Jim Kaufman

Dr. Jim Kaufman

orcid

Research Focus & Metrics

Academic Career Length

50Years (1977-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 September 1991 in Cell
Verified
Journal Article
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DCDominic Cosgrove
Dominic Cosgrove
DGDavid Gray
David Gray
ADAndrée Dierich
Andrée Dierich
JKJim Kaufman
Jim Kaufman
MLMarianne Lemeur
Marianne Lemeur
DMDiane Mathis
Diane Mathis

1 January 1984 in Cell
Verified
Journal Article
Closed access
JKJim Kaufman
Jim Kaufman
CAC Auffray
C Auffray
AKA Korman
A Korman
DSD Shackelford
D Shackelford
JSJ Strominger
J Strominger

1 October 1999 in Nature
Verified
Journal Article
Closed access
PDF file
JKJim Kaufman
Jim Kaufman
SMSarah Milne
Sarah Milne
TGThomas W. F. Göbel
Thomas W. F. Göbel
Brian WalkerBrian Walker
Brian Walker
JJJansen P. Jacob
Jansen P. Jacob
SBStephan Beck
Stephan Beck

1 February 1995 in Immunological Reviews
Verified
Journal Article
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JKJim Kaufman
Jim Kaufman
HVHeiner Völk
Heiner Völk
HWHans‐Joachim Wallny
Hans‐Joachim Wallny

1 July 2000 in Cytogenetic and Genome Research
Verified
Journal Article
Closed access
PDF file
MSM. Schmid
M. Schmid
INI. Nanda
I. Nanda
MGM. Guttenbach
M. Guttenbach
CSC. Steinlein
C. Steinlein
MHM. Hoehn
M. Hoehn
SMS. Mizuno
S. Mizuno

1 August 2005 in Journal of Interferon & Cytokine Research
Verified
Journal Article
Closed access
PKPete Kaiser
Pete Kaiser
TPTuang Yeow Poh
Tuang Yeow Poh
LRLisa Rothwell
Lisa Rothwell
SAStuart Avery
Stuart Avery
SBSucharitha Balu
Sucharitha Balu
JYJohn R. Young
John R. Young
As most mechanisms of adaptive immunity evolved during the divergence of vertebrates, the immune systems of extant vertebrates represent different successful variations on the themes initiated in their earliest common ancestors. The genes involved in elaborating these mechanisms have been subject to exceptional selective pressures in an arms race with highly adaptable pathogens, resulting in highly divergent sequences of orthologous genes and the gain and loss of members of gene families as different species find different solutions to the challenge of infection. Consequently, it has been difficult to transfer to the chicken detailed knowledge of the molecular mechanisms of the mammalian immune system and, thus, to enhance the already significant contribution of chickens toward understanding the evolution of immunity. The availability of the chicken genome sequence provides the opportunity to resolve outstanding questions concerning which molecular components of the immune system are shared between mammals and birds and which represent their unique evolutionary solutions. We have integrated genome data with existing knowledge to make a new comparative census of members of cytokine and chemokine gene families, distinguishing the core set of molecules likely to be common to all higher vertebrates from those particular to these 300 million-year-old lineages. Some differences can be explained by the different architectures of the mammalian and avian immune systems. Chickens lack lymph nodes and also the genes for the lymphotoxins and lymphotoxin receptors. The lack of functional eosinophils correlates with the absence of the eotaxin genes and our previously reported observation that interleukin- 5 (IL-5) is a pseudogene. To summarize, in the chicken genome, we can identify the genes for 23 ILs, 8 type I interferons (IFNs), IFN-γ, 1 colony-stimulating factor (GM-CSF), 2 of the 3 known transforming growth factors (TGFs), 24 chemokines (1 XCL, 14 CCL, 8 CXCL, and 1 CX3CL), and 10 tumor necrosis factor superfamily (TNFSF) members. Receptor genes present in the genome suggest the likely presence of 2 other ILs, 1 other CSF, and 2 other TNFSF members.