Answer:
Types of tissues:-
Nervous tissue, Epithelial tissue, Muscle tissue, and Connective tissue.
Explanation:
Nervous tissue is made up of nerve cells (neurons) and is used to carry "messages" to and from various parts of the body.
Examples are cells, neurons and glial cells.
Muscle tissue includes striated (also called voluntary) muscles that move the skeleton, and smooth muscle, such as the muscles that surround the stomach.
Examples are blood vessels, biceps and intestines.
Epithelial tissue provides a covering (skin, the linings of the various passages inside the body).
An example is the epidermis, the outermost layer of the skin and outerlayers on internal organs.
Connective tissue supports other tissues and binds them together (bone, blood, and lymph tissues).
Examples include adipose, cartilage, bone, blood, and lymph.
These waves are known as Alpha waves which have a regular pattern of 8-13 (hz)
Answer:
<u>Inducer</u>
<u></u>
Explanation:
Structural proteins within bacteria are encoded along with their functions. These are typically found in a block of genes called an operon. They undergo transcription together with the use of a single promoter sequence to form a polycystronic transcript- this allows for the simultaneous control and regulation of biochemical pathways. This is efficient as these pathways would either need to function together when "switched on" or will not be needed when "switched off". Repressors are proteins that effectively hinder translation by binding to DNA at the operator site, blocking the activity of RNA polymerase in transcription. However inducers are small molecules that can displace these, freeing up the operon for transcription and the activation of relevant biochemical pathways.
The mal operon includes genes which mediate the breakdown of the substrate maltose in bacterial cells. Maltose, called a malt sugar, is a carbohydrate compound made up of two glucose molecules joined by an α-(1,4) glycosidic linkage.
In the presence of maltose, the inducer binds to the activator. This then allows for the binding of RNA polymerase, which facilitates translation and th epr
Answer:
Cellular differentiation is the process in which a cell changes from one cell type to another. Usually, the cell changes to a more specialized type. ... Differentiation continues in adulthood as adult stem cells divide and create fully differentiated daughter cells during tissue repair and during normal cell turnover.