, extract the plasmids from them, detect the concentration of them, and DNA sequencing. (CXCR5-R1 & F1-luciferase)<br/>
+    PCR the second time: CXCR5 point mutation + T2A (anterior fragment 2, short for R2) and T2A (posterior fragment 2, short for F2) + luciferase <br/>
+    run an Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/e/e9/T--SYSU-MEDICINE--project_note_02_46.png">
+                                        </td>
+                                        <td>
+                                            CXCR5-R2 (tract1),
+                                            F2-luciferase (tract2)
+bp marker (tract 3)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   purify the PCR products of CXCR5-R2 & F2 luciferase<br/>
+   PCR: overlap of CXCR5-R2 & F2-luciferase ( short for CXCR5-luciferase attB)<br/>
+   run an Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/8/81/T--SYSU-MEDICINE--project_note_02_47.png">
+                                        </td>
+                                        <td>
+                                            CXCR5-Luciferase attB (tract1),
+bp marker (tract 2)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   purify the PCR products of CXCR5-Luciferase attB<br/>
+   Gateway: BP reaction (CXCR5-Luciferase-vector 1064)<br/>
+   Transfer plasmids (CXCR5-Luciferase-vector 1064) into trans5α and culture the modified bacteria for 14 hours.<br/>
+   Pick a single bacterial colony from plates. And run a PCR and Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/d/d6/T--SYSU-MEDICINE--project_note_02_48.png">
+                                        </td>
+                                        <td>
+                                            Positive control (tract1),
+                                            CXCR5-luciferase BP (tract 2-4)
+bp marker (tract 5)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   Transfer the colony into medium (containing kana antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.<br/>
+   Preparation of Plasmid DNA (entry clone: CXCR5-luciferase -vector 1064) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
+   DNA sequence: CXCR5-luciferase -vector 1064<br/>
+                                    Finish conduct the CXCR5 point mutation -vector 1064<br/>
+   Gateway: LR reaction (EF-1α-CXCR5-luciferase-IRES-eGFP)<br/>
+   Transfer plasmid (EF-1α-CXCR5-luciferase-IRES-eGFP) into trans5α and culture the modified bacteria for 14 hours.<br/>
+   Pick a single bacterial colony from plates. And run a PCR and Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/4/44/T--SYSU-MEDICINE--project_note_02_49.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            CXCR5-luciferase-ires-eGFP-LR (tract2-5),
+                                            positve control (tract 6)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   Transfer the colony into medium (containing Amp antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.<br/>
+   Preparation of Plasmid DNA (expression vector: EF-1α-CXCR5-luciferase-IRES-eGFP) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
+   DNA sequence: expression vector: EF-1α-CXCR5-luciferase-IRES-eGFP<br/>
+                                    Finish conduct the expression vector: EF-1α-CXCR5-luciferase-IRES-eGFP<br/>
+                                </p>
+                            </li>
+                            <li id="2016.08.01-07" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+   PCR: CXCR4 +T2A (anterior fragment, short for R1); <br/>
+   Run an Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/5/5b/T--SYSU-MEDICINE--project_note_02_50.png">
+                                        </td>
+                                        <td>
+                                            CXCR4-R1 (tract1),
+bp marker (tract 3)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   Purify CXCR4-R1 product and combine with T3 vector. <br/>
+   Transfer CXCR4-R1-T3 into trans5α bacteria, respectively and culture it at 37℃ for 14 hours.<br/>
+    Pick up a single clone of bacteria and confirm whether we successfully transfer them into bacteria.<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/d/d3/T--SYSU-MEDICINE--project_note_02_51.png">
+                                        </td>
+                                        <td>
+                                            CXCR4-R1-T3 (tract1-4),
+bp marker (tract 5)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+    Culture the single clone bacteria at 37℃ for 14 hours, extract the plasmids from them, detect the concentration of them, and DNA sequencing. (CXCR4-R1)<br/>
+    PCR the second time: CXCR4+T2A (anterior fragment 2, short for R2) <br/>
+    run an Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/4/4b/T--SYSU-MEDICINE--project_note_02_52.png">
+                                        </td>
+                                        <td>
+                                            CXCR4-R2 (tract1),
+kbp marker (tract 2)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   purify the PCR products of CXCR4-R2 <br/>
+   PCR: overlap of CXCR4-R2 & F2-luciferase (short for CXCR4-luciferase attB)<br/>
+   run an Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/a/af/T--SYSU-MEDICINE--project_note_02_53.png">
+                                        </td>
+                                        <td>
+                                            CXCR4-Luciferase attB (tract1),
+bp marker (tract 4)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   purify the PCR products of CXCR4-Luciferase attB<br/>
+   Gateway: BP reaction (CXCR4-Luciferase-vector 1064)<br/>
+   Transfer plasmids (CXCR4-Luciferase-vector 1064) into trans5α and culture the modified bacteria for 14 hours.<br/>
+   Pick a single bacterial colony from plates. And run a PCR and Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/5/52/T--SYSU-MEDICINE--project_note_02_54.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            Positive control (tract3),
+                                            CXCR5-luciferase BP (tract 4)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   Transfer the colony into medium (containing kana antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.<br/>
+   Preparation of Plasmid DNA (entry clone: CXCR4-luciferase -vector 1064) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
+   DNA sequence: CXCR4-luciferase-vector 1064<br/>
+                                    Finish conduct the CXCR4 point mutation-vector 1064<br/>
+   Gateway: LR reaction (EF1-a-CXCR4-luciferase-IRES-eGFP)<br/>
+   Transfer plasmid (EF1-a-CXCR4-luciferase-IRES-eGFP) into trans5α and culture the modified bacteria for 14 hours.<br/>
+   Pick a single bacterial colony from plates. And run a PCR and Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/2/24/T--SYSU-MEDICINE--project_note_02_55.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            CXCR5-luciferase-ires-eGFP-LR (tract2-5),
+                                            positive control (tract 6)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   Transfer the colony into medium (containing Amp antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.<br/>
+   Preparation of Plasmid DNA (expression vector: EF1-a-CXCR4-luciferase-IRES-eGFP) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
+   DNA sequence: expression vector: EF1-a-CXCR4-luciferase-IRES-eGFP<br/>
+                                    Finish conduct the expression vector: EF1-a-CXCR4-luciferase-IRES-eGFP<br/>
+                                </p>
+                            </li>
+                            <li id="2016.08.08-14" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+   PCR: Overlap method to conduct the point mutation of luciferase + dTomato (point mutation) + hFTH<br/>
+   Agarose Gel Electrophoresis to test the results  <br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/2/2b/T--SYSU-MEDICINE--project_note_02_56.png">
+                                        </td>
+                                        <td>
+kbp marker (tract 1)
+                                            luciferase+dtomato (anterior fragment) (tract2-3),
+bp marker(track6)
+                                        </td>
+                                    </tr>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/0/07/T--SYSU-MEDICINE--project_note_02_57.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            dtomato(posterior fragment)+hFTH (tract3),
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+                                    <br/>
+   purify the PCR products of luciferase+dTomato (anterior fragment) and dTomato (posterior fragment)+hFTH<br/>
+    PCR: overlap of luciferase+dTomato (anterior fragment) and dTomato (posterior fragment)+hFTH<br/>
+    Agarose Gel Electrophoresis to test the results  <br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/6/6c/T--SYSU-MEDICINE--project_note_02_59.png">
+                                        </td>
+                                        <td>
+                                            Luciferase-dtomato(point mutation)-hFTH (tract1),
+bp marker (tract 2)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+    PCR: Overlap method to conduct the point mutation of luciferase+dTomato+hFTH(point mutation)<br/>
+    Agarose Gel Electrophoresis to test the results  <br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/3/39/T--SYSU-MEDICINE--project_note_02_60.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            dtomato(posterior fragment)+hFTH(anterior fragment) (tract2),
+                                            hFTH(posterior fragment)(tract3)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+    purify the PCR products of dTomato (posterior fragment)+hFTH(anterior fragment)+hFTH (posterior fragment)<br/>
+    PCR: overlap of dTomato (posterior fragment)+hFTH(anterior fragment)+hFTH (posterior fragment)<br/>
+    Agarose Gel Electrophoresis to test the results  <br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/a/ac/T--SYSU-MEDICINE--project_note_02_61.png">
+                                        </td>
+                                        <td>
+                                            dtomato+hFTH(point mutation) (tract1),
+bp marker (tract 3)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+    purify the PCR products of dTomato+hFTH (point mutaion)<br/>
+    PCR: overlap of luciferase+dTomato (anterior fragment) & dTomato (posterior fragment)+hFTH(anterior fragment)+hFTH (posterior fragment)<br/>
+    Agarose Gel Electrophoresis to test the results  <br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/c/ca/T--SYSU-MEDICINE--project_note_02_62.png">
+                                        </td>
+                                        <td>
+bp marker(tract1)<br/>
+                                            Luciferase-dtomato(point mutation)-hFTH(point mutation) (tract1-2)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+   purify the PCR products of Luciferase-dTomato(point mutation)-hFTH(pointi mutation)<br/>
+    PCR：IRES fragment<br/>
+    Agarose Gel Electrophoresis to test the results   <br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/8/84/T--SYSU-MEDICINE--project_note_02_63.png">
+                                        </td>
+                                        <td>
+                                            IRES (tract1-2)
+bp marker(tract3)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+    purify the PCR product of IRES<br/>
+    PCR: Overlap of IRES & luciferase+dTomato+hFTH( including the attB)<br/>
+    Agarose Gel Electrophoresis to test the results   <br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/4/42/T--SYSU-MEDICINE--project_note_02_64.png">
+                                        </td>
+                                        <td>
+                                            IRES-luciferase-dtomato(point mutation)-hFTH(point mutation) (tract1-2)<br/>
+bp marker(tract3)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+    purify the product of IRES- luciferase-dTomato-hFTH( including the attB)<br/>
+    Gateway: BP reaction(IRES-luciferase-dTomato-hFTH-vector ptail)<br/>
+    Transfer plasmids (IRES-luciferase-dTomato-hFTH-vector ptail) into trans5α and culture the modified bacteria for 14 hours.<br/>
+   Pick a single bacterial colony from plates. And run a PCR and Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/1/1f/T--SYSU-MEDICINE--project_note_02_65.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            IRES-luciferase-dtomato-hFTH-vector ptail (tract2-5),
+                                            Positive control (tract 5)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+    Transfer the colony into medium (containing kana antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.<br/>
+    Preparation of Plasmid DNA (entry clone: IRES-luciferase-dTomato-hFTH-vector ptail) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
+   DNA sequence: IRES-luciferase-dTomato-hFTH-vector ptail<br/>
+                                    Finish conduct the entry clone: IRES-luciferase-dTomato-hFTH-vector ptail<br/>
+    Gateway: LR reaction (EF1-a-CXCR4- IRES-luciferase-dTomato-hFTH)<br/>
+    Transfer plasmid (EF1-a-CXCR4- IRES-luciferase-dTomato-hFTH) into trans5α and culture the modified bacteria for 14 hours.<br/>
+    Pick a single bacterial colony from plates. And run a PCR and Agarose Gel Electrophoresis to test the results<br/>
+                                    <br/>
+                                </p>
+                                <table>
+                                    <tr>
+                                        <td>
+                                            <img src="https://static.igem.org/mediawiki/2016/2/29/T--SYSU-MEDICINE--project_note_02_66.png">
+                                        </td>
+                                        <td>
+bp marker (tract 1)
+                                            CXCR5-luciferase-ires-eGFP-LR (tract2-5),
+                                            positve control (tract 6)
+                                        </td>
+                                    </tr>
+                                </table>
+                                <br/>
+                                <p>
+    Transfer the colony into medium (containing Amp antibiotic). Incubate the culture for 12 hour at 37°C with vigorous agitation, monitoring the growth of the culture.<br/>
+    Preparation of Plasmid DNA (expression vector: EF1-a-CXCR4- IRES-luciferase-dTomato-hFTH) by TIANprep Mini Plasmid Kit (TIANGEN) and estimate the concentration of the plasmid DNA by measuring the absorbance at 260 nm and 280nm of an aliquot of the final preparation. (Nanodrop machine)<br/>
+   DNA sequence: expression vector: EF1-a-CXCR4- IRES-luciferase-dTomato-hFTH<br/>
+                                    Finish conduct the expression vector: EF1-a-CXCR4- IRES-luciferase-dTomato-hFTH<br/>
+                                </p>
+                            </li>
+                            <!--03Cell Experiment-->
+                            <li id="Cell_Experiment" class="" style="opacity: 0.2;">
+                                <p></br>
+                                    Cell Experiment
+                                </p>
+                            </li>
+                            <li id="2016.08.15-21" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+FT cells culture <br/>
+                                    Virus transduction to 293FT cells<br/>
+                                </p>
+                            </li>
+                            <li id="2016.08.22-28" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    Virus transduction to hMSC and culture<br/>
+FT cells culture <br/>
+                                </p>
+                            </li>
+                            <li id="2016.08.29-09.04" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    Virus transduction to 293FT cells<br/>
+                                    Virus transduction to hMSC and culture<br/>
+                                </p>
+                            </li>
+                            <!--04In Vitro Confirmation-->
+                            <li id="In_Vitro_Confirmation" class="" style="opacity: 0.2;">
+                                <p></br>
+                                    In Vitro Confirmation
+                                </p>
+                            </li>
+                            <li id="2016.09.05-11" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+. qPCR: Expression of chemokine receptors and CD markers on the surface of hMSCs<br/>
+                                    <br/>
+.Confirm whether MSCs modified express fluorescent protein.<br/>
+                                    <br/>
+                                </p>
+                                <br/>
+                                <p>
+                                </p>
+                            </li>
+                            <li id="2016.09.12-18" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+.Confirm whether MSCs remain their characteristics after modified.<br/>
+                                    </br>
+.Transwell: Confirm the function of hMSCs modified by CXCR4/CXCR5<br/>
+                                    <br/>
+. qPCR and western blot: Confirm whether CXCR4/CXCR5 express on the surface of hMSCs<br/>
+                                    <br/>
+                                </p>
+                                <br/>
+                            </li>
+                            <li id="2016.09.19-25" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+.Switch confirmation<br/>
+                                    qPCR: Expression of alpha-SMA on hMSCs before and after adding TGF-β<br/>
+                                    <br/>
+. hMSCs modified by switch plasmid express eGFP after adding TGF-β <br/>
+                                </p>
+                            </li>
+                            <!--05Animal Experiment-->
+                            <li id="Animal_Experiment" class="" style="opacity: 0.2;">
+                                <p></br>
+                                    Animal Experiment
+                                </p>
+                            </li>
+                            <li id="2016.09.05" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    IBD<br/>
+. Carefully shaved a 1cm×1cm filed on the back between the shoulders of the mouse using an electric razor.<br/>
+. While holding the mouse with one hand, smeared the shaved backs with presensitization solution (150μL/20g), which is the mixture of acetone, olive oil and TNBS in 16:4:5 scale.<br/>
+. Control mice are treated with presensitization solution without TNBS.<br/>
+. All the mice were in good condition.<br/>
+                                </p>
+                            </li>
+                            <li id="2016.09.07" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    DTH<br/>
+. Carefully shaved a 1cm×1cm filed on the back between the shoulders of the mouse using an electric razor.<br/>
+. While holding the mouse with one hand, smeared shaved backs with 150μL 0.5% DNFB solution in acetone/olive oil (4:1).<br/>
+. Control mice are treated with identical amount of acetone/olive oil (4:1).<br/>
+. All the mice were in good condition.<br/>
+                                </p>
+                            </li>
+                            <li id="2016.09.11" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    IBD<br/>
+                                    Absolute diet is applied to the mice apart from the water.<br/>
+                                </p>
+                            </li>
+                            <li id="2016.09.12" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    Anesthetize the mouse by intraperitoneal injection of 4% chloral hydrate (150μL/20g).<br/>
+                                    Insert the catheter into the colon 4cm proximal to the anus and slowly administer 150μL/20g TNBS/alcohol solution into the colon. Keep the mice with hand down for 60s before returning to the cage. <br/>
+                                    Concerning the damaged colon, we replace normal mice food with jelly to lessen the pain ensuing from sensitization. <br/>
+                                    In the evening, 3 mice are found dead, 2 mice are weak and have less activity, while the others are in good condition.  <br/>
+                                </p>
+                            </li>
+                            <li id="2016.09.13" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    IBD<br/>
+                                    Weak mice are dead finally. <br/>
+                                    We weight the mice left. The weight change indicates that 18 of them are modeled successfully. So, we inject 200 μL MSCs in dose of 1*106 into 9 mice from caudal vein. <br/>
+                                </p>
+                            </li>
+                            <li id="2016.09.14" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    DTH<br/>
+                                    Challenge right ears with 20μL 0.3% DNFB solution. Two hours after sensitization, inject 200 μL MSCs in dose of 1*106 to 16 mice and PBS of identical amount to another 8 mice of control groups from caudal veins respectively.<br/>
+                                </p>
+                            </li>
+                            <li id="2016.09.15-22" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    IBD<br/>
+                                    All the animals are sacrificed by cervical dislocation. Then we take the colon tissue and measured the length .The colon tissue are kept in PFA or Trizol in EP tube for HE staining or q-PCR. The colon length, DAI score and the concentration of the cytokines will be performed using SPSS. <br/>
+                                </p>
+                            </li>
+                            <li id="2016.09.16-21" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    DTH<br/>
+                                    All the animals are sacrificed by cervical dislocation. Then we take the ear tissue and measured the thickness .The ear tissues are kept in PFA or Trizol in EP tube for HE staining or q-PCR. The ear thickness and the concentration of the cytokines will be performed using SPSS.<br/>
+                                </p>
+                            </li>
+                            <li id="2016.09.17" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    Start animal experiments for mathematical modeling and cooperation project with Team ShanghaiTechChina_B<br/>
+                                    Day 1, carefully shave a 1cm×1cm filed on the back between the shoulders of the mouse using an electric razor.<br/>
+                                    While holding the mouse with one hand, smear the shaved abdominal skin with presensitization solution (150μL/20g), which is the mixture of acetone, olive oil and TNBS in 16:4:5 scale.<br/>
+                                    Control mice are treated with presensitization solution without TNBS.<br/>
+                                    All the mice are in good condition. <br/>
+                                    <br/>
+                                </p>
+                            </li>
+                            <li id="2016.09.17-24" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    Leave the mice until day 7.<br/>
+                                    On day 7, absolute diet is applied to the mice apart from the water.<br/>
+                                    <br/>
+                                </p>
+                            </li>
+                            <li id="2016.09.25" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    On day 8, anesthetize the mouse by intraperitoneal injection of 4% chloral hydrate (150μL/20g). Insert the catheter into the colon 4cm proximal to the anus and slowly administer 150μL/20g TNBS/alcohol solution into the colon. Keep the mice with hand down for 60s before returning to the cage. Concerning the damaged colon, we take the jelly for the mice to lessen the pain after modelling. <br/>
+                                </p>
+                            </li>
+                            <li id="2016.09.28-10.05" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    On Day 11, dissolve 5 μg of recombinational EGF in 25 ml saline. Insert 150ug/20g EGF solution into the colon for 6 mice. Sacrifice the narcotic mice with EGF on Day 13.Take the large intestine tissue and measured the length. Keep the large intestine in PFA or Trizol in EP tube for qPCR or HE staining. The colon length, DAI score and the concentration of the cytokines will be performed using SPSS. <br/>
+                                    <br/>
+                                    The mice left were injected 200 μL MSCs in dose of 1*106 into from caudal vein. At 5min, 30 min, 1h, 2h, 4h, 8h, 16h, 24h, 32h, 40h, 48h, 72h after injection, 1 narcotic mouse is taken living image by IVIS spectrum. After that, the mouse are sacrificed and colons are taken and measured for their length. The colons are kept in PFA or Trizol in EP tube for qPCR or HE staining. <br/>
+                                    <br/>
+                                </p>
+                            </li>
+                            <!--06Submission-->
+                            <li id="Submission" class="" style="opacity: 0.2;">
+                                <p></br>
+                                    Submission
+                                </p>
+                            </li>
+                            <li id="2016.09.26-29" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+                                    Using the DNA carrier provided by iGEM, and the DNA to submit, digest and ligate them. But we failed. After analyzing, the reasons we suspect are as followed:<br/>
+.The concentration of the DNA is too low to make it,<br/>
+.The carrier provided by iGEM is useless because the linear carrier has low working efficiency.<br/>
+                                    As a result, we are going to have some meetings to solve it. <br/>
+.Using the part distribution to get the carrier annular carrier by Enzyme digestion, and put the first group of gene into the carrier by ligament.<br/>
+                                    Successful!<br/>
+                                    As a result, we finish the first group of submission, including two genes: CCR7 and CXCR4.<br/>
+                                    <br/>
+                                </p>
+                            </li>
+                            <li id="2016.10.04-09" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+.We started working the second group, including CXCR1, CCR5, Luciferease-IRES-eGFP, Luciferase-dTomato-hFTH, CXCR4-IRES-eGFP.<br/>
+.After four days’work, we finally finished the second group and put them all into a 96-well format.<br/>
+                                    <br/>
+                                </p>
+                            </li>
+                            <li id="2016.10.09-15" class="" style="opacity: 0.2;">
+                                <p>
+                                    </br>
+.Using the part distribution to get another carrier annular carrier by Enzyme digestion, and put the third group of genes into the carrier by ligament.<br/>
+                                    The third group includes CXCR5-Luciferease-IRES-eGFP, CXCR4-Luciferease-IRES-eGFP, CXCR4-Luciferase-dTomato-hFTH<br/>
+.After four days’work, we finally finished the third group and put them all into another 96-well format.<br/>
+                                    <br/>
+                                </p>
+                            </li>
+                            <div id="grad_left"></div>
+                            <div id="grad_right"></div>
+                            <a href="#" id="next">+</a> <!-- optional -->
+                            <a href="#" id="prev" style="display: block;">-</a> <!-- optional -->
+                        </ul>
+                    </div>
+                </td>
+            </tr>
+        </table>
+        <Br/>
-                <div id="grad_left"></div>
-                <div id="grad_right"></div>
-                <a href="#" id="next">+</a> <!-- optional -->
-                <a href="#" id="prev" style="display: block;">-</a> <!-- optional -->
-            </ul>
-        </div>
      </div>
 </div>
@@ Line 1,101: / Line 2,287: @@
 <script src="https://maxcdn.bootstrapcdn.com/bootstrap/3.3.7/js/bootstrap.min.js" integrity="sha384-Tc5IQib027qvyjSMfHjOMaLkfuWVxZxUPnCJA7l2mCWNIpG9mGCD8wGNIcPD7Txa" crossorigin="anonymous"></script>
-<script type="text/javascript" src="https://2016.igem.org/Team:SYSU-MEDICINE/TIMELINEJS?action=raw&ctype=text/javascript"></script>
+<!--<script type="text/javascript" src="https://2016.igem.org/Team:SYSU-MEDICINE/TIMELINEJS?action=raw&ctype=text/javascript"></script>-->
-<script type="text/javascript">
+<script>
-     $(document).ready(function() {
+    /* ----------------------------------
-         // initial timeline
+     jQuery Timelinr 0.9.54
+     tested with jQuery v1.6+
+     Copyright 2011, CSSLab.cl
+     Free under the MIT license.
+     http://www.opensource.org/licenses/mit-license.php
+     instructions: http://www.csslab.cl/2011/08/18/jquery-timelinr/
+     ---------------------------------- */
+    jQuery.fn.timelinr = function(options){
+        // default plugin settings
+        settings = jQuery.extend({
+            orientation:        'horizontal',   // value: horizontal | vertical, default to horizontal
+            containerDiv:         '#timeline',    // value: any HTML tag or #id, default to #timeline
+            datesDiv:           '#dates',     // value: any HTML tag or #id, default to #dates
+            datesSelectedClass:     'selected',     // value: any class, default to selected
+            datesSpeed:         'normal',     // value: integer between 100 and 1000 (recommended) or 'slow', 'normal' or 'fast'; default to normal
+            issuesDiv:          '#issues',      // value: any HTML tag or #id, default to #issues
+            issuesSelectedClass:    'selected',     // value: any class, default to selected
+            issuesSpeed:        'fast',       // value: integer between 100 and 1000 (recommended) or 'slow', 'normal' or 'fast'; default to fast
+            issuesTransparency:     0.2,        // value: integer between 0 and 1 (recommended), default to 0.2
+            issuesTransparencySpeed:  500,        // value: integer between 100 and 1000 (recommended), default to 500 (normal)
+            prevButton:         '#prev',      // value: any HTML tag or #id, default to #prev
+            nextButton:         '#next',      // value: any HTML tag or #id, default to #next
+            arrowKeys:          'false',      // value: true | false, default to false
+            startAt:          1,          // value: integer, default to 1 (first)
+            autoPlay:           'false',      // value: true | false, default to false
+            autoPlayDirection:      'forward',      // value: forward | backward, default to forward
+            autoPlayPause:        2000        // value: integer (1000 = 1 seg), default to 2000 (2segs)
+        }, options);
          $(function(){
-             $().timelinr();
+             // setting variables... many of them
+            var howManyDates = $(settings.datesDiv+' li').length;
+            var howManyIssues = $(settings.issuesDiv+' li').length;
+            var currentDate = $(settings.datesDiv).find('a.'+settings.datesSelectedClass);
+            var currentIssue = $(settings.issuesDiv).find('li.'+settings.issuesSelectedClass);
+            var widthContainer = $(settings.containerDiv).width();
+            var heightContainer = $(settings.containerDiv).height();
+            var widthIssues = $(settings.issuesDiv).width();
+            var heightIssues = $(settings.issuesDiv).height();
+            var widthIssue = $(settings.issuesDiv+' li').width();
+            var heightIssue = $(settings.issuesDiv+' li').height();
+            var widthDates = $(settings.datesDiv).width();
+            var heightDates = $(settings.datesDiv).height();
+            var widthDate = $(settings.datesDiv+' li').width();
+            var heightDate = $(settings.datesDiv+' li').height();
+            // set positions!
+            if(settings.orientation == 'horizontal') {
+                $(settings.issuesDiv).width(widthIssue*howManyIssues);
+                $(settings.datesDiv).width(widthDate*howManyDates).css('marginLeft',widthContainer/2-widthDate/2);
+                var defaultPositionDates = parseInt($(settings.datesDiv).css('marginLeft').substring(0,$(settings.datesDiv).css('marginLeft').indexOf('px')));
+            } else if(settings.orientation == 'vertical') {
+                $(settings.issuesDiv).height(heightIssue*howManyIssues);
+                $(settings.datesDiv).height(heightDate*howManyDates).css('marginTop',heightContainer/2-heightDate/2);
+                var defaultPositionDates = parseInt($(settings.datesDiv).css('marginTop').substring(0,$(settings.datesDiv).css('marginTop').indexOf('px')));
+            }
+            $(settings.datesDiv+' a').click(function(event){
+                event.preventDefault();
+                // first vars
+                var whichIssue = $(this).text();
+                var currentIndex = $(this).parent().prevAll().length;
+                console.log('in event');
+                // moving the elements
+                if(settings.orientation == 'horizontal') {
+                    $(settings.issuesDiv).animate({'marginLeft':-widthIssue*currentIndex},{queue:false, duration:settings.issuesSpeed});
+                } else if(settings.orientation == 'vertical') {
+                    $(settings.issuesDiv).animate({'marginTop':-heightIssue*currentIndex},{queue:false, duration:settings.issuesSpeed});
+                }
+                $(settings.issuesDiv+' li').animate({'opacity':settings.issuesTransparency},{queue:false, duration:settings.issuesSpeed}).removeClass(settings.issuesSelectedClass).eq(currentIndex).addClass(settings.issuesSelectedClass).fadeTo(settings.issuesTransparencySpeed,1);
+                // prev/next buttons now disappears on first/last issue | bugfix from 0.9.51: lower than 1 issue hide the arrows | bugfixed: arrows not showing when jumping from first to last date
+                if (howManyDates == 1) {
+                    $(settings.prevButton+','+settings.nextButton).fadeOut('fast');
+                } else if (howManyDates == 2) {
+                    if($(settings.issuesDiv+' li:first-child').hasClass(settings.issuesSelectedClass)) {
+                        $(settings.prevButton).fadeOut('fast');
+                        $(settings.nextButton).fadeIn('fast');
+                    }
+                    else if ($(settings.issuesDiv+' li:last-child').hasClass(settings.issuesSelectedClass)) {
+                        $(settings.nextButton).fadeOut('fast');
+                        $(settings.prevButton).fadeIn('fast');
+                    }
+                } else {
+                    if( $(settings.issuesDiv+' li:first-child').hasClass(settings.issuesSelectedClass) ) {
+                        $(settings.nextButton).fadeIn('fast');
+                        $(settings.prevButton).fadeOut('fast');
+                    }
+                    else if( $(settings.issuesDiv+' li:last-child').hasClass(settings.issuesSelectedClass) ) {
+                        $(settings.prevButton).fadeIn('fast');
+                        $(settings.nextButton).fadeOut('fast');
+                    }
+                    else {
+                        $(settings.nextButton+','+settings.prevButton).fadeIn('slow');
+                    }
+                }
+                // now moving the dates
+                $(settings.datesDiv+' a').removeClass(settings.datesSelectedClass);
+                $(this).addClass(settings.datesSelectedClass);
+                if(settings.orientation == 'horizontal') {
+                    $(settings.datesDiv).animate({'marginLeft':defaultPositionDates-(widthDate*currentIndex)},{queue:false, duration:'settings.datesSpeed'});
+                } else if(settings.orientation == 'vertical') {
+                    $(settings.datesDiv).animate({'marginTop':defaultPositionDates-(heightDate*currentIndex)},{queue:false, duration:'settings.datesSpeed'});
+                }
+            });
+            $(settings.nextButton).bind('click', function(event){
+                event.preventDefault();
+                // bugixed from 0.9.54: now the dates gets centered when there's too much dates.
+                var currentIndex = $(settings.issuesDiv).find('li.'+settings.issuesSelectedClass).index();
+                if(settings.orientation == 'horizontal') {
+                    var currentPositionIssues = parseInt($(settings.issuesDiv).css('marginLeft').substring(0,$(settings.issuesDiv).css('marginLeft').indexOf('px')));
+                    var currentIssueIndex = currentPositionIssues/widthIssue;
+                    var currentPositionDates = parseInt($(settings.datesDiv).css('marginLeft').substring(0,$(settings.datesDiv).css('marginLeft').indexOf('px')));
+                    var currentIssueDate = currentPositionDates-widthDate;
+                    if(currentPositionIssues <= -(widthIssue*howManyIssues-(widthIssue))) {
+                        $(settings.issuesDiv).stop();
+                        $(settings.datesDiv+' li:last-child a').click();
+                    } else {
+                        if (!$(settings.issuesDiv).is(':animated')) {
+                            // bugixed from 0.9.52: now the dates gets centered when there's too much dates.
+                            $(settings.datesDiv+' li').eq(currentIndex+1).find('a').trigger('click');
+                        }
+                    }
+                } else if(settings.orientation == 'vertical') {
+                    var currentPositionIssues = parseInt($(settings.issuesDiv).css('marginTop').substring(0,$(settings.issuesDiv).css('marginTop').indexOf('px')));
+                    var currentIssueIndex = currentPositionIssues/heightIssue;
+                    var currentPositionDates = parseInt($(settings.datesDiv).css('marginTop').substring(0,$(settings.datesDiv).css('marginTop').indexOf('px')));
+                    var currentIssueDate = currentPositionDates-heightDate;
+                    if(currentPositionIssues <= -(heightIssue*howManyIssues-(heightIssue))) {
+                        $(settings.issuesDiv).stop();
+                        $(settings.datesDiv+' li:last-child a').click();
+                    } else {
+                        if (!$(settings.issuesDiv).is(':animated')) {
+                            // bugixed from 0.9.54: now the dates gets centered when there's too much dates.
+                            $(settings.datesDiv+' li').eq(currentIndex+1).find('a').trigger('click');
+                        }
+                    }
+                }
+                // prev/next buttons now disappears on first/last issue | bugfix from 0.9.51: lower than 1 issue hide the arrows
+                if(howManyDates == 1) {
+                    $(settings.prevButton+','+settings.nextButton).fadeOut('fast');
+                } else if(howManyDates == 2) {
+                    if($(settings.issuesDiv+' li:first-child').hasClass(settings.issuesSelectedClass)) {
+                        $(settings.prevButton).fadeOut('fast');
+                        $(settings.nextButton).fadeIn('fast');
+                    }
+                    else if($(settings.issuesDiv+' li:last-child').hasClass(settings.issuesSelectedClass)) {
+                        $(settings.nextButton).fadeOut('fast');
+                        $(settings.prevButton).fadeIn('fast');
+                    }
+                } else {
+                    if( $(settings.issuesDiv+' li:first-child').hasClass(settings.issuesSelectedClass) ) {
+                        $(settings.prevButton).fadeOut('fast');
+                    }
+                    else if( $(settings.issuesDiv+' li:last-child').hasClass(settings.issuesSelectedClass) ) {
+                        $(settings.nextButton).fadeOut('fast');
+                    }
+                    else {
+                        $(settings.nextButton+','+settings.prevButton).fadeIn('slow');
+                    }
+                }
+            });
+            $(settings.prevButton).click(function(event){
+                event.preventDefault();
+                // bugixed from 0.9.54: now the dates gets centered when there's too much dates.
+                var currentIndex = $(settings.issuesDiv).find('li.'+settings.issuesSelectedClass).index();
+                if(settings.orientation == 'horizontal') {
+                    var currentPositionIssues = parseInt($(settings.issuesDiv).css('marginLeft').substring(0,$(settings.issuesDiv).css('marginLeft').indexOf('px')));
+                    var currentIssueIndex = currentPositionIssues/widthIssue;
+                    var currentPositionDates = parseInt($(settings.datesDiv).css('marginLeft').substring(0,$(settings.datesDiv).css('marginLeft').indexOf('px')));
+                    var currentIssueDate = currentPositionDates+widthDate;
+                    if(currentPositionIssues >= 0) {
+                        $(settings.issuesDiv).stop();
+                        $(settings.datesDiv+' li:first-child a').click();
+                    } else {
+                        if (!$(settings.issuesDiv).is(':animated')) {
+                            // bugixed from 0.9.54: now the dates gets centered when there's too much dates.
+                            $(settings.datesDiv+' li').eq(currentIndex-1).find('a').trigger('click');
+                        }
+                    }
+                } else if(settings.orientation == 'vertical') {
+                    var currentPositionIssues = parseInt($(settings.issuesDiv).css('marginTop').substring(0,$(settings.issuesDiv).css('marginTop').indexOf('px')));
+                    var currentIssueIndex = currentPositionIssues/heightIssue;
+                    var currentPositionDates = parseInt($(settings.datesDiv).css('marginTop').substring(0,$(settings.datesDiv).css('marginTop').indexOf('px')));
+                    var currentIssueDate = currentPositionDates+heightDate;
+                    if(currentPositionIssues >= 0) {
+                        $(settings.issuesDiv).stop();
+                        $(settings.datesDiv+' li:first-child a').click();
+                    } else {
+                        if (!$(settings.issuesDiv).is(':animated')) {
+                            // bugixed from 0.9.54: now the dates gets centered when there's too much dates.
+                            $(settings.datesDiv+' li').eq(currentIndex-1).find('a').trigger('click');
+                        }
+                    }
+                }
+                // prev/next buttons now disappears on first/last issue | bugfix from 0.9.51: lower than 1 issue hide the arrows
+                if(howManyDates == 1) {
+                    $(settings.prevButton+','+settings.nextButton).fadeOut('fast');
+                } else if(howManyDates == 2) {
+                    if($(settings.issuesDiv+' li:first-child').hasClass(settings.issuesSelectedClass)) {
+                        $(settings.prevButton).fadeOut('fast');
+                        $(settings.nextButton).fadeIn('fast');
+                    }
+                    else if($(settings.issuesDiv+' li:last-child').hasClass(settings.issuesSelectedClass)) {
+                        $(settings.nextButton).fadeOut('fast');
+                        $(settings.prevButton).fadeIn('fast');
+                    }
+                } else {
+                    if( $(settings.issuesDiv+' li:first-child').hasClass(settings.issuesSelectedClass) ) {
+                        $(settings.prevButton).fadeOut('fast');
+                    }
+                    else if( $(settings.issuesDiv+' li:last-child').hasClass(settings.issuesSelectedClass) ) {
+                        $(settings.nextButton).fadeOut('fast');
+                    }
+                    else {
+                        $(settings.nextButton+','+settings.prevButton).fadeIn('slow');
+                    }
+                }
+            });
+            // keyboard navigation, added since 0.9.1
+            if(settings.arrowKeys=='true') {
+                if(settings.orientation=='horizontal') {
+                    $(document).keydown(function(event){
+                        if (event.keyCode == 39) {
+                            $(settings.nextButton).click();
+                        }
+                        if (event.keyCode == 37) {
+                            $(settings.prevButton).click();
+                        }
+                    });
+                } else if(settings.orientation=='vertical') {
+                    $(document).keydown(function(event){
+                        if (event.keyCode == 40) {
+                            $(settings.nextButton).click();
+                        }
+                        if (event.keyCode == 38) {
+                            $(settings.prevButton).click();
+                        }
+                    });
+                }
+            }
+            // default position startAt, added since 0.9.3
+            $(settings.datesDiv+' li').eq(settings.startAt-1).find('a').trigger('click');
+            // autoPlay, added since 0.9.4
+            if(settings.autoPlay == 'true') {
+                setInterval("autoPlay()", settings.autoPlayPause);
+            }
          });
-        // mousewheel
+    };
-         var prev = $('#prev'), next = $('#next');
-         $('#timeline').mousewheel(function(event) {
+    // autoPlay, added since 0.9.4
-             event.preventDefault();
+    function autoPlay(){
-            if (event.deltaY < 0 || event.deltaX >0) {
+         var currentDate = $(settings.datesDiv).find('a.'+settings.datesSelectedClass);
-                 next.trigger('click');
+         if(settings.autoPlayDirection == 'forward') {
+             if(currentDate.parent().is('li:last-child')) {
+                 $(settings.datesDiv+' li:first-child').find('a').trigger('click');
              } else {
-                 prev.trigger('click');
+                 currentDate.parent().next().find('a').trigger('click');
              }
-             console.log(event.deltaX, event.deltaY, event.deltaFactor);
+        } else if(settings.autoPlayDirection == 'backward') {
-        });
+             if(currentDate.parent().is('li:first-child')) {
+                $(settings.datesDiv+' li:last-child').find('a').trigger('click');
+            } else {
+                currentDate.parent().prev().find('a').trigger('click');
+            }
+        }
+    }
+    $(function(){
+        $().timelinr();
+    });
+</script>
+<script type="text/javascript" src="https://2016.igem.org/Team:SYSU-MEDICINE/Mousewheel?action=raw&amp;ctype=text/javascript"></script>
+<!--<script>-->
+    <!--/*!-->
+     <!--* jQuery Mousewheel 3.1.13-->
+     <!--*-->
+     <!--* Copyright 2015 jQuery Foundation and other contributors-->
+     <!--* Released under the MIT license.-->
+     <!--* http://jquery.org/license-->
+     <!--*/-->
+    <!--!function(a){"function"==typeof define&&define.amd?define(["jquery"],a):"object"==typeof exports?module.exports=a:a(jQuery)}(function(a){function b(b){var g=b||window.event,h=i.call(arguments,1),j=0,l=0,m=0,n=0,o=0,p=0;if(b=a.event.fix(g),b.type="mousewheel","detail"in g&&(m=-1*g.detail),"wheelDelta"in g&&(m=g.wheelDelta),"wheelDeltaY"in g&&(m=g.wheelDeltaY),"wheelDeltaX"in g&&(l=-1*g.wheelDeltaX),"axis"in g&&g.axis===g.HORIZONTAL_AXIS&&(l=-1*m,m=0),j=0===m?l:m,"deltaY"in g&&(m=-1*g.deltaY,j=m),"deltaX"in g&&(l=g.deltaX,0===m&&(j=-1*l)),0!==m||0!==l){if(1===g.deltaMode){var q=a.data(this,"mousewheel-line-height");j*=q,m*=q,l*=q}else if(2===g.deltaMode){var r=a.data(this,"mousewheel-page-height");j*=r,m*=r,l*=r}if(n=Math.max(Math.abs(m),Math.abs(l)),(!f||f>n)&&(f=n,d(g,n)&&(f/=40)),d(g,n)&&(j/=40,l/=40,m/=40),j=Math[j>=1?"floor":"ceil"](j/f),l=Math[l>=1?"floor":"ceil"](l/f),m=Math[m>=1?"floor":"ceil"](m/f),k.settings.normalizeOffset&&this.getBoundingClientRect){var s=this.getBoundingClientRect();o=b.clientX-s.left,p=b.clientY-s.top}return b.deltaX=l,b.deltaY=m,b.deltaFactor=f,b.offsetX=o,b.offsetY=p,b.deltaMode=0,h.unshift(b,j,l,m),e&&clearTimeout(e),e=setTimeout(c,200),(a.event.dispatch||a.event.handle).apply(this,h)}}function c(){f=null}function d(a,b){return k.settings.adjustOldDeltas&&"mousewheel"===a.type&&b%120===0}var e,f,g=["wheel","mousewheel","DOMMouseScroll","MozMousePixelScroll"],h="onwheel"in document||document.documentMode>=9?["wheel"]:["mousewheel","DomMouseScroll","MozMousePixelScroll"],i=Array.prototype.slice;if(a.event.fixHooks)for(var j=g.length;j;)a.event.fixHooks[g[&#45;&#45;j]]=a.event.mouseHooks;var k=a.event.special.mousewheel={version:"3.1.12",setup:function(){if(this.addEventListener)for(var c=h.length;c;)this.addEventListener(h[&#45;&#45;c],b,!1);else this.onmousewheel=b;a.data(this,"mousewheel-line-height",k.getLineHeight(this)),a.data(this,"mousewheel-page-height",k.getPageHeight(this))},teardown:function(){if(this.removeEventListener)for(var c=h.length;c;)this.removeEventListener(h[&#45;&#45;c],b,!1);else this.onmousewheel=null;a.removeData(this,"mousewheel-line-height"),a.removeData(this,"mousewheel-page-height")},getLineHeight:function(b){var c=a(b),d=c["offsetParent"in a.fn?"offsetParent":"parent"]();return d.length||(d=a("body")),parseInt(d.css("fontSize"),10)||parseInt(c.css("fontSize"),10)||16},getPageHeight:function(b){return a(b).height()},settings:{adjustOldDeltas:!0,normalizeOffset:!0}};a.fn.extend({mousewheel:function(a){return a?this.bind("mousewheel",a):this.trigger("mousewheel")},unmousewheel:function(a){return this.unbind("mousewheel",a)}})});-->
+<!--</script>-->
+<script type="text/javascript">
+    $(document).ready(function() {
 //          wechat qr code
          var canHide= true;
@@ Line 1,156: / Line 2,619: @@
              $(this).removeClass("open");
          });
-    });
-    /*!
+        $(".tline-trigger").click(function(event) {
-     * jQuery Mousewheel 3.1.13
+            event.preventDefault();
-     *
+            var link = $(this).attr("href"), obj,
-     * Copyright 2015 jQuery Foundation and other contributors
+                    s= "#dates a[href='" + link + "']";
-     * Released under the MIT license.
+            console.log(link);
-     * http://jquery.org/license
+            console.log(s);
-     */
+//            switch (link) {
-    !function(a){"function"==typeof define&&define.amd?define(["jquery"],a):"object"==typeof exports?module.exports=a:a(jQuery)}(function(a){function b(b){var g=b||window.event,h=i.call(arguments,1),j=0,l=0,m=0,n=0,o=0,p=0;if(b=a.event.fix(g),b.type="mousewheel","detail"in g&&(m=-1*g.detail),"wheelDelta"in g&&(m=g.wheelDelta),"wheelDeltaY"in g&&(m=g.wheelDeltaY),"wheelDeltaX"in g&&(l=-1*g.wheelDeltaX),"axis"in g&&g.axis===g.HORIZONTAL_AXIS&&(l=-1*m,m=0),j=0===m?l:m,"deltaY"in g&&(m=-1*g.deltaY,j=m),"deltaX"in g&&(l=g.deltaX,0===m&&(j=-1*l)),0!==m||0!==l){if(1===g.deltaMode){var q=a.data(this,"mousewheel-line-height");j*=q,m*=q,l*=q}else if(2===g.deltaMode){var r=a.data(this,"mousewheel-page-height");j*=r,m*=r,l*=r}if(n=Math.max(Math.abs(m),Math.abs(l)),(!f||f>n)&&(f=n,d(g,n)&&(f/=40)),d(g,n)&&(j/=40,l/=40,m/=40),j=Math[j>=1?"floor":"ceil"](j/f),l=Math[l>=1?"floor":"ceil"](l/f),m=Math[m>=1?"floor":"ceil"](m/f),k.settings.normalizeOffset&&this.getBoundingClientRect){var s=this.getBoundingClientRect();o=b.clientX-s.left,p=b.clientY-s.top}return b.deltaX=l,b.deltaY=m,b.deltaFactor=f,b.offsetX=o,b.offsetY=p,b.deltaMode=0,h.unshift(b,j,l,m),e&&clearTimeout(e),e=setTimeout(c,200),(a.event.dispatch||a.event.handle).apply(this,h)}}function c(){f=null}function d(a,b){return k.settings.adjustOldDeltas&&"mousewheel"===a.type&&b%120===0}var e,f,g=["wheel","mousewheel","DOMMouseScroll","MozMousePixelScroll"],h="onwheel"in document||document.documentMode>=9?["wheel"]:["mousewheel","DomMouseScroll","MozMousePixelScroll"],i=Array.prototype.slice;if(a.event.fixHooks)for(var j=g.length;j;)a.event.fixHooks[g[--j]]=a.event.mouseHooks;var k=a.event.special.mousewheel={version:"3.1.12",setup:function(){if(this.addEventListener)for(var c=h.length;c;)this.addEventListener(h[--c],b,!1);else this.onmousewheel=b;a.data(this,"mousewheel-line-height",k.getLineHeight(this)),a.data(this,"mousewheel-page-height",k.getPageHeight(this))},teardown:function(){if(this.removeEventListener)for(var c=h.length;c;)this.removeEventListener(h[--c],b,!1);else this.onmousewheel=null;a.removeData(this,"mousewheel-line-height"),a.removeData(this,"mousewheel-page-height")},getLineHeight:function(b){var c=a(b),d=c["offsetParent"in a.fn?"offsetParent":"parent"]();return d.length||(d=a("body")),parseInt(d.css("fontSize"),10)||parseInt(c.css("fontSize"),10)||16},getPageHeight:function(b){return a(b).height()},settings:{adjustOldDeltas:!0,normalizeOffset:!0}};a.fn.extend({mousewheel:function(a){return a?this.bind("mousewheel",a):this.trigger("mousewheel")},unmousewheel:function(a){return this.unbind("mousewheel",a)}})});
+//                case '#Story_Began' : obj = $("#date a[href='#Story_Began']");
+//            }
+            console.log($(s));
+            $(s).click();
+        });
+//        var prev = $('#prev'), next = $('#next');
+//        $('#timeline').mousewheel(function(event) {
+//            event.preventDefault();
+//            if (event.deltaY < 0 || event.deltaX >0) {
+//                next.trigger('click');
+//            } else {
+//                prev.trigger('click');
+//            }
+//            console.log(event.deltaX, event.deltaY, event.deltaFactor);
+//        });
+    });

Difference between revisions of "Team:SYSU-MEDICINE/Notebook"

Latest revision as of 18:50, 19 October 2016

Notebook