Molecular-level structure is vital in the design and use of materials mostly at the macroscopic-stage. The structure of a molecule is known to influence how it interacts with other molecules.
Note that Attractive and repulsive forces are the ones that plays a vital role in the total properties of matter seen on the scale.
Molecular structure is known to be the one that helps us to know more about Nature's intricate design methods and blueprints. When we know the blueprints and basic materials, we can then try to mimic her essential products that are cost effective and the ones that has less harmful environmental effects.
<h3>What is the Difference between bonding forces and intermolecular forces ?</h3>
The Difference between bonding forces and intermolecular forces is that Intermolecular forces are known to be forces that are said to hold two or more molecules as one while a chemical bond is known to be an attractive force that exist between two or more atoms.
The types of chemical bonding and intermolecular forces that materials have are:
For Chemical bonds they are:
- Covalent
- Polar covalent
- Ionic bonds
For Intermolecular forces, the three types are van der Waals forces are:
- Dispersion forces.
- Permanent dipole-dipole forces.
- Hydrogen bonding.
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A Euglena is green in color because it has chloroplasts which contains chlorophyll contributing to the green color of the organism. Euglena are organisms that are single-celled which are found in fresh water. The specialized body structure located at the base of the tail is called the flagella which are used by these organisms to move in water.
<span>Bones are connected to muscles via tendons. When a muscle contracts or relaxes the tendon will pull on a bone</span>
Yes, the different frequencies of evolutionary change could affect allele frequency in a population.
<h3>What are the agents of evolutionary change? </h3>
All populations are usual in a constant state of evolution. This means that all the species are continuously changing their genetic makeup over different generations. These changes can be subtle or they can be spontaneous.
If a population is not evolving, it is said to be in Hardy - Weinberg state. In this state, the allele frequency and the genetic makeup of the population will remain the same across generations.
The agents of evolutionary change defy the Hardy - Weinberg state. These are mutation, gene flow, non-random mating, natural selection and genetic drift.
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