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1 IL-16 actions were found to be mediated by the autocrine
2 IL-16 also elicited brefeldin A-inhibitable, vesicular t
3 IL-16 and RANTES protein levels, as determined by specif
4 IL-16 binds to CD4 and induces a migratory response in C
5 IL-16 delivery vectors could be exploited to prevent or
6 IL-16 dose dependently (0.01-100 nM) elicited new lipid
7 IL-16 expression and the mechanism involved in its regul
8 IL-16 has been characterized only in the immune system,
9 IL-16 induced the rapid vesicular transport-mediated rel
10 IL-16 is a CD4(+)-specific chemoattractant and RANTES is
11 IL-16 is a novel cytokine, which is chemoattractant for
12 IL-16 is a proinflammatory cytokine implicated in the pa
13 IL-16 is a proinflammatory cytokine that signals via CD4
14 IL-16 is synthesized as a precursor molecule of 68 kDa (
15 IL-16 messenger RNA and protein levels in inflammatory b
16 IL-16 protein and activity are undetectable in fibroblas
17 IL-16 structure and function are highly conserved across
18 IL-16, a ligand for CD4, is a chemoattractant molecule e
19 IL-16-mediated ligation of CD4 expressed on CD8 T cells
20 IL-16/CD4 inhibition of SDF-1alpha/CXCR4 signals require
21 IL-16/CD4 stimulation does not result in surface modulat
22 IL-16/IL-2 cotreatment did not appear to induce selectiv
24 -2, IL-4, IL-5, IL-6, IL-8, IL-10, IL-12p35, IL-16, and IL-18, as well as genes encoding gamma interf
25 eron-gamma, interleukin [IL]-6, IL-8, IL-15, IL-16, IL-17, CXCL10 [IP-10], and MCP-1 [CCL2]) in BAL s
26 terleukin 1 (IL-1), IL-2, IL-6, IL-8, IL-15, IL-16, IL-17, IL-18, or gamma interferon (IFN-gamma) gen
27 n exogenous CD8+ T cells deficient in IL-16 (IL-16(-/-)) were infused into CD8(-/-) mice immediately
29 ated CD8 cells to respond to interleukin 16 (IL-16), a ligand that binds CD4 and induces cellular che
33 he immunomodulatory cytokine interleukin-16 (IL-16) represents the secreted C-terminus of a larger pr
34 rivascular space and secrete interleukin-16 (IL-16), a potent chemoattractant for monocytes and CD4+
37 cells, and, in long-term cultures with IL-2, IL-16 facilitates the expansion of CD4(+)CD25(+) cells.
38 vement of alarmins such as IL-1alpha, IL-33, IL-16, and high-mobility group box 1 in cellular and phy
39 several inflammatory cytokines (IL-6, IL-7, IL-16, and IL-17) and increased necrosis in older cells.
41 y cytokines, including IL-1beta, IL-6, IL-8, IL-16, and tumor necrosis factor-alpha accompanying the
46 ule-1 (CD31), P-selectin (CD62), IL-1 alpha, IL-16, and granulocyte chemoattractant protein-2 were do
47 owever, CD3/CD28 costimulation did not alter IL-16 mRNA appearance or stability in either CD4+ or CD8
51 interferon alpha, interleukin 1 [IL-1], and IL-16); and chemokines (macrophage inflammatory protein-
52 Detection of high levels of IL-1alpha and IL-16 in plasma and the independence of these protein le
53 levels of interleukin-1alpha (IL-1alpha) and IL-16 were among 10 proteins found to be significantly e
54 cytokines (G-CSF, GM-CSF, IL-1-ra, IL-2 and IL-16) were significantly increased in MPs from acute CF
55 In contrast, the genes encoding TGF-beta and IL-16 were expressed at lower levels in lymph nodes from
63 reated with vehicle, TNBS alone, TNBS + anti-IL-16 monoclonal antibody (mAb), TNBS + control mAb, or
65 4 Fab, soluble CD4, and a CD4 domain 4-based IL-16 blocking peptide inhibited the actions of IL-16 on
69 chanism of release or secretion of bioactive IL-16 is currently unknown, but does not correlate with
71 on peptides (designated A, B, and C) blocked IL-16 chemoattractant activity, with peptide B the most
73 the lung in a dendritic cell-independent but IL-16-dependent process and diminish neutrophil recruitm
78 ization induced by a natural ligand for CD4, IL-16, is distinct from the inhibitory effects induced b
79 ith Abs to the Th1-selective chemoattractant IL-16 show significantly less adhesion formation than wi
80 e CD4-specific T lymphocyte chemoattractant, IL-16, and RANTES, a C-C chemokine, in their fibroblasts
83 related activation-induced cytokine, CHI3L1, IL-16, and matrix metalloproteinase-12 were cardiovascul
90 ppression by attenuating caspase-3-dependent IL-16 processing and release, which concomitantly preven
92 attle, while expression of the gene encoding IL-16 was lower in tissues from infected cattle than in
93 fibroblasts from several tissues can express IL-16 mRNA and protein as well as IL-16-dependent chemoa
94 at fibroblasts from patients with GD express IL-16, a CD4-specific chemoattractant, and RANTES, a C-C
97 inant of the H129 strain of HSV-1 expressing IL-16, a cytokine with lymphocytic and monocytic chemoat
99 tends to almost 25 days for cells expressing IL-16 with signal peptide as compared with only 15 days
100 6 into the supernatant than cells expressing IL-16 without a signal peptide and are considerably more
101 g toward the CD4-specific chemotactic factor IL-16, providing another function for the CD4 molecule o
103 e solution structure previously reported for IL-16 reveals a tryptophan residue obscuring the recogni
105 56lck enzymatic activity is not required for IL-16-induced migration, it was required for desensitiza
106 ed in Crohn's disease, suggesting a role for IL-16 in the pathophysiology of inflammatory bowel disea
112 culation of BALB/c mice with H129wt and H129/IL-16 resulted in a delay of virus spread to the hypotha
113 d eyes of mice infected with H129wt and H129/IL-16 than in mice infected with H129wt and/or H129wt an
114 lated in the AC with H129wt, H129wt and H129/IL-16, or H129wt and H129/pGal10 (a recombinant virus co
115 f mice infected with H129wt, H129wt and H129/IL-16, or H129wt and H129/pGal10 was similar, more Mac-1
117 Comparative analysis of murine and human IL-16 homologs could reveal conserved structures that wo
121 Therapy for 14 days with recombinant human IL-16 significantly inhibited the production of IFN-gamm
123 When exogenous CD8+ T cells deficient in IL-16 (IL-16(-/-)) were infused into CD8(-/-) mice immed
124 at both N-terminal and C-terminal domains in IL-16 participate in receptor binding or activation.
125 nase-associated protein 2 mRNA expression in IL-16 null mice, but basal expression and activation-dep
126 ansiently greater thymidine incorporation in IL-16-deficient CD4(+) T cells than wild-type controls,
128 We also measured significantly increased IL-16 and stem cell factor in KC saliva samples compared
129 The presence of CCR5 significantly increased IL-16 binding vs CD4 alone; however, IL-16 could not bin
130 01), respectively, indicating that increased IL-16 levels in PE is associated with the severity of th
133 data indicate that at sites of inflammation IL-16 may contribute to selective Treg cell expansion th
136 was paralleled by the loss of intracellular IL-16, as detected by flow cytometry, and the concurrent
138 atment of T cells with a natural CD4 ligand, IL-16, could alter cellular responsiveness to macrophage
139 concentrations of CD40 antigen, CD40 ligand, IL-16, monocyte chemotactic protein-1, and vascular cell
140 r signaling through CD4 by a natural ligand, IL-16, could alter cellular responsiveness to chemokine
141 -terminal peptide of 121 amino acids (mature IL-16), which is cleaved from the precursor protein (pro
144 o a signal peptide secrete considerably more IL-16 into the supernatant than cells expressing IL-16 w
146 nctional similarity between human and murine IL-16 and suggest that amino acids in the C terminus are
149 ulatory role, we investigated the ability of IL-16 to recruit and influence the development of T regu
154 and gamma expression on CD4+ T cells and of IL-16/IL-2 cotreatment of resting human PBMC obtained fr
155 ies new opportunities for the development of IL-16-targeted therapeutics, including small molecules t
156 ut the processing and tissue distribution of IL-16 and pro-IL-16, we investigated the distribution of
159 kine receptors, we determined the effects of IL-16 interaction with CD4 on CXCR3-induced migration.
160 ation, we determined the relative effects of IL-16 on IL-2Ralpha, beta, and gamma expression on CD4+
168 edium blocked the up-regulation by GD-IgG of IL-16, implicating the FRAP/mTOR/p70(s6k) pathway in the
172 quence-based oligopeptides for inhibition of IL-16 chemoattractant activity and inhibition of IL-16 b
174 s IL-1beta, they express very high levels of IL-16 protein and chemoattractant activity, a substantia
176 nstitutive expression of the pro-molecule of IL-16 has been found in T cells, mast cells, eosinophils
178 on of CD4+ T cell numbers in the presence of IL-16 and IL-2 or IL-16 and IL-15 compared with the resp
179 stion and to further study the processing of IL-16, new constructs containing either the C-terminal 1
181 nt studies we investigated the regulation of IL-16 protein and mRNA expression in CD4+ T cells and de
185 Deletion of 12 or 22 N-terminal residues of IL-16 had no impact on chemoattractant activity, but MLR
190 roblasts appear to be an important source of IL-16 and through expression of this molecule may have k
191 issue, CD8+ T cells were the major source of IL-16, a natural ligand of the CD4 molecule that can ane
192 numbers in the presence of IL-16 and IL-2 or IL-16 and IL-15 compared with the responses to any of th
193 in IL-10 and IFN-gamma, but not TGF-beta or IL-16, as well as a decrease in IL-13 in the bronchoalve
194 iators histamine, PGD(2), LTB(4), CXCL10, or IL-16, each of which can be produced by mast cells and o
196 erleukin [IL]-1beta, IL-5, IL-7, IL-12(p70), IL-16, IL-17, IL-20, IL-21, IL-28A, tumor necrosis facto
197 a signal peptide, but with a signal peptide IL-16 is processed through the endoplasmic reticulum-gol
198 he lack of circulating CD8+ T cells prevents IL-16 expression, impairs CD4+ mononuclear cell recruitm
206 ing and tissue distribution of IL-16 and pro-IL-16, we investigated the distribution of IL-16 mRNA an
208 led to loss of nuclear translocation by pro-IL-16 and subsequent increases in Skp2 levels and decrea
209 that upon activation of normal T cells, pro-IL-16 mRNA and protein are diminished in close correlati
211 ve caspase-3 that is capable of cleaving pro-IL-16, whereas CD4+ T cells require activation for the a
216 Taken together, these findings identify pro-IL-16 as a novel regulator of Skp2 expression and p27(KI
218 sized as a precursor molecule of 68 kDa (pro-IL-16) that is processed by caspase-3, a member of the I
222 how that N-terminal to the NLS domain of pro-IL-16 are protein kinase CK2 substrate and cdc2 kinase s
224 ate that loss of nuclear localization of pro-IL-16 facilitates CTCL cell proliferation by causing a d
226 we show that the N-terminal prodomain of pro-IL-16 translocates into the nucleus following cleavage o
227 16, a domain required for association of pro-IL-16 with the nuclear chaperone HSC70 (also known as HS
228 ions in the 5' end of the PDZ1 region of pro-IL-16, a domain required for association of pro-IL-16 wi
240 Consistent with the microarray reports, pro-IL-16 mRNA levels fell within 4 h of activation, and thi
242 aken altogether, these data suggest that pro-IL-16 forms a complex with GABPbeta1 and HDAC3 in suppre
244 t on cell cycle progression suggest that pro-IL-16 is cleaved into two functional proteins, a C-termi
246 alcineurin-dependent mechanism, and that pro-IL-16 might influence T cell cycle regulation, although
249 as revealed a novel mechanism with which pro-IL-16 regulates T cell growth through the Skp2-p27KIP1 p
253 Moreover, CD8(-/-) mice displayed reduced IL-16 expression and decreased CD4+ T-cell recruitment a
258 und disruption of putative tumor suppressors IL-16 and translocated promoter region (TPR) in Tax-immo
260 sumed that CD4 is the sole receptor and that IL-16 induces a comparable migratory response in all CD4
267 lls from CCR5(null) mice, we determined that IL-16-induced migration was significantly greater in the
268 mutated forms of CD4, it was determined that IL-16/CD4 induces a p56(lck)-dependent inhibitory signal
269 mutated forms of CD4, it was determined that IL-16/CD4 induces a p56lck-dependent signal that results
273 h brefeldin A and/or tunicamycin showed that IL-16 is secreted despite the absence of a signal peptid
276 Prior DNA microarray studies suggested that IL-16 mRNA levels decrease following T cell activation,
277 the placental systems in PE, suggesting that IL-16 could be an important cytokine engaged in the alte
282 also show that the nuclear targeting of the IL-16 prodomain induces a G(0)/G(1) arrest in the cell c
283 Our study demonstrated up-regulation of the IL-16 profile in both the maternal and the placental sys
286 eins VEGF, HGF, FGF-2, KL, FLT3 ligand, TPO, IL-16, IGF-1, transforming growth factor-beta1 (TGF-beta
287 , prevented the desensitization of CXCR3 via IL-16/CD4, which was restored after reloading of cholest
288 ed in inflammatory bowel disease and whether IL-16 participates in trinitrobenzene sulfonic acid (TNB
289 of apoptosis in monocytes, we asked whether IL-16 release occurs in monocytes that undergo spontaneo
290 e aim of this study was to determine whether IL-16 production is increased in inflammatory bowel dise
292 associated with CD4, we investigated whether IL-16/CD4 stimulation was enhanced in the presence of CC
296 ture of the 14.1Fab fragment in complex with IL-16, revealing that binding of the antibody requires a
297 Potential interaction of this domain with IL-16 was studied by testing murine D4 sequence-based ol
298 ata indicate that receptor interactions with IL-16 that activate T cell migration are not identical w
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