S. Reichstetter

发表

MICROCHIMERISM AFTER LIVER TRANSPLANTATION

R. Wassmuth, J. Kalden, B. Spriewald, 1998 .

Microchimerism after liver transplantation: prevalence and methodological aspects of detection.

R. Wassmuth, J. Kalden, B. Spriewald, 1998, Transplantation.

HLA class II tetramers: tools for direct analysis of antigen-specific CD4+ T cells.

H. Reijonen, J. Gebe, G. Nepom, 2002, Arthritis and rheumatism.

CD 4 Catalytic Subunit-Related Protein-Reactive Islet-Specific Glucose-6-Phosphatase

H. Reijonen, Junbao Yang, E. James, 2006 .

T Cells in Human Subjects + CD 4 Catalytic Subunit-Related Protein-Reactive Islet-Specific Glucose-6-Phosphatase

H. Reijonen, Junbao Yang, E. James, 2006 .

Islet-Specific Glucose-6-Phosphatase Catalytic Subunit-Related Protein-Reactive CD4+ T Cells in Human Subjects1

H. Reijonen, Junbao Yang, E. James, 2006, The Journal of Immunology.

Extending Residence Time and Stability of Peptides by Protected Graft Copolymer (PGC) Excipient: GLP-1 Example

S. Reichstetter, G. Castillo, E. Bolotin, 2011, Pharmaceutical Research.

Gliadin Antibodies in Adult Insulin-Dependent Diabetes - Autoimmune and Immunogenetic Correlates

K. Eriksson, R. Wassmuth, K. Eriksson, 2000, Autoimmunity.

Mutational analysis of critical residues determining antigen presentation and activation of HLA-DQ0602 restricted T-cell clones.

Andrew W. Liu, G. Nepom, W. Kwok, 2002, Human immunology.

MHC-peptide ligand interactions establish a functional threshold for antigen-specific T cell recognition.

G. Nepom, W. Kwok, D. Koelle, 1999, Human immunology.

Distinct T Cell Interactions with HLA Class II Tetramers Characterize a Spectrum of TCR Affinities in the Human Antigen-Specific T Cell Response1

Andrew W. Liu, J. Gebe, G. Nepom, 2000, The Journal of Immunology.

Impaired binding of a DQ2 and DQ8-binding HSV VP16 peptide to a DQA1*0501/DQB1*0302 trans class II heterodimer.

G. Nepom, W. Kwok, S. Reichstetter, 1999, Tissue antigens.

Antigen-Specific T Cell TCR Affinities in the Human II Tetramers Characterize a Spectrum of Distinct T Cell Interactions with HLA Class

Andrew W. Liu, G. Nepom, W. Kwok, 2000 .

Protected Graft Copolymer Excipient Leads to a Higher Acute Maximum Tolerated Dose and Extends Residence Time of Vasoactive Intestinal Peptide Significantly Better than Sterically Stabilized Micelles

I. Rubinstein, S. Reichstetter, D. Bloedow, 2012, Pharmaceutical Research.

Comparative analysis of sequence variability in the upstream regulatory region of the HLA-DQB1 gene

R. Wassmuth, J. Kalden, S. Reichstetter, 2004, Immunogenetics.

DQB1 promoter sequence variability and linkage in caucasoids.

R. Wassmuth, J. Kalden, G. Brünnler, 1996, Human immunology.

Cytotoxic herpes simplex type 2‐specific, DQ0602‐restricted CD4+ T‐cell clones show alloreactivity to DQ0601

Andrew W. Liu, W. Kwok, S. Reichstetter, 2006, Immunology.

Extending Residence Time and Stability of Peptides by Protected Graft Copolymer (PGC) Excipient: GLP-1 Example

S. Reichstetter, G. Castillo, E. Bolotin, 2011, Pharmaceutical Research.

Protected Graft Copolymer Excipient Leads to a Higher Acute Maximum Tolerated Dose and Extends Residence Time of Vasoactive Intestinal Peptide Significantly Better than Sterically Stabilized Micelles

A. Lyubimov, I. Rubinstein, S. Reichstetter, 2013, Pharmaceutical Research.

Protected Graft Copolymer (PGC) Basal Formulation of Insulin as Potentially Safer Alternative to Lantus® (Insulin-Glargine): A Streptozotocin-Induced, Diabetic Sprague Dawley Rats Study

A. Lyubimov, S. Reichstetter, Manshun Lai, 2012, Pharmaceutical Research.

Protected Graft Copolymer (PGC) Basal Formulation of Insulin as Potentially Safer Alternative to Lantus® (Insulin-Glargine): A Streptozotocin-Induced, Diabetic Sprague Dawley Rats Study

A. Lyubimov, S. Reichstetter, Manshun Lai, 2011, Pharmaceutical Research.