Seyed Mohammad Akrami | Genetics and Genomics | Best Researcher Award

Prof. Dr. Seyed Mohammad Akrami | Genetics and Genomics | Best Researcher Award

Prof. Tehran University of Medical Sciences Iran

šŸ“š Dr. Seyed Mohammad Akrami is a Professor of Medical Genetics at Tehran University of Medical Sciences (TUMS), Iran. With over two decades of experience, he has contributed significantly to genetic research, education, and clinical diagnostics. He specializes in molecular and cancer genetics, bioethics, and genetic counseling, actively advancing the field through innovative research and teaching.

Profile

Orcid

Education

šŸŽ“ Dr. Akrami earned his MD from Tehran University of Medical Sciences in 1995 and pursued a PhD in Genetics from Nottingham University, UK, in 2002. His PhD focused on ā€œDiagnostic Application of Human DNA Copy Number Analysis,ā€ using advanced techniques like MAPH, PCR, and Southern blotting.

Experience

šŸ„ Dr. Akrami has held various roles, including Assistant Professor at the Endocrine and Metabolism Research Center, Advisor at the Pasteur Institute of Iran, and Deputy for Strategic Planning at the Iran Red Crescent. He has been a full Professor at TUMS since 2023, teaching courses in molecular genetics, cancer genetics, and developmental genetics while supervising numerous research theses.

Research Interests

šŸ”¬ Dr. Akrami’s research revolves around molecular diagnostics, genetic counseling, and bioethics. He has contributed to understanding hereditary diseases like Holt-Oram syndrome, Charcot-Marie-Tooth disease, and cancer genetics, emphasizing innovative diagnostic methods.

Awards

šŸ† Dr. Akrami has received numerous accolades, including the ā€œBest Poster Prizeā€ at Nottingham University, a full PhD scholarship from the Iranian Ministry of Health, and grants for international research collaborations. His work is recognized both nationally and internationally.

Publications Top Notes:Ā 

šŸ“ Dr. Akrami has published extensively in prestigious journals. Below are selected works:

Detection of a large TBX5 deletion in a family with Holt-Oram syndrome

Journal of Medical Genetics, 2001; 38: e44.

Cited by 50 articles

DNA copy number analysis by Multiplex Amplifiable Probe Hybridization (MAPH)

Expert Review of Molecular Diagnostics, 2002; 2(4): 370-378.

Cited by 75 articles

Metabolic and clinical effects of Ramadan fasting in patients with type II diabetes

Journal of College of Physicians and Surgeons Pakistan, 2003; 13(6): 329-332.

Cited by 30 articles

Diagnostic value of frozen section examination in thyroid nodule surgery

Endocrine Pathology, 2003; 14(3): 263-268.

Cited by 45 articles

Gene dosage analysis by multiplex amplifiable probe hybridization

Methods in Molecular Medicine, 2004; 92: 125-139.

Cited by 60 articles

Genetics and Genomics

Genetics and Genomics

Introduction of Genetics and Genomics

Genetics and Genomics delve into the fundamental building blocks of life, exploring the intricacies of genetic information that shape the diversity of living organisms. From understanding hereditary traits to decoding the entire genomic makeup, these fields illuminate the genetic codes that govern life's complexities.

  1. Genetic Engineering:
    • Involves the manipulation of an organism's genes to achieve specific traits or outcomes. Genetic engineering has applications in medicine, agriculture, and industry, contributing to the development of genetically modified organisms (GMOs) and advanced gene therapies.
  1. Human Genomics:
    • Focuses on decoding and understanding the entire genetic makeup of the human species. Human genomics plays a crucial role in personalized medicine, disease risk assessment, and the exploration of genetic factors influencing health and well-being.
  1. Epigenetics:
    • Explores modifications to gene expression that do not involve changes in the underlying DNA sequence. Epigenetic factors influence how genes are activated or silenced and play a significant role in development, aging, and responses to environmental stimuli.
  1. Comparative Genomics:
    • Compares the genomes of different species to identify similarities and differences. Comparative genomics aids in understanding evolutionary relationships, tracing the origins of genes, and uncovering genetic factors contributing to species-specific traits.
  1. Functional Genomics:
    • Investigates the functions of genes and their interactions within a genome. Functional genomics employs various techniques, such as gene expression analysis and genome editing, to elucidate the roles genes play in cellular processes, development, and disease.

These subtopics showcase the breadth and depth of Genetics and Genomics, illustrating their profound impact on fields ranging from medicine and agriculture to evolutionary biology and beyond.

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