Results 81 to 90 of about 969,569 (304)

Bactericidal human monoclonal antibody 1B1 shows specificity for meningococcal factor H binding protein variant 2 and displaces human factor H

FASEB BioAdvances
Thousands of disease cases and hundreds of deaths occur globally each year due to invasive meningococcal disease. Neisseria meningitidis serogroup B (MenB) is the leading cause of such disease in developed countries.
Daniele Veggi, Chelsy C. Chesterman, Laura Santini, Ying Huang, Nicola Pacchiani, Jeannette Sierra, Lynn Chen, Jason Laliberte, Federica Bianchi, Roberta Cozzi, Elisabetta Frigimelica, Domenico Maione, Oretta Finco, Matthew J. Bottomley   +13 more
doaj   +1 more source

Functionalization and Characterization of Magnetic Nanoparticles for the Detection of Ferritin Accumulation in Alzheimer's Disease [PDF]

, 2018
Early diagnosis in Alzheimer's disease (AD), prior to the appearance of marked clinical symptoms, is critical to prevent irreversible neuronal damage and neural malfunction that lead to dementia and death.
Cussó, Lorena, Desco, Manuel, Fernández Cabada, Tamara, Martínez Serrano, Alberto, Ramos Gómez, Milagros   +4 more
core   +1 more source

An isoform of 14‐3‐3 protein regulates transbilayer lipid movement at the plasma membrane

FEBS Letters, EarlyView.
Loss of 14‐3‐3ζ in CHO cells confers resistance to exogenous phosphatidylserine (PS) and impairs endocytosis‐independent inward flip‐flop of fluorescent PS at the plasma membrane. RNAi‐mediated knockdown reproduces this defect, while no additive effect is seen in ATP11C‐deficient cells.
Akiko Yamaji‐Hasegawa, Akira Hattori, Masafumi Tsujimoto, Toshihide Kobayashi   +3 more
wiley   +1 more source

Positive selection determines T cell receptor V beta 14 gene usage by CD8+ T cells. [PDF]

, 1989
We report here a mAb, 14-2, reactive with TCRs that include V beta 14. The frequency of V beta 14+ T cells varies with CD4 and CD8 subset and is controlled by the H-2 genes.
Liao, N, Maltzman, J, RAULET, David H.
core  

VH-RELATED IDIOTOPES DETECTED BY SITE-DIRECTED MUTAGENESIS [PDF]

, 1992
The function of the CD4 cell surface protein as coreceptor on T helper lymphocytes and as receptor for HIV makes this glycoprotein a prime target for an immune intervention with mAb.
Cheng, Y. H., Rieber, Ernst Peter, Riethmüller, Gert, Weiss, Elisabeth H., Weissenhorn, Winfried   +4 more
core   +1 more source

The ubiquitin ligase RNF115 is required for the clearance of damaged lysosomes

FEBS Letters, EarlyView.
Upon lysosomal rupture, an E3 ubiquitin ligase RNF115 translocates from the cytosol to the damaged lysosomal membrane. Moreover, RNF115 depletion impairs the clearance of damaged lysosomes, identifying it as a key regulator of lysosomal quality control.
Sae Nakanaga, Toshiki Takahashi, Akiko Kuma, Hiroyuki Kawahara   +3 more
wiley   +1 more source

Smooth muscle antibodies and cryoglobulinemia are associated with advanced liver fibrosis in Brazilian hepatitis C virus carriers

Brazilian Journal of Infectious Diseases
Cryoglobulinemia and non-organ-specific-autoantibody are biomarkers of autoimmunity of the chronic infection caused by hepatitis C virus (HCV).
Luis Jesuino de Oliveira Andrade, Paulo Roberto Santana de Melo, Ajax Mercês Atta, Maria Luiza Brito de Sousa Atta, Larissa Santana de Jesus, Gabriel Menezes de Sousa, Carolina Alves Costa Silva, Raymundo Paraná   +7 more
doaj   +1 more source

Affinity Maturation Enhances Antibody Specificity but Compromises Conformational Stability

Cell Reports, 2019
Summary: Monoclonal antibodies (mAbs) have recently emerged as one of the most promising classes of biotherapeutics. A potential advantage of B cell-derived mAbs as therapeutic agents is that they have been subjected to natural filtering mechanisms ...
Laila Shehata, Daniel P. Maurer, Anna Z. Wec, Asparouh Lilov, Elizabeth Champney, Tingwan Sun, Kimberly Archambault, Irina Burnina, Heather Lynaugh, Xiaoyong Zhi, Yingda Xu, Laura M. Walker   +11 more
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

The neural crest‐associated gene ERRFI1 is involved in melanoma progression and resistance toward targeted therapy

Molecular Oncology, EarlyView.
ERRFI1, a neural crest (NC)‐associated gene, was upregulated in melanoma and negatively correlated with the expression of melanocytic differentiation markers and the susceptibility of melanoma cells toward BRAF inhibitors (BRAFi). Knocking down ERRFI1 significantly increased the sensitivity of melanoma cells to BRAFi.
Nina Wang, Qian Sun, Daniel Novak, Lei Zhu, Juliane Poelchen, Tamara Steinfass, Yiman Wang, Viktor Umansky, Jochen Utikal   +8 more
wiley   +1 more source