Alan M. Solinger
University of California, Berkeley
Network
Latest external collaboration on country level. Dive into details by clicking on the dots.
Publication
Featured researches published by Alan M. Solinger.
Nature Immunology | 2010
Charles A. Dinarello; William P. Arend; John E. Sims; Dirk E. Smith; Hal Blumberg; Luke A. J. O'Neill; Raphaela Goldbach-Mansky; Theresa T. Pizarro; Hal M. Hoffman; Philip Bufler; Marcel F. Nold; Pietro Ghezzi; Alberto Mantovani; Cecilia Garlanda; Diana Boraschi; Anna Rubartelli; Mihai G. Netea; Jos W. M. van der Meer; Leo A. B. Joosten; Thomas Mandrup-Poulsen; Marc Y. Donath; Eli C. Lewis; Josef Pfeilschifter; Michael Martin; Michael Kracht; H. Muehl; Daniela Novick; Miodrag L. Lukic; Bruno Conti; Alan M. Solinger
To the Editor: Newly cloned interleukin 1 (IL-1) family members1–3 were originally given an IL-1 family (IL-1F) designation4, but as functions have now been elucidated for several of these5,6, we propose that each now be assigned an individual interleukin designation. IL-1F6, IL-1F8 and IL-1F9 are encoded by distinct genes but use the same receptor complex (IL-1Rrp2 and AcP), are proinflammatory and deliver nearly identical signals7–12. We propose these be designated IL-36α, IL-36β and IL-36γ, respectively. IL-1F5 also binds to IL-1Rrp2 but antagonizes those cytokines in a manner analogous to that used by IL-1Ra to antagonize IL-1α and IL-1β7–9. We propose that IL-1F5 be renamed IL-36Ra (for ‘receptor antagonist’). In the IL-1 nomenclature, IL-1Ra is used for the natural product, whereas IL-1ra is used for the recombinant product; therefore, IL-36Ra is appropriate for natural IL-1F5. IL-1F7 produces anti-inflammatory effects by suppressing innate immune responses; it does this by decreasing the production of inflammatory cytokines induced by Toll-like receptor agonists as well as that of IL-1 and tumor necrosis factor13,14. We propose this IL-1 family member be renamed IL-37. IL-1F7 has various splice forms1,2,15,16, of which IL-1F7b is the most studied. We propose that IL-1F7a, IL-1F7b and so on be renamed IL-37a, IL-37b and so on. The one remaining IL-1 family member, for which no function has yet been demonstrated, is IL-1F10; however, as evidence of its properties remains limited, we suggest that it retain its IL-1F designation until a function is clearly identified, although it might be prudent to reserve the designation IL-38 for this eventuality.
Diabetes Care | 2012
Claudia Cavelti-Weder; Andrea Babians-Brunner; Cornelia Keller; Marc A. Stahel; Malaika Kurz-Levin; Hany Zayed; Alan M. Solinger; Thomas Mandrup-Poulsen; Charles A. Dinarello; Marc Y. Donath
OBJECTIVE Metabolic activation of the innate immune system governed by interleukin (IL)-1β contributes to β-cell failure in type 2 diabetes. Gevokizumab is a novel, human-engineered monoclonal anti–IL-1β antibody. We evaluated the safety and biological activity of gevokizumab in patients with type 2 diabetes. RESEARCH DESIGN AND METHODS In a placebo-controlled, dose-escalation study, a total of 98 patients were randomly assigned to placebo (17 subjects) or gevokizumab (81 subjects) at increasing doses and dosing schedules. The primary objective of the study was to evaluate the safety profile of gevokizumab in type 2 diabetes. The secondary objectives were to assess pharmacokinetics for different dose levels, routes of administration, and regimens and to assess biological activity. RESULTS The study drug was well tolerated with no serious adverse events. There was one hypoglycemic event whereupon concomitant insulin treatment had to be reduced. Clearance of gevokizumab was consistent with that for a human IgG2, with a half-life of 22 days. In the combined intermediate-dose group (single doses of 0.03 and 0.1 mg/kg), the mean placebo-corrected decrease in glycated hemoglobin was 0.11, 0.44, and 0.85% after 1, 2 (P = 0.017), and 3 (P = 0.049) months, respectively, along with enhanced C-peptide secretion, increased insulin sensitivity, and a reduction in C-reactive protein and spontaneous and inducible cytokines. CONCLUSIONS This novel IL-1β–neutralizing antibody improved glycemia, possibly via restored insulin production and action, and reduced inflammation in patients with type 2 diabetes. This therapeutic agent may be able to be used on a once-every-month or longer schedule.
Diabetes Care | 2011
Claudia Cavelti-Weder; Romana Furrer; Cornelia Keller; Andrea Babians-Brunner; Alan M. Solinger; Heidemarie Gast; Adriano Fontana; Marc Y. Donath; Iris Katharina Penner
Several diseases including microbial infection, rheumatoid arthritis, multiple sclerosis, and cancer have been linked to fatigue. They all have in common an upregulation of cytokines, including interleukin (IL)-1β and tumor necrosis factor-α (TNF-α), which may interfere with clock gene functions (1). Increasing evidence associates type 2 diabetes with inflammatory processes characterized by elevated production of proinflammatory cytokines and infiltration of immune cells. Reducing IL-1 activity in prediabetes and diabetes improves insulin secretion, glycemic control, and markers of systemic inflammation (2–4). Given this background, we hypothesized that fatigue levels may be increased in type 2 diabetes and may be improved by IL-1β antagonism. Within a placebo-controlled, double-blind study of IL-1β antagonism with a monoclonal anti–IL-1β …
Cancer Research | 2010
John A. Lust; Laurie Moon-Tasson; Alan M. Solinger; Kathleen A. Donovan
Background: IL-6 is a central myeloma growth factor and in vitro abnormal production of IL-1beta in the myeloma microenvironment stimulates the generation of paracrine IL-6. Mimicking in vitro observations, we have shown that responsive early stage myeloma patients at risk for progression to active myeloma who were treated with IL-1 inhibitors demonstrated decreases in the myeloma proliferative rate and C-reactive protein (IL-6 surrogate marker) leading to a chronic disease state with an improved progression free survival. In this study we investigated the effect of XOMA 052, a humanized anti-IL-1 antibody to inhibit stromal cell IL-6 production induced by either recombinant IL-1beta or supernatants generated from unsorted bone marrow cells from patients with smoldering multiple myeloma. Methods: Bone marrow stromal cells were incubated with varying concentrations of recombinant IL-1β (100, 10, 1, 0.1 pg/ml) in the absence or presence of anti-IL-1 antibody, anti-TNF antibody, or dexamethasone. In a similar fashion, supernatants from unsorted bone marrow cells from six patients with smoldering myeloma were co-cultured with bone marrow stromal cells and the effect of the humanized anti-IL-1β antibody was tested. Results: The anti-IL-1β antibody inhibited the IL-1 induced IL-6 production in vitro by > 85% at 100 pg/ml of IL-1 and > 90% at 10, 1, and 0.1 pg/ml of IL-1; specifically, using 10 pg/ml of IL-1, IL-6 production was inhibited from 149 down to 5.2 ng/ml in the presence of anti-IL-1 antibody. Anti-TNF antibody had minimal effect. At 10 pg/ml of IL-1 beta, a physiologically relevant amount of IL-1 in vitro in bone marrow samples from myeloma patients, the anti-IL-1 antibody was superior to dexamethasone at inhibition of IL-6 production. In in vitro testing of patient supernatants from unsorted bone marrow cells, three patients were high inducers and three patients low inducers of paracrine IL-6 production. The results demonstrate > 85% reduction of IL-6 production in all patients9 samples tested. Importantly, the anti-IL-1β antibody was highly effective in samples from the three patients who were high inducers of paracrine IL-6 production (IL-6 production was inhibited from 191 down to 12 ng/ml; 157 to 13 ng/ml and 320 to 11 ng/ml). In comparison, the anti-TNF antibody had marginal effects. Conclusion: The humanized anti-IL-1beta antibody is highly effective in vitro at the inhibition of IL-6 generated by supernatant cultures from patients with early stage myeloma or by recombinant IL-1. Combination therapy with IL-1 inhibitors and apoptosis inducing agents may be useful in patients with active myeloma that have elevated IL-6 levels and a high growth rate at diagnosis. Citation Format: {Authors}. {Abstract title} [abstract]. In: Proceedings of the 101st Annual Meeting of the American Association for Cancer Research; 2010 Apr 17-21; Washington, DC. Philadelphia (PA): AACR; Cancer Res 2010;70(8 Suppl):Abstract nr 2449.
Archive | 2008
Alan M. Solinger
Archive | 2009
Alan M. Solinger; Alexander Owyang
Archive | 2010
Alan M. Solinger; Patrick J. Scannon; Robert J. Bauer
Archive | 2010
Patrick J. Scannon; Alan M. Solinger; Jeffrey D. Feldstein
Archive | 2009
Patrick J. Scannon; Alan M. Solinger; Robert J. Bauer
Archive | 2010
Alan M. Solinger; Patrick J. Scannon; Robert J. Bauer; David Alleva