Cutting-Edge Immunology Research

Discover our groundbreaking studies in immunology, biomedical engineering, and vaccine development that are shaping the future of healthcare.

Explore Our Research
Blood filter microscopy

Development of Blood-Endothelium-Resistant Filters

Advanced filtration systems resistant to endothelial interference, ensuring pore integrity remains uncompromised during high-pressure blood filtration.

June 2023 Biomedical
Freeze-dried ice cream

Pathogenic Risks in Returned Freeze-Dried Ice Cream

Freeze-drying returned ice cream can preserve harmful bacteria, posing serious health threats due to insufficient thermal inactivation during processing.

March 2023 Microbiology
Immunotherapy

Novel Immunotherapy Approaches for Autoimmune Disorders

Exploring targeted immunomodulation techniques to treat autoimmune conditions without compromising overall immune function.

January 2023 Immunology
Vaccine development

Next-Generation Vaccine Delivery Systems

Development of nanoparticle-based delivery platforms for enhanced vaccine stability and targeted immune response.

November 2022 Vaccinology
Genetic research

Genetic Markers of Immune Response Variability

Identification of key genetic polymorphisms associated with differential immune responses to common pathogens.

September 2022 Genetics
Plant immunity

Plant Immune System Activation Pathways

Characterization of molecular mechanisms underlying plant immune responses to bacterial pathogens.

July 2022 Plant Immunity

Development of Blood-Endothelium-Resistant Filters

Biomedical June 2023
Blood filter microscopy

Abstract

Our research focuses on developing advanced blood filtration systems that maintain structural integrity when exposed to endothelial cells under high-pressure conditions. Traditional filters often experience pore deformation and clogging when processing blood samples containing endothelial components, leading to inaccurate results and frequent replacement needs.

Methodology

We engineered a novel composite material combining:

  • Nanostructured polymer matrix with shape memory properties
  • Hydrophilic surface modifications to reduce cell adhesion
  • Precision laser-etched pore architecture with reinforced edges

Results

The new filter design demonstrated:

  1. 87% reduction in pore deformation after 100 high-pressure cycles
  2. 73% decrease in endothelial cell adhesion compared to standard filters
  3. Consistent filtration efficiency maintained over 500ml of processed blood

Applications

This technology has significant potential in:

  • Hemodialysis equipment
  • Blood transfusion filtration systems
  • Point-of-care diagnostic devices
  • Extracorporeal membrane oxygenation (ECMO) circuits

Future Directions

We are currently exploring:

  • Integration with smart sensors for real-time pore monitoring
  • Antimicrobial surface treatments to prevent biofilm formation
  • Scalable manufacturing processes for clinical adoption

Pathogenic Risks in Returned Freeze-Dried Ice Cream

Microbiology March 2023
Freeze-dried ice cream research

Abstract

This study investigates the potential health risks associated with freeze-drying returned ice cream products. Our findings reveal that certain pathogenic bacteria can survive the freeze-drying process, creating potential health hazards when these products are reintroduced into the food supply chain.

Methodology

We conducted:

  • Microbiological analysis of 120 returned ice cream samples
  • Simulated freeze-drying processes under various conditions
  • Viability testing of common foodborne pathogens post-processing

Results

Key findings include:

  1. 15% of samples contained viable pathogens after freeze-drying
  2. Listeria monocytogenes showed particular resistance to the process
  3. Standard quality control measures failed to detect these risks

Implications

This research has important implications for:

  • Food safety regulations for returned products
  • Freeze-drying process optimization
  • Quality control protocols in the food industry

Novel Immunotherapy Approaches for Autoimmune Disorders

Immunology January 2023
Immunotherapy research

Abstract

Our team has developed innovative immunotherapy techniques that selectively modulate immune responses in autoimmune disorders without causing generalized immunosuppression. This approach represents a significant advancement over current treatments that often compromise overall immune function.

Methodology

The research involved:

  • Identification of disease-specific autoantigens
  • Development of targeted antigen-presenting cell modulators
  • Preclinical testing in animal models of autoimmune disease

Results

Our approach demonstrated:

  1. 80% reduction in disease symptoms in test models
  2. No measurable suppression of normal immune responses
  3. Long-lasting effects from a single treatment course

Potential Applications

This technology could revolutionize treatment for:

  • Rheumatoid arthritis
  • Multiple sclerosis
  • Type 1 diabetes
  • Other autoimmune conditions

Get In Touch

Connect with me for research collaborations, speaking engagements, or scientific discussions.

Research Center, istanbul, turkey

mehrdad.etemad1988@gmail.com

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