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13:43, 29 September 2018 SAHS 1 Fig1.png (file) 187 KB In our circuit of the build process, we have been doing nucleic acid gel electrophoresis to verify. After the loop is complete, sequencing verification. 2
13:52, 29 September 2018 SAHS 1 Fig3.png (file) 307 KB SAHS is an exogenous protein with a signal peptide in front of it that allows the protein to be secreted outside the membrane. But our site organism is E. coli, because there is a cell wall, so the protein can not be secreted out of the membrane. There... 2
13:53, 29 September 2018 SAHS 1 Fig2.png (file) 90 KB In our circuit of the build process, we have been doing nucleic acid gel electrophoresis to verify. After the loop is complete, sequencing verification. 2
14:55, 29 September 2018 KaiC 2 .gif (file) 234 KB [1]Akiyama S. Structural and dynamic aspects of protein clocks: how can they be so slow and stable?[J]. Cellular & Molecular Life Sciences Cmls, 2012, 69(13):2147-2160. 1
14:57, 29 September 2018 KaiC 3 .gif (file) 96 KB [1]Akiyama S. Structural and dynamic aspects of protein clocks: how can they be so slow and stable?[J]. Cellular & Molecular Life Sciences Cmls, 2012, 69(13):2147-2160. 1
15:18, 29 September 2018 All Kai.gif (file) 57 KB [1]Shultzaberger R K, Boyd J S, Katsuki T, et al. Single mutations in sasA enable a simpler ΔcikA gene network architecture with equivalent circadian properties.[J]. Proceedings of the National Academy of Sciences of the United States of America, 2014... 1
15:19, 29 September 2018 KaiC 4 .gif (file) 951 KB [1]Swan J A, Golden S, Liwang A, et al. Structure, function, and mechanism of the core circadian clock in cyanobacteria.[J]. Journal of Biological Chemistry, 2018, 293(14):5026-5034. 1
15:22, 29 September 2018 Kai ABC 2.gif (file) 761 KB [1]Swan J A, Golden S, Liwang A, et al. Structure, function, and mechanism of the core circadian clock in cyanobacteria.[J]. Journal of Biological Chemistry, 2018, 293(14):5026-5034. 1
15:23, 29 September 2018 Kai 2 .gif (file) 273 KB [1]Swan J A, Golden S, Liwang A, et al. Structure, function, and mechanism of the core circadian clock in cyanobacteria.[J]. Journal of Biological Chemistry, 2018, 293(14):5026-5034. 1
15:27, 29 September 2018 PKaiBC 2 .gif (file) 102 KB [1]Espinosa J, Boyd J S, Cantos R, et al. Cross-talk and regulatory interactions between the essential response regulator RpaB and cyanobacterial circadian clock output[J]. Proceedings of the National Academy of Sciences of the United States of America... 1
15:33, 29 September 2018 KaiA.png (file) 68 KB https://www.uniprot.org/uniprot/Q79PF6 1
15:35, 29 September 2018 KaiB.png (file) 110 KB https://www.uniprot.org/uniprot/Q79PF5 1
15:37, 29 September 2018 KaiC z.png (file) 216 KB https://www.uniprot.org/uniprot/Q79PF4 1
15:38, 29 September 2018 KaiC x.png (file) 242 KB https://www.uniprot.org/uniprot/Q79PF4 1
15:39, 29 September 2018 CikA.png (file) 74 KB https://www.uniprot.org/uniprot/Q9KHI5 1
15:42, 29 September 2018 SasA.png (file) 44 KB https://www.uniprot.org/uniprot/Q06904 1
05:44, 30 September 2018 KaiC 1 .gif (file) 142 KB [1]Akiyama S. Structural and dynamic aspects of protein clocks: how can they be so slow and stable?[J]. Cellular & Molecular Life Sciences Cmls, 2012, 69(13):2147-2160 4
05:40, 4 October 2018 KaiA Gel.png (file) 56 KB   1
05:45, 4 October 2018 KaiB Gel.png (file) 52 KB   1
05:48, 4 October 2018 KaiC Gel.png (file) 33 KB   1
05:54, 4 October 2018 SasA Gel.png (file) 87 KB   1
05:56, 4 October 2018 CikA Gel.png (file) 92 KB   1
06:03, 4 October 2018 RpaA Gel.png (file) 88 KB   1
06:16, 4 October 2018 SAHS protein Gel.png (file) 132 KB   2
06:23, 4 October 2018 CAHS Gel.png (file) 50 KB   1
06:24, 4 October 2018 CAHS protein Gel.png (file) 118 KB   1
06:31, 4 October 2018 PKaiBC Gel.png (file) 75 KB   1
10:44, 5 October 2018 SAHS Gel 1.png (file) 356 KB   1
10:46, 5 October 2018 SAHS Gel 2.png (file) 242 KB   1
10:49, 5 October 2018 SAHS pro Gel 1.png (file) 400 KB   1
10:54, 5 October 2018 CAHS Com pro Gel1.png (file) 258 KB   1
08:04, 6 October 2018 K2623011.png (file) 194 KB   1
08:06, 6 October 2018 K2623013.png (file) 248 KB   1
10:05, 7 October 2018 K2623016.png (file) 417 KB   1
17:48, 16 October 2018 Kai 1 .gif (file) 109 KB   2
18:04, 16 October 2018 PKaiBC 1 .gif (file) 79 KB   2
18:29, 16 October 2018 PKaiBC RpaA .gif (file) 207 KB   2
04:38, 17 October 2018 GroupA.png (file) 23 KB   1
04:38, 17 October 2018 GroupB.png (file) 23 KB   1
06:15, 17 October 2018 Math.png (file) 47 KB   1
06:24, 17 October 2018 Mathb.png (file) 49 KB   1
06:48, 17 October 2018 A fitting.txt (file) 2 KB   1
06:49, 17 October 2018 B fitting.txt (file) 2 KB   1
12:43, 17 October 2018 Figure 9- the circuit of BBa K2623014.png (file) 48 KB   1
12:53, 17 October 2018 Figure 10- the E.coli DH5а with BBa-K2623014 and IPTG turns red.(D+ is E.coli DH5а with BBa K2623014 and IPTG, D- is E.coli DH5а with BBa K2623014 without IPTG, D0 is E.coli DH5а without BBa K2623014).png (file) 448 KB   1
12:57, 17 October 2018 Figure 5- gradient dilution.png (file) 123 KB   1
13:01, 17 October 2018 Figure 5- the CFU of BL21.png (file) 22 KB   1
13:09, 17 October 2018 Figure 7- the colony recovery rate.png (file) 16 KB   1
13:17, 17 October 2018 Figure 15- the plate of colony for counting.png (file) 1.06 MB   1
13:33, 17 October 2018 BBa K2623016.jpg (file) 1.75 MB   1
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