Abstract
The effect of soluble or immobilized MAb directed at various additional surface proteins on the proliferation of highly purified T4 cells induced by two immobilized MAb to CD3, OKT3 and 64.1, was examined. High density 64.1 stimulated nearly all T4 cells to enter and progress through the cell cycle. Maximal T4 cell proliferation required stimulation with immobilized 64.1 throughout the length of the incubation and was not effected by any of the additional soluble or immobilized MAb employed. In contrast, low density immobilized 64.1 and all densities of immobilized OKT3 employed stimulated a minority of the cells to enter the cell cycle and proliferate. Immobilized MAb directed at CD2, class I major histocompatibility complex (MHC) encoded gene products or CD11a (LFA-1) dramatically enhanced the response, whereas soluble MAb directed at these determinants did not. Both immobilized and soluble MAb directed at CD5 and CD28 (Tp44) enhanced responses, but they were less effective than immobilized MAb to CD2, LFA-1 or HLA-A,B,C. Soluble anti-CD4 MAb inhibited responses somewhat, whereas immobilized anti-CD4 enhanced responses. Costimulation was observed when MAb to CD3 and class I MHC molecules but not CD2, LFA-1 or CD4 were immobilized to separate surfaces. The data suggest that when anti-CD3 stimulation is suboptimal, responses can be enhanced by MAb to CD5 or CD28 (Tp44) or by immobilized MAb to CD4, CD2, CD11a (LFA-1), or class I MHC encoded gene products. Although crosslinking of CD4, CD2, or CD11a with CD3 may be necessary for costimulation, immobilized MAb to CD3 and class I MHC molecules appear to deliver independent signals that result in enhanced T4 cell activation and proliferation.
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Selected References
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