AI technologies like deep learning, machine learning and natural language processing have the potential to address many of the challenges that traditionally plague drug R&D – accelerating molecule design and testing, streamlining essential processes, improving chances of clinical success, and reducing costs throughout the development pipeline.
AI technologies like deep learning, machine learning and natural language processing have the potential to address many of the challenges that traditionally plague drug R&D – accelerating molecule design and testing, streamlining essential processes, improving chances of clinical success, and reducing costs throughout the development pipeline.
BIOiSIM is a first-in-class decision-making engine that can take your toughest questions and generate answers to guide your next steps at any stage of drug development. With the acquisition of Molomics, it will be powered by one of the largest and fastest growing inferential search spaces in existence, encompassing over 1 trillion compounds.
BIOiSIM is a first-in-class decision-making engine that can take your toughest questions and generate answers to guide your next steps at any stage of drug development. With the acquisition of Molomics, it will be powered by one of the largest and fastest growing inferential search spaces in existence, encompassing over 1 trillion compounds.
In today’s complex world, we truly only understand a tiny fraction of biology. When performing clinical trials, scientists/researchers must figure out ways to develop methods to effectively represent a whole with a subset or sampling due to costs and time. These methodologies, when done correctly, are all based on statistical methods. This is true for population genetics and patient stratification for clinical trials and studies.
In today’s complex world, we truly only understand a tiny fraction of biology. When performing clinical trials, scientists/researchers must figure out ways to develop methods to effectively represent a whole with a subset or sampling due to costs and time. These methodologies, when done correctly, are all based on statistical methods. This is true for population genetics and patient stratification for clinical trials and studies.
Biomarker Discovery & Validation Biomarker discovery is defined as the process in which biological markers, or “biomarkers” for short, are evaluated and measured. This process begins with defining a biological process and analyzing for different types of biomarkers. These can be prognostic, diagnostic, or predictive to determine treatment efficacy or monitor patient safety. Expanding upon this definition, the World Health Organization defines this term as "almost any measurement reflecting an interaction between a biological system and a potential hazard, which may be chemical, physical, or biological.” Biomarkers are also an integral part of drug development as they help accurately determine drug safety and efficacy. In contemporary medicine, many clinical decisions are based upon laboratory test results. According to the Centers for Disease Control, these tests account for 70% of clinical decisions.
Biomarker Discovery & Validation Biomarker discovery is defined as the process in which biological markers, or “biomarkers” for short, are evaluated and measured. This process begins with defining a biological process and analyzing for different types of biomarkers. These can be prognostic, diagnostic, or predictive to determine treatment efficacy or monitor patient safety. Expanding upon this definition, the World Health Organization defines this term as "almost any measurement reflecting an interaction between a biological system and a potential hazard, which may be chemical, physical, or biological.” Biomarkers are also an integral part of drug development as they help accurately determine drug safety and efficacy. In contemporary medicine, many clinical decisions are based upon laboratory test results. According to the Centers for Disease Control, these tests account for 70% of clinical decisions.