Entry ID | Original Release date | Data summary | Entry Title | Citation Title | Authors |
---|---|---|---|---|---|
31208 | 2025-01-28 | Chemical Shifts: 1 set |
Backbone Modification in the Fungal Defensin Plectasin: beta3-Residues in the helix |
Structural and Functional Mimicry of the Antimicrobial Defensin Plectasin by Analogues with Engineered Backbone Composition
|
A J Gulewicz, J Song, T W Harmon, W S Horne, Y P Di |
31207 | 2025-01-28 | Chemical Shifts: 1 set |
Backbone Modification in the Fungal Defensin Plectasin: Prototype NZ2114 |
Structural and Functional Mimicry of the Antimicrobial Defensin Plectasin by Analogues with Engineered Backbone Composition
|
A J Gulewicz, J Song, T W Harmon, W S Horne, Y P Di |
31211 | 2025-01-28 | Chemical Shifts: 1 set |
Backbone Modification in the Fungal Defensin Plectasin: Calpha-methyl-residues in the helix, D- and Calpha-methyl-residues in the turns |
Structural and Functional Mimicry of the Antimicrobial Defensin Plectasin by Analogues with Engineered Backbone Composition
|
A J Gulewicz, J Song, T W Harmon, W S Horne, Y P Di |
31210 | 2025-01-28 | Chemical Shifts: 1 set |
Backbone Modification in the Fungal Defensin Plectasin: D- and Calpha-methyl-residues in the turns |
Structural and Functional Mimicry of the Antimicrobial Defensin Plectasin by Analogues with Engineered Backbone Composition
|
A J Gulewicz, J Song, T W Harmon, W S Horne, Y P Di |
31209 | 2025-01-28 | Chemical Shifts: 1 set |
Backbone Modification in the Fungal Defensin Plectasin: Calpha-methyl-residues in the helix |
Structural and Functional Mimicry of the Antimicrobial Defensin Plectasin by Analogues with Engineered Backbone Composition
|
A J Gulewicz, J Song, T W Harmon, W S Horne, Y P Di |
27772 | 2020-07-09 | Chemical Shifts: 1 set |
1H, 15N,13C assignments of the Solanum tuberosum Plant Specific Insert at pH 2.0 |
Insights into the mechanism of membrane fusion induced by the plant defense element, Plant Specific Insert
|
Brian C Bryksa, Chen Song, Hua Yu, Jenny Tian, John H Dupuis, Rickey Y Yada, Shenlin Wang, Xiaoli Zhao, Xiuyuan Ou, Zhaohui Qian |
27771 | 2020-07-09 | Chemical Shifts: 1 set |
1H,15N and 13C NMR assignments of the Solanum tuberosum Plant Specific Insert at pH 7.0 |
Insights into the mechanism of membrane fusion induced by the plant defense element, Plant Specific Insert
|
Brian C Bryksa, Chen Song, Hua Yu, Jenny Tian, John H Dupuis, Rickey Y Yada, Shenlin Wang, Xiaoli Zhao, Xiuyuan Ou, Zhaohui Qian |
36133 | 2018-12-13 | Chemical Shifts: 1 set |
Solution structure of BCL-XL bound to P73-TAD peptide |
Cytoplasmic pro-apoptotic function of the tumor suppressor p73 is mediated through a modified mode of recognition of the anti-apoptotic regulator Bcl-XL.
|
B C Park, B Kim, B-Y, D Lee, D-H, J Ha, J-H, J H Cho, J Kim, J-H, J Lee, J-Y, J S Choi, J Song, K Bae, K-H, M Lee, M-K, M Lee, M-S, M Yoon, M-K, S A Kim, S Chi, S-W, S G Park, S Kim, S U Choi |
30513 | 2018-12-04 | Chemical Shifts: 1 set |
TCR alpha transmembrane domain |
The T Cell Antigen Receptor alpha Transmembrane Domain Coordinates Triggering through Regulation of Bilayer Immersion and CD3 Subunit Associations.
|
A Boeszoermenyi, A Yoshizawa, E L Reinherz, G Wagner, H Arthanari, J S Duke-Cohan, K Bi, K N Brazin, L Song, M J Lang, P A Reche, P Kaur, R E Hussey, R J Mallis, Y Feng |
36146 | 2018-12-18 | Chemical Shifts: 1 set |
mBjAMP1 structure |
Structural and functional assessment of mBjAMP1, an antimicrobial peptide from Branchiostoma japonicum, revealed a novel alpha-hairpinin-like scaffold with membrane permeable and DNA binding activity.
|
Chul Won W Lee, Ganesan Rajasekaran, Hye Jung Min, Hyosuk Yun, Jae Il Kim, Jiyong Y Nam, S Dinesh Kumar, Song Yub Shin |
36112 | 2018-07-11 | Chemical Shifts: 1 set |
NMR structure of the domain 5 of the E. coli ribosomal protein S1 |
Kinetoplastid membrane protein-11 adopts a four-helix bundle fold in DPC micelle
|
Cynthia Y He, Jianxing Song, Jing Fu, Liang Zhong Z Lim, Shermaine Ee, Yanming Tan |
36019 | 2017-04-11 | Chemical Shifts: 1 set Spectral_peak_list: 1 set |
Solution structure of rattusin |
Rattusin structure reveals a novel defensin scaffold formed by intermolecular disulfide exchanges.
|
Chul Won W Lee, Ganesan Rajasekaran, Hye Jung J Min, Hyosuk Yun, Jae Il I Kim, Jeong-Sun S Kim, Sehyeon Ji, Song Yub Y Shin |
30145 | 2016-09-16 | Chemical Shifts: 1 set |
NMR Solution Structure of Designed Peptide NC_cHHH_D1 |
Accurate de novo design of hyperstable constrained peptides.
|
A Eletsky, A Watkins, C D Bahl, C E Correnti, D Baker, D J Craik, E Coutsias, G Bhardwaj, G J Rocklin, G W Buchko, J M Gilmore, J M Olson, L P Carter, O Cheneval, P J Greisen, P J Harvey, P S Huang, Q Kaas, R Bonneau, S A Rettie, S V Pulavarti, T Szyperski, T W Linsky, V K Mulligan, W A Johnsen, X Xu, Y Song |
30146 | 2016-09-16 | Chemical Shifts: 1 set |
NMR Solution Structure of Designed Peptide NC_cEE_D1 |
Accurate de novo design of hyperstable constrained peptides.
|
A Eletsky, A Watkins, C D Bahl, C E Correnti, D Baker, D J Craik, E Coutsias, G Bhardwaj, G J Rocklin, G W Buchko, J M Gilmore, J M Olson, L P Carter, O Cheneval, P J Greisen, P J Harvey, P S Huang, Q Kaas, R Bonneau, S A Rettie, S V Pulavarti, T Szyperski, T W Linsky, V K Mulligan, W A Johnsen, X Xu, Y Song |
30142 | 2016-09-16 | Chemical Shifts: 1 set |
NMR Solution Structure of Designed Peptide NC_EEH_D1 |
Accurate de novo design of hyperstable constrained peptides.
|
A Eletsky, A Watkins, C D Bahl, C E Correnti, D Baker, D J Craik, E Coutsias, G Bhardwaj, G J Rocklin, G W Buchko, J M Gilmore, J M Olson, L P Carter, O Cheneval, P J Greisen, P J Harvey, P S Huang, Q Kaas, R Bonneau, S A Rettie, S V Pulavarti, T Szyperski, T W Linsky, V K Mulligan, W A Johnsen, X Xu, Y Song |
30143 | 2016-09-16 | Chemical Shifts: 1 set |
NMR Solution Structure of Designed Peptide NC_cHH_D1 |
Accurate de novo design of hyperstable constrained peptides.
|
A Eletsky, A Watkins, C D Bahl, C E Correnti, D Baker, D J Craik, E Coutsias, G Bhardwaj, G J Rocklin, G W Buchko, J M Gilmore, J M Olson, L P Carter, O Cheneval, P J Greisen, P J Harvey, P S Huang, Q Kaas, R Bonneau, S A Rettie, S V Pulavarti, T Szyperski, T W Linsky, V K Mulligan, W A Johnsen, X Xu, Y Song |
30144 | 2016-09-16 | Chemical Shifts: 1 set |
NMR Solution Structure of Designed Peptide NC_cHh_DL_D1 |
Accurate de novo design of hyperstable constrained peptides.
|
A Eletsky, A Watkins, C D Bahl, C E Correnti, D Baker, D J Craik, E Coutsias, G Bhardwaj, G J Rocklin, G W Buchko, J M Gilmore, J M Olson, L P Carter, O Cheneval, P J Greisen, P J Harvey, P S Huang, Q Kaas, R Bonneau, S A Rettie, S V Pulavarti, T Szyperski, T W Linsky, V K Mulligan, W A Johnsen, X Xu, Y Song |
30140 | 2016-09-16 | Chemical Shifts: 1 set |
NMR Solution Structure of Designed Peptide NC_EHE_D1 |
Accurate de novo design of hyperstable constrained peptides.
|
A Eletsky, A Watkins, C D Bahl, C E Correnti, D Baker, D J Craik, E Coutsias, G Bhardwaj, G J Rocklin, G W Buchko, J M Gilmore, J M Olson, L P Carter, O Cheneval, P J Greisen, P J Harvey, P S Huang, Q Kaas, R Bonneau, S A Rettie, S V Pulavarti, T Szyperski, T W Linsky, V K Mulligan, W A Johnsen, X Xu, Y Song |
30141 | 2016-09-16 | Chemical Shifts: 1 set |
NMR Solution Structure of Designed Peptide NC_EEH_D2 |
Accurate de novo design of hyperstable constrained peptides.
|
A Eletsky, A Watkins, C D Bahl, C E Correnti, D Baker, D J Craik, E Coutsias, G Bhardwaj, G J Rocklin, G W Buchko, J M Gilmore, J M Olson, L P Carter, O Cheneval, P J Greisen, P J Harvey, P S Huang, Q Kaas, R Bonneau, S A Rettie, S V Pulavarti, T Szyperski, T W Linsky, V K Mulligan, W A Johnsen, X Xu, Y Song |
30138 | 2016-09-16 | Chemical Shifts: 1 set |
NMR Solution Structure of Designed Peptide NC_HEE_D1 |
Accurate de novo design of hyperstable constrained peptides.
|
A Eletsky, A Watkins, C D Bahl, C E Correnti, D Baker, D J Craik, E Coutsias, G Bhardwaj, G J Rocklin, G W Buchko, J M Gilmore, J M Olson, L P Carter, O Cheneval, P J Greisen, P J Harvey, P S Huang, Q Kaas, R Bonneau, S A Rettie, S V Pulavarti, T Szyperski, T W Linsky, V K Mulligan, W A Johnsen, X Xu, Y Song |
26046 | 2016-09-13 | Chemical Shifts: 1 set Spectral_peak_list: 2 sets |
Solution structure of the de novo mini protein EEH_04 |
Accurate de novo design of hyperstable constrained peptides.
|
A Eletsky, A Watkins, C D Bahl, C E Correnti, D Baker, D J Craik, E Coutsias, G Bhardwaj, G J Rocklin, G W Buchko, J M Gilmore, J M Olson, L P Carter, O Cheneval, P J Greisen, P J Harvey, P S Huang, Q Kaas, R Bonneau, S A Rettie, S V Pulavarti, T Szyperski, T W Linsky, V K Mulligan, W A Johnsen, X Xu, Y Song |
26045 | 2016-09-13 | Chemical Shifts: 1 set Spectral_peak_list: 2 sets |
Solution structure of the de novo mini protein HHH_06 |
Accurate de novo design of hyperstable constrained peptides.
|
A Eletsky, A Watkins, C D Bahl, C E Correnti, D Baker, D J Craik, E Coutsias, G Bhardwaj, G J Rocklin, G W Buchko, J M Gilmore, J M Olson, L P Carter, O Cheneval, P J Greisen, P J Harvey, P S Huang, Q Kaas, R Bonneau, S A Rettie, S V Pulavarti, T Szyperski, T W Linsky, V K Mulligan, W A Johnsen, X Xu, Y Song |
30067 | 2016-09-22 | Chemical Shifts: 1 set Spectral_peak_list: 2 sets |
Solution structure of the de novo miniprotein EHE_06 |
Accurate de novo design of hyperstable constrained peptides.
|
A Eletsky, A Watkins, C D Bahl, C E Correnti, D Baker, D J Craik, E Coutsias, G Bhardwaj, G J Rocklin, G W Buchko, J M Gilmore, J M Olson, L P Carter, O Cheneval, P J Greisen, P J Harvey, P S Huang, Q Kaas, R Bonneau, S A Rettie, S V Pulavarti, T Szyperski, T W Linsky, V K Mulligan, W A Johnsen, X Xu, Y Song |
30069 | 2016-09-22 | Chemical Shifts: 1 set Spectral_peak_list: 2 sets |
Solution structure of the de novo miniprotein EEHE_02 |
Accurate de novo design of hyperstable constrained peptides.
|
A Eletsky, A Watkins, C D Bahl, C E Correnti, D Baker, D J Craik, E Coutsias, G Bhardwaj, G J Rocklin, G W Buchko, J M Gilmore, J M Olson, L P Carter, O Cheneval, P J Greisen, P J Harvey, P S Huang, Q Kaas, R Bonneau, S A Rettie, S V Pulavarti, T Szyperski, T W Linsky, V K Mulligan, W A Johnsen, X Xu, Y Song |
26538 | 2015-04-13 | Chemical Shifts: 1 set |
Short hydrophobic peptides with cyclic constraints are po-tent GLP-1R agonists. |
Short hydrophobic peptides with cyclic constraints are potent glucagon-like peptide-1 receptor (GLP-1R) agonists
|
Alan M Mathiowetz, Chris Limberakis, David A Griffith, David A Price, David J Edmonds, David P Fairlie, David R Derksen, David W Piotrowski, Huy N Hoang, Jacky Y Suen, Jane M Withka, Justin M Mitchell, Kun Song, Paula M Loria, Robert V Stanton, Spiros Liras, Timothy A Hill, Vincent Mascitti, W Mei Kok |
26537 | 2015-04-13 | Chemical Shifts: 1 set |
Short hydrophobic peptides with cyclic constraints are po-tent GLP-1R agonists. |
Short hydrophobic peptides with cyclic constraints are potent glucagon-like peptide-1 receptor (GLP-1R) agonists
|
Alan M Mathiowetz, Chris Limberakis, David A Griffith, David A Price, David J Edmonds, David P Fairlie, David R Derksen, David W Piotrowski, Huy N Hoang, Jacky Y Suen, Jane M Withka, Justin M Mitchell, Kun Song, Paula M Loria, Robert V Stanton, Spiros Liras, Timothy A Hill, Vincent Mascitti, W Mei Kok |
26536 | 2015-04-13 | Chemical Shifts: 1 set |
Short hydrophobic peptides with cyclic constraints are po-tent GLP-1R agonists. |
Short hydrophobic peptides with cyclic constraints are potent glucagon-like peptide-1 receptor (GLP-1R) agonists
|
Alan M Mathiowetz, Chris Limberakis, David A Griffith, David A Price, David J Edmonds, David P Fairlie, David R Derksen, David W Piotrowski, Huy N Hoang, Jacky Y Suen, Jane M Withka, Justin M Mitchell, Kun Song, Paula M Loria, Robert V Stanton, Spiros Liras, Timothy A Hill, Vincent Mascitti, W Mei Kok |
25517 | 2016-07-13 | Chemical Shifts: 1 set |
Short hydrophobic peptide, 11mer |
Short hydrophobic peptides with cyclic constraints are potent glucagon-like peptide-1 receptor (GLP-1R) agonists
|
Alan M Mathiowetz, Chris Limberakis, David A Griffith, David A Price, David J Edmonds, David P Fairlie, David R Derksen, David W Piotrowski, Huy N Hoang, Jacky Y Suen, Jane M Withka, Justin M Mitchell, Kun Song, Paula M Loria, Robert V Stanton, Spiros Liras, Timothy A Hill, Vincent Mascitti, W Mei Kok |
19913 | 2014-08-04 | Chemical Shifts: 1 set |
NMR Structure of KDM5B PHD1 finger |
The PHD1 finger of KDM5B recognizes unmodified H3K4 during the demethylation of histone H3K4me2/3 by KDM5B
|
C Y Cao, H R Yang, N Y Rong, W X Lan, X Guo, Y H Xu, Y J Song, Y W Xu, Y Zhang |
17059 | 2010-09-08 | Binding_constants: 1 set |
Identification of a novel ubiquitin binding site of STAM1 VHS domain by NMR spectroscopy |
Identification of a novel ubiquitin binding site of STAM1 VHS domain by NMR spectroscopy
|
Bong-Jin Lee, Eun Y Park, Hee-Chul Ahn, Hong-Man Kim, Hye-Young Ji, Hyun K Song, Ji-Hun Kim, Jongsoo Lim, Seunga Lee, Yoon-Hun Hong |
16763 | 2010-03-24 | Binding_constants: 1 set |
Identification of a novel ubiquitin binding site of STAM1 VHS domain by NMR spectroscopy |
Identification of a novel ubiquitin binding site of STAM1 VHS domain by NMR spectroscopy
|
Bong-Jin Lee, Eun Y Park, Hee-Chul Ahn, Hong-Man Kim, Hye-Young Ji, Hyun K Song, Ji-Hun Kim, Jongsoo Lim, Seunga Lee, Yoon-Hun Hong |
16534 | 2010-02-08 | Chemical Shifts: 1 set |
DICER LIKE protein |
Structure of the Arabidopsis thaliana DCL4 DUF283 domain reveals a noncanonical double-stranded RNA-binding fold for protein-protein interaction.
|
Fading Chen, Haina Qin, Jianxing Song, Satoru Machida, Xuelu Huan, Y Adam Yuan |
7099 | 2008-07-16 | Chemical Shifts: 1 set |
NMR Solution Structure of VP9 from White Spot Syndrome Virus |
Identification of a Novel Nonstructural Protein VP9 from White Spot Syndrome Virus: Its Structure Reveals a Ferredoxin Fold with Specific Metal Binding Sites.
|
C L Hew, J L Wu, J Sivaraman, J X Song, Y Liu |