In this webinar, Dr. Bastiaan Krom, Professor at the Academic Centre for Dentistry Amsterdam, University of Amsterdam, will illustrate the power of dynamic visualization of microbial biofilms as he discusses the results of his laboratory’s elucidation of time-dependent processes in microbial biofilms.
Dr. David Largaespada presents data from his laboratory where his team is using CellRaftA microscale polystyrene growth surface within an array used to spatially segregate cells/colonies while maintaining shared media access, enabling imaging over time and targeted isolation. More AIR technology to rapidly develop cancer models for treatment research.
Adhesion and aggregation reaction of platelets are critical processes in hemostasis, preventing excessive bleeding following vascular injury. Generally, circulating platelets have a lifespan of about 10-12 days, after which they undergo programmed cell death or necrosis and are taken up by macrophages. Importantly, abnormal platelet adhesion to the vessel wall can lead to thrombosis, resulting in pathological clot formation and contributing to conditions such as heart attack or stroke. In this webinar, Dr. Mohammad Ekhlak of the Center for Advanced Research on Platelet Signaling and Thrombosis Biology at the Institute of Medical Sciences, Banaras Hindu University will discuss high throughput evaluation of the effects of novel drugs on physiological thrombosis formation.
Dr. Ekhalk shares insights on:
1. In vitro modeling of physiological platelet plug formation
2. Antiplatelet/antithrombotic effects of novel pharmaceuticals
3. Signaling mechanisms of thrombosis
BioFlux shear flow systems enhance the throughput and quality of cultures and assays by adding physiological and pathological shear flow to effectively emulate in vivo conditions.
In this demonstration, Dr. Stephanie Proano will highlight the BioFlux system features and benefits and conduct a live demonstration of BioFlux performance.
Reprogramming and differentiating patient-derived and genetically modified hiPSCs are crucial for developing accurate disease models and therapeutics. However, traditional hiPSC methods can be inefficient and
If working with difficult cells is making your gene-editing or cell development unbearable, join Dr. Hartman in the lab in this virtual demo. This is
In this webinar, Dr. Bastiaan Krom, Professor at the Academic Centre for Dentistry Amsterdam, University of Amsterdam, will illustrate the power of dynamic visualization of microbial biofilms as he discusses the results of his laboratory’s elucidation of time-dependent processes in microbial biofilms.
Dr. David Largaespada presents data from his laboratory where his team is using CellRaft AIR technology to rapidly develop cancer models for treatment research.
Adhesion and aggregation reaction of platelets are critical processes in hemostasis, preventing excessive bleeding following vascular injury. Generally, circulating platelets have a lifespan of about 10-12 days, after which they undergo programmed cell death or necrosis and are taken up by macrophages. Importantly, abnormal platelet adhesion to the vessel wall can lead to thrombosis, resulting in pathological clot formation and contributing to conditions such as heart attack or stroke. In this webinar, Dr. Mohammad Ekhlak of the Center for Advanced Research on Platelet Signaling and Thrombosis Biology at the Institute of Medical Sciences, Banaras Hindu University will discuss high throughput evaluation of the effects of novel drugs on physiological thrombosis formation.
Dr. Ekhalk shares insights on:
1. In vitro modeling of physiological platelet plug formation
2. Antiplatelet/antithrombotic effects of novel pharmaceuticals
3. Signaling mechanisms of thrombosis
BioFlux shear flow systems enhance the throughput and quality of cultures and assays by adding physiological and pathological shear flow to effectively emulate in vivo conditions.
In this demonstration, Dr. Stephanie Proano will highlight the BioFlux system features and benefits and conduct a live demonstration of BioFlux performance.
Reprogramming and differentiating patient-derived and genetically modified hiPSCs are crucial for developing accurate disease models and therapeutics. However, traditional hiPSC methods can be inefficient and
If working with difficult cells is making your gene-editing or cell development unbearable, join Dr. Hartman in the lab in this virtual demo. This is
