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Featured researches published by Brian M. Strem.


Journal of Surgical Research | 2009

Adipose Tissue-Derived Cells Improve Cardiac Function Following Myocardial Infarction

Katja Schenke-Layland; Brian M. Strem; Maria C. Jordan; Michael T. DeEmedio; Marc H. Hedrick; Kenneth P. Roos; John K. Fraser; W. Robb MacLellan

BACKGROUND Adipose tissue consists of mature adipocytes and a mononuclear cell fraction termed adipose tissue-derived cells (ADCs). Within these heterogeneous ADCs exists a mesenchymal stem cell-like cell population, termed adipose tissue-derived stem cells. An important clinical advantage of adipose tissue-derived stem cells over other mesenchymal stem cell populations is the fact that they can be isolated in real time in sufficient quantity, such that ex vivo expansion is not necessary to obtain clinically relevant numbers for various therapeutic applications. MATERIALS AND METHODS The aim of this investigation was to evaluate the therapeutic potential of freshly isolated ADCs in treating rats acutely following myocardial infarction. Rats underwent 45 min of left anterior descending artery occlusion followed by reperfusion. Fifteen minutes post-myocardial infarction, saline or 5 x 10(6) ADCs from green fluorescent protein-expressing transgenic rats were injected into the chamber of the left ventricle. Left ventricular function and morphometry was followed with 2-D echocardiography for 12 wk, at which point hearts were harvested for histological analysis. RESULTS Twelve weeks following cell therapy, left ventricular end-diastolic dimension was less dilated while the ejection fraction and cardiac output of ADC-treated rats were significantly improved compared to control rats (P < 0.01). Despite this benefit, absolute engraftment rates were low. This paradox may be partially explained by ADC-induced increases in both capillary and arteriole densities. CONCLUSIONS These data confirm the therapeutic benefit of freshly isolated ADCs delivered post-MI and suggest a novel beneficial mechanism for ADCs through a potent proangiogenic effect.


Cytotherapy | 2005

Expression of cardiomyocytic markers on adipose tissue-derived cells in a murine model of acute myocardial injury

Brian M. Strem; Min Zhu; Zeni Alfonso; Eric Daniels; Ronda Schreiber; R. Begyui; W. R. MacLellan; Marc H. Hedrick; John K. Fraser

Animal and early clinical studies have provided evidence suggesting that intracoronary administration of autologous bone marrow-derived cells results in improved outcome following myocardial infarction. Animal studies with cultured marrow stromal cells (MSC) have provided similar data. Cells with properties that are similar to MSC have been identified in adipose tissue. Other groups have demonstrated in vivo differentiation of adipose tissue-derived cells (ADC) into cells exhibiting biochemical and functional markers of cardiac myocytes, including spontaneous beating. Based on these observations, the objective of the present study was to determine whether ADC might undergo similar differentiation in vivo in the context of myocardial injury.ADC were isolated from subcutaneous adipose tissue of Rosa26 mice (which express the beta-galactosidase transgene in almost every tissue) and injected into the intraventricular chamber of B6129S recipient mice immediately following induction of myocardial cryoinjury. Groups of recipients were euthanized at 24 hours, 7 and 14 days post surgery and examined for the presence of donor-derived cells within the heart.Beta-gal positive cells were identified in the infarcts of ADC-treated animals. No staining was observed in uninjured myocardium or in infarcts of control animals. Immunohistochemical analysis revealed co-expression of beta-gal with Myosin Heavy Chain, Nkx2.5 and with Troponin I. Co-expression of beta-galactosidase with Connexin 43, CD31, von Willebrand factor, MyoD or CD45 was not detected.Thus, these data indicate that adipose tissue contains a population of cells that has the ability to engraft injured myocardium and that this engraftment is associated with expression of cardiomyocytic markers by donor-derived cells.


The Keio Journal of Medicine | 2005

Multipotential differentiation of adipose tissue-derived stem cells

Brian M. Strem; Kevin C. Hicok; Min Zhu; Isabella Wulur; Zeni Alfonso; Ronda Schreiber; John K. Fraser; Marc H. Hedrick


Archive | 2011

METHOD OF USING ADIPOSE TISSUE-DERIVED CELL IN TREATMENT OF CARDIOVASCULAR CONDITION

Eric Daniels; John K. Fraser; Marc H. Hedrick; Brian M. Strem; Isabella Wulur; Min Zhu; ウルル イサベルラ; ダニエルス エリク; ケー. フラセル ジョフン; エム. ストレム ブリアン; エイチ. ヘドリクク マルク; ズフ ミン


Archive | 2005

The growing importance offat in regenerative medicine

Brian M. Strem; Marc H. Hedrick


Archive | 2005

Procedes d'utilisation de cellules derivees de tissus adipeux dans le traitement de maladies cardiovasculaires

John K. Fraser; Marc H. Hedrick; Min Zhu; Brian M. Strem; Eric Daniels; Isabella Wulur


Archive | 2005

Verfahren zur verwendung von aus fettgewebe stammenden zellen bei der behandlung von herz-kreislauf-leiden Suffer cardiovascular procedures for use of adipose-derived cells in the treatment of

John K. Fraser; Marc H. Hedrick; Min Zhu; Brian M. Strem; Eric Daniels; Isabella Wulur


Archive | 2005

Protheses chargees de cellules pour applications intraluminales regeneratives

Eric Daniels; Brian M. Strem; Susan Lynn Riley; Emedio Mike De; John K. Fraser; Marc H. Hedrick


Archive | 2005

Procedimiento de uso de células derivadas de tejido adiposo en el tratamiento de afecciones cardiovasculares.

Eric Daniels; John K. Fraser; Marc H. Hedrick; Brian M. Strem; Isabella Wulur; Min Zhu


Archive | 2004

Methodes d'utilisation de cellules derives de tissus adipeux dans le traitement d'etats cardiovasculaires

Eric Daniels; John K. Fraser; Marc H. Hedrick; Brian M. Strem; Isabella Wulur; Min Zhu

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Eric Daniels

University of California

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John K. Fraser

University of California

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Min Zhu

University of California

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R. Begyui

University of California

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