Results 61 to 70 of about 7,150 (221)

DynaDom: structure-based prediction of T cell receptor inter-domain and T cell receptor-peptide-MHC (class I) association angles [PDF]

, 2017
Table S3. Per residue flip states using Reduce, Protoss and DynaDom comparing single domains and TCR complexes.
Antoine Marion, Iris Antes, Thomas Hoffmann   +2 more
core   +11 more sources

A Serum‐Stable Antimicrobial Peptide‐Based Delivery Platform for Selective Treatment of Nontargetable and Chemoresistant Tumors

Advanced Science, Volume 12, Issue 45, December 4, 2025.
A modular antimicrobial‐peptide‐based therapeutic system integrating membrane‐targeted selectivity, a conformation‐driven polyethylene glycolylated blocker, and serum‐stabilizing N‐cap is developed. The optimized conjugate 270 shows potent, rapid killing of the desired tumor cells, high serum stability, low off‐target toxicity, and broad applicability,
Tianxing Liu, Lingyu Ke, Ruize Sun, Xiaoling Chen, Mei Zhou, Olaf R. P. Bininda‐Emond, Chengbang Ma, Yangyang Jiang, Tao Wang, Chris Shaw, Lei Wang, Tianbao Chen, Alideertu Dong   +12 more
wiley   +1 more source

A comparison of clustering models for inference of T cell receptor antigen specificity

ImmunoInformatics
The vast potential sequence diversity of TCRs and their ligands has presented an historic barrier to computational prediction of TCR epitope specificity, a holy grail of quantitative immunology.
Dan Hudson, Alex Lubbock, Mark Basham, Hashem Koohy   +3 more
doaj   +1 more source

GeneSeer: a sage for gene names and genomic resources [PDF]

, 2005
BACKGROUND: Independent identification of genes in different organisms and assays has led to a multitude of names for each gene. This balkanization makes it difficult to use gene names to locate genomic resources, homologs in other species and relevant ...
Olson, A. J., Tully, T., Sachidanandam, R.   +2 more
core   +1 more source

mRNA Cancer Vaccines: From Pandemic Paradigm to Personalized Oncology Therapeutics

Cancer Innovation, Volume 4, Issue 6, December 2025.
This review highlights the transformative potential of mRNA cancer vaccines, leveraging technological advancements in nucleotide modification, lipid nanoparticle delivery, and AI‐driven neoantigen selection to enhance vaccine stability, immunogenicity, and personalization.
Bo Yang, Juan Liu, Yang Li, Xiaoxuan Liu
wiley   +1 more source

SARS-CoV-2-identical protein regions found in mammalian coronaviruses have immunogenic potential and can imply cross-protection

ImmunoInformatics
Coronaviruses are known to infect a wide range of mammals. In humans, coronaviruses have been responsible for causing the common cold. The immune response against common cold coronaviruses appears to elicit a cross-protective response to SARS-CoV-2. This
Luciano Rodrigo Lopes
doaj   +1 more source

Augmenting adaptive immunity: progress and challenges in the quantitative engineering and analysis of adaptive immune receptor repertoires

, 2019
The adaptive immune system is a natural diagnostic and therapeutic. It recognizes threats earlier than clinical symptoms manifest and neutralizes antigen with exquisite specificity.
Abbas, Adams, Adli, Alipanahi, Alpert, AlQuraishi, Altan-Bonnet, Angeletti, Angermueller, Antunes, Arora, Arora, Arora, Azizi, Ba, Bachmann, Bandeira, Baran, Barlow, Bashford-Rogers, Bashor, Bassani-Sternberg, Bassani-Sternberg, Bassani-Sternberg, Bassing, Baumgarth, Ben-Hamo, Benjamin, Benjamin, Bentzen, Bentzen, Bepler, Bethune, Bhat, Birnbaum, Biswas, Blythe, Bolotin, Bongartz, Boyd, Bradbury, Bradley, Breden, Brenner, Briggs, Briney, Britanova, Broere, Brown, Buenrostro, Bulik-Sullivan, Burnett, Busse, Cao, Carey, Carmona, Carreno, Casadevall, Casini, Chaudhary, Chen, Cheow, Cheung, Chevalier, Ching, Christina Fan, Cinelli, Cobey, Cohen, Cohen, Cole, Corcoran, Correia, Corrie, Croote, Cybenko, Daberdaku, Dash, Davies, Davis, Davis, Davis, De Neuter, Deac, DeKosky, DeKosky, Devilder, Devulapally, DeWitt, DeWitt 3rd, DeWitt III, Dey, Ecker, Egorov, Egorov, EL-Manzalawy, EL-Manzalawy, EL-Manzalawy, Elgundi, Elhanati, Elhanati, Elhanati, Elhanati, Elton, Emerson, Emini, Esteva, Eyer, Farlik, Farmer, Farmer, Fellouse, Ferdous, Fine, Fink, Fischer, Fischman, Fishman, Flower, Fowler, Frank, Friedensohn, Galperin, Galson, Gee, Gee, Geering, Gentiluomo, Georgiev, Georgiou, Gidoni, Gielis, Glanville, Glanville, Goddard, Goldstein, Goodfellow, Goodfellow, Gowthaman, Graf, Greaves, Greenbaum, Greenspan, Greenspan, Greenspan, Greiff, Greiff, Greiff, Greiff, Greiff, Griffiths, Grigaityte, Guo, Guo, Hadrup, Halperin, Han, Han, Hartweger, Hashimshony, Hashimshony, Haynes, He, Heather, Heather, Hebditch, Heemskerk, Hellman, Hillman, Hochgerner, Hochreiter, Hochreiter, Hoehn, Hoehn, Holder, Holland, Holzinger, Hoogenboom, Hopp, Hornik, Hou, Howie, Hua, Huang, Imkeller, Irvine, Ishino, Islam, Islam, Jackson, Jackson, Jacobs, Jacobsen, Jacobsen, Jain, Jain, Jaitin, Janin, Jardine, Jardine, Jeanbart, Jerne, Jespersen, Joglekar, Jokinen, June, Jyothi, Kabat, Kanyavuz, Kaplon, Karplus, Keich, Keskin, Khosravi-Maharlooei, Kieke, Kingma, Kisielow, Klambauer, Klebanoff, Konishi, Korn, Kotzias, Kovaltsuk, Kramer, Krawczyk, Krawczyk, Krawczyk, Kringelum, Kunik, Kunik, Kuroda, Lanchantin, Lanzarotti, Lapidoth, Lapidoth, Laplane, Larsen, Lauer, Lavinder, Lavoie, LeCun, Lee, Lee, Legutki, Legutki, Levitt, Li, Li, Li, Li, Liberis, Lindeman, Linette, Liu, Liu, Liu, Liu, Lollier, Longo, Lu, Luo, Luo, Luo, López-Santibáñez-Jácome, Løset, MacBeath, Macosko, Madi, Madi, Mahajan, Manavalan, Manczinger, Mangul, Mangul, Marchalonis, Marcou, Margalit, Marrack, Marrack, Marrack, Martin, Martin, Mascola, Mason, Mason, Mayer, McDaniel, Meng, Merbl, Meysman, Mian, Migalska, Miho, Miho, Minhas, Moffett, Mohan, Mora, Mora, Murphy, Murugan, Muyldermans, Navalkar, Nemazee, Newell, Newell, Newell, Nimrod, North, Oakes, Ohlin, Olson, Ostmeyer, Ostmeyer, Ott, Ott, Padlan, Palme, Parker, Parola, Patterson, Pellequer, Perelson, Perelson, Persson, Peterson, Picelli, Pierce, Pittala, Pogorelyy, Pogorelyy, Pogson, Ponomarenko, Ponomarenko, Pou, Preuer, Priel, Purwada, Purwada, Quang, Radbruch, Ramos-López, Ramsköld, Raybould, Remington, Reshetova, Ribeiro, Richards, Richman, Riley, Rives, Rizzetto, Robert, Robins, Robins, Robinson, Rosati, Rosenberg, Rosenblatt, Rubelt, Rubinstein, Sahin, Saikia, Sandve, Sandve, Sblattero, Schmitt, Schneider, Schneider-Hohendorf, Schroeder, Schumacher, Schwab, Scott, Seet, Segler, Seimetz, Sela-Culang, Sela-Culang, Sela-Culang, Sethna, Sethna, Setliff, Sette, Sewell, Shah, Shalev-Shwartz, Sharon, Shaw, Shokri, Shugay, Shugay, Sidhom, Sidhom, Sikorski, Simonovsky, Simonyan, Sircar, Sircar, Slocombe, Smallwood, Soto, Spiess, Stoeckius, Stone, Strauli, Stubbington, Stubbington, Sundararajan, Swartz, Sylwester, Szegedy, Tague, Talmage, Tang, Taussig, Thakkar, Thomas, Thomas, Tickotsky, Tiller, Tirosh, Tompa, Tonegawa, Townsend, Trepel, Trolle, Turchaninova, Turner, Udyavar, Vamathevan, van der Schoot, Van Regenmortel, Venturi, Verkoczy, Vollmers, Voss, Vázquez Bernat, Wainberg, Walsh, Wang, Wang, Wang, Wang, Wang, Wang, Wang, Wardemann, Wardemann, Wardemann, Watson, Weinstein, Weitzner, Weitzner, Whitehead, Williams, Wine, Wine, Wirth, Woese, Wucherpfennig, Wurch, Xu, Xu, Xu, Yaari, Yaari, Yager, Yang, Younger, Zandian, Zarnitsyna, Zhang, Zhang, Zhao, Zhao, Zhao, Zheng, Zirlik, Zong   +478 more
core   +1 more source

Genomic and Immunoinformatics Insights Into a Bovine‐Derived Brucella abortus S19 Field Strain: Adaptations Impacting Vaccine Efficacy

Veterinary Medicine and Science, Volume 11, Issue 6, November 2025.
This study presents a comprehensive genomic and immunoinformatics analysis of a bovine‐derived Brucella abortus S19 field strain, revealing significant antigenic variations and virulence adaptations impacting vaccine efficacy. These findings provide insights for designing improved vaccines tailored to regional epidemiological needs.
Ali Arslan, Emre Aktas, Osman Ugur Sezerman, Tulin Ozbek   +3 more
wiley   +1 more source

Guiding a language-model based protein design method towards MHC Class-I immune-visibility targets in vaccines and therapeutics

ImmunoInformatics
Proteins have an arsenal of medical applications that include disrupting protein interactions, acting as potent vaccines, and replacing genetically deficient proteins.
Hans-Christof Gasser, Diego A. Oyarzún, Ajitha Rajan, Javier Antonio Alfaro   +3 more
doaj   +1 more source

Immunoinformatics and Vaccine Development: An Overview.

ImmunoTargets and therapy, 2020
The use of vaccines have resulted in a remarkable improvement in global health. It has saved several lives, reduced treatment costs and raised the quality of animal and human lives. Current traditional vaccines came empirically with either vague or completely no knowledge of how they modulate our immune system.
Oli,Angus Nnamdi, Obialor,Wilson Okechukwu, Ifeanyichukwu,Martins Ositadimma, Odimegwu,Damian Chukwu, Okoyeh,Jude Nnaemeka, Emechebe,George Ogonna, Adejumo,Samson Adedeji, Ibeanu,Gordon C   +7 more
openaire   +3 more sources