Biophysical

Biophysical techniques such as nuclear magnetic resonance spectroscopy can be used to study protein-ligand interactions.

Biophysical techniques are used to study the effects of pollutants on aquatic organisms.

The biophysical properties of water were analyzed to understand its role in the environment.

Biophysical measurements can be used to study the mechanical properties of tissues.

Biophysical properties of soil, such as porosity and permeability, affect plant growth.

The biophysical experiment measured the electrical activity of the brain.

Biophysical research is essential for understanding the fundamental processes that underlie life.

The biophysical properties of soil affect crop yields.

Biophysical principles are used to design artificial limbs that can mimic the movements of natural limbs.

Biophysical research has shown that exercise can improve cognitive function.

Biophysical simulations can help predict the folding of proteins in silico.

The biophysical properties of soil determine the growth of crops and their yields.

Biophysical studies of the environment can help predict the impact of climate change.

Biophysical techniques were used to study the mechanical properties of cells.

The biophysical model of the brain seeks to explain cognitive processes through the interactions of neurons and their physical properties.

Biophysical studies help us understand how proteins interact with each other.

Biophysical techniques such as X-ray crystallography are commonly used in structural biology research.

The biophysical mechanisms underlying muscle contraction are complex but well understood.

The biophysical model predicts the movement of air masses in the atmosphere.

Biophysical measurements can be used to diagnose cardiovascular disease.

Understanding the biophysical properties of ocean currents is crucial for predicting weather patterns.

The biophysical properties of soil determine its ability to support plant growth.

Biophysical models can be used to study the dynamics of ecosystems.

Biophysical simulations can help understand the behavior of molecules in solution.

Biophysical properties of the cell membrane determine its function.

The biophysical properties of a protein determine its functionality.

Biophysical principles can be applied to design new drug molecules.

Biophysical measurements can help diagnose and monitor diseases such as diabetes.

The biophysical properties of soil determine its ability to retain water and support plant growth.

The biophysical properties of membrane proteins can be studied using x-ray crystallography.

The biophysical characteristics of the cell membrane are essential for cell communication.

Biophysical methods are used to study protein interactions.

Biophysical studies on the behavior of cells can provide insights into disease mechanisms.

Biophysical properties of the cell membrane play a crucial role in drug delivery.

Biophysical measurements of muscle activity can help diagnose neuromuscular disorders.

Biophysical measurements can be used to determine the structure of proteins.

Biophysical experiments were conducted to determine the effectiveness of a new drug.

Biophysical modeling is used to study the behavior of complex biological systems.

Biophysical models can help predict how changes in climate will affect ecosystems.

Biophysical methods like X-ray crystallography and NMR spectroscopy can be used to study protein structures.

The biophysical properties of a protein affect its function in the body.

Biophysical factors such as temperature and pH affect the growth of microorganisms.

Biophysical models can predict the spread of infectious diseases in a population.

The biophysical model predicted the spread of the disease in the population.

Biophysical methods such as X-ray crystallography can be used to study the structure of molecules.

The biophysical properties of the soil affect the growth of the plants.

Biophysical analysis of DNA provides insights into its structural and functional properties.

Biophysical techniques were used to investigate the behavior of molecules in solution.

The biophysical interactions between proteins are essential for understanding the mechanism of enzyme catalysis.

Biophysical models are used to simulate the behavior of neurons in the brain.