What amino acid does the codon ACU code for?a. Threonine
B. Alanine
C. Tryptophan
D. Leucine

Answers

Answer 1
Answer: a. Threonine is the correct answer. 
Hope this helps
Answer 2
Answer:

Final answer:

The codon ACU codes for the amino acid Threonine, helping assemble proteins in the body.

Explanation:

In the science of molecular biology, codons represent the building block of proteins. Specifically, the codon ACU codes for the amino acid called Threonine. Amino acids are crucial for the assembly of proteins within the body, each codon coding for a specific amino acid. Hence, understanding this coding sequence helps us comprehend the role of genetics in protein formation.

Learn more about ACU codon here:

brainly.com/question/31961144

#SPJ6


Related Questions

What must animals do for celluar respiraton to begin
A runner is three quarters of the way through a marathon. Which systems are working to maintain oxygen levels for the runner's muscles?a. integumentary, excretory, nervous, endocrine b. circulatory, excretory, nervous, endocrine c. respiratory, excretory, nervous, endocrine d. circulatory, respiratory, nervous, endocrine
Which of these is most likely to produce heavy metal waste? A. Leather tannery B. Medical center C. Paper mill D. Oil refinery
The kidneys keep your body from losing too much water, sugar, or salt. TrueFalse
Why are atoms so important?

Which is characterized by an absence of jaws?

Answers

It's a Lamprey Sea Horses have fused jaws

the sea horse is characterized as the jawless fish

Why is the homeostasis of glucose important to the entire body and its cells?

Answers

Answer:

All cells get energy from glucose

Explanation:

The main source of energy for all the metabolic process and function of body organ individually and as one entity is glucose. Thus, there is essential requirement to transport glucose to all the cells within the body. Insulin and glucagon hormone regulates, control and facilitates the transmission and production of glucose. Both these hormones works opposite to each other, hence a proper balance is to be maintained for producing adequate amount of glucose

Euglena is microbial eukaryote that has chloroplasts and can thus perform phtosynthesis. When deprived of light and treated with specific chemicals in lab, the chloroplasts are completely destroyed. Based on the information above, if we re-expose Euglena to light what do you predict will happen?

Answers

Answer:  

Euglena have diversed nutritional requirements. They are autotrophic when kept in light and heterotrophic when deprived of light.

The Euglena contains chloroplast in it to perform photosynthesis in the presence of light.

When the Euglena is kept in the dark it starts deriving energy from the organic matter around it and shows heterotrophic mode of nutrition.

When light will be provided to Euglena it will start resynthesizes its photosynthetic pigment and it will start perform photosynthesis.

Final answer:

Re-exposure of Euglena to light after chloroplast destruction will not restore photosynthesis; instead, Euglena will continue to survive as a heterotroph until it possibly re-acquires chloroplasts through secondary endosymbiosis or other means.

Explanation:

When Euglena, a microbial eukaryote, is deprived of light and its chloroplasts are destroyed, reintroducing it to light will not prompt the immediate restoration of photosynthesis. Having lost their chloroplasts, they cannot simply regrow them upon exposure to light. Instead, Euglena will rely on its ability to behave as a heterotroph, acquiring nutrients and energy by ingesting or absorbing organic matter from its environment. Euglena is known as a mixotroph, which means it can switch between autotrophic (photosynthesizing) and heterotrophic lifestyles, depending on the available resources. Euglena stores energy in a glucose polymer different from typical starch, and this storage, along with other nutrients absorbed from the environment, can support them when photosynthetic capability is compromised.

Exposing inner mitochondrial membranes to ultrasonic vibrations will disrupt the membranes. However, the fragments will reseal "inside out." These little vesicles that result can still transfer electrons from NADH to oxygen and synthesize ATP. If the membranes are agitated further, however, the ability to synthesize ATP is lost. After the further agitation of the membrane vesicles, what must be lost from the membrane? A) the ability of NADH to transfer electrons to the first acceptor in the electron transport chain
B) the prosthetic groups like heme from the transport system
C) cytochromes
D) ATP synthase, in whole or in part
E) the contact required between inner and outer membrane surfaces

Answers

Answer:

After the further agitation of the membrane vesicles, the element that must be lost from the membrane Is:

D) ATP synthase, in whole or in part

Explanation:

In the process of cellular respiration, glucose molecules are broken down to drain energy from them and distribute it through the cell and its organelles to perform their activities. In this process, the ATP is produced as a product of the phenomenon of breaking down glucose to use it as a source of energy. Producing the oxidative phosphorylation that the electrons and several proteins to embedded inside the mitochondria. Making the ATP be lost completely or in a fraction in the membrane to complete the process.

In which part of the body is glycogen stored? liver blood pancreas exoskeleton

Answers

Answer:

The correct answer is -liver

Explanation:

Glycogen in the body is mainly stored in the liver and muscle tissue because of the action of insulin. They provide a source of energy which can be easily available in case of shortage of blood glucose in our body.

When glucose becomes deficient in the blood, level of glucagon hormone increases in the body which helps in release the glycogen from the liver in the blood in the form of glucose which provide energy to the body.

The liver can accumulate glycogen up to 5-6% of its fresh weight, therefore, the correct answer is first i.e., glycogen.

Glycogen is stored in the liver.

All cells contain ion pumps that use the energy of atp hydrolysis to pump ions across the plasma membrane. These pumps create an electrochemical gradient across the plasma membrane that is used to power other processes at the plasma membrane

Answers

Answer:

Facilitated diffusion

Explanation:

  • Facilitated diffusion pumps polar and charged molecules, such as carbohydrates, amino acids, nucleosides, and ions, cross the plasma membrane.
  • As sodium ion concentrations build outside the plasma membrane because of the action of the primary active transport process, an electrochemical gradient is created