Messenger RNA (mRNA) carries the genetic information copied from DNA in the form of a series of three-base code “words,” each of which specifies a particular amino acid.

transfer RNA (tRNA)

Messenger RNA (mRNA) copies the genetic instructions from DNA in the nucleus, and carries the instructions to the cytoplasm. 2. Ribosomal RNA (rRNA) helps form ribosomes, the organelle where proteins are assembled.

Messenger RNA (mRNA) is a single-stranded RNA molecule that is complementary to one of the DNA strands of a gene. The mRNA is an RNA version of the gene that leaves the cell nucleus and moves to the cytoplasm where proteins are made.

The type of RNA that contains the information for making a protein is called messenger RNA (mRNA) because it carries the information, or message, from the DNA out of the nucleus into the cytoplasm. Translation, the second step in getting from a gene to a protein, takes place in the cytoplasm.

Messenger RNA provides the ribosome with the blueprints for building proteins. Amino acids are the building blocks of proteins. Each amino acid in a protein is delivered to the ribosome by yet another type of RNA: transfer RNA (tRNA).

However, the information needed to make proteins is stored in DNA molecules. You can’t make new proteins without DNA, and you can’t make new DNA without proteins. If RNA could catalyse reactions as well as storing information, some RNA molecules might be capable of making more RNA molecules.

Protein synthesis is the process in which cells make proteins. It occurs in two stages: transcription and translation. Translation occurs at the ribosome, which consists of rRNA and proteins. In translation, the instructions in mRNA are read, and tRNA brings the correct sequence of amino acids to the ribosome.

mRNA’s role in protein synthesis Through a process known as transcription, an RNA copy of a DNA sequence for creating a given protein is made. This copy – mRNA – travels from the nucleus of the cell to the part of the cell known as the cytoplasm, which houses ribosomes.

Protein synthesis is the process all cells use to make proteins, which are responsible for all cell structure and function. There are two main steps to protein synthesis. In transcription, DNA is copied to mRNA, which is used as a template for the instructions to make protein.

transfer

The ribosome is universally responsible for synthesizing proteins by translating the genetic code transcribed in mRNA into an amino acid sequence. Ribosomes use cellular accessory proteins, soluble transfer RNAs, and metabolic energy to accomplish the initiation, elongation, and termination of peptide synthesis.

In the synthesis of protein, three types of RNA are required. The first is called ribosomal RNA (rRNA) and is used to manufacture ribosomes. Ribosomes are ultramicroscopic particles of rRNA and protein where amino acids are linked to one another during the synthesis of proteins.

Ribosomes are made up of ribosomal proteins and ribosomal RNA (rRNA). In prokaryotes, ribosomes are roughly 40 percent protein and 60 percent rRNA. In eukaryotes, ribosomes are about half protein and half rRNA.

Ribosomes have two main functions — decoding the message and the formation of peptide bonds. These two activities reside in two large ribonucleoprotein particles (RNPs) of unequal size, the ribosomal subunits. Each subunit is made of one or more ribosomal RNAs (rRNAs) and many ribosomal proteins (r-proteins).

A ribosome, formed from two subunits locking together, functions to: (1) Translate encoded information from the cell nucleus provided by messenger ribonucleic acid (mRNA), (2) Link together amino acids selected and collected from the cytoplasm by transfer ribonucleic acid (tRNA).

Ribosomes consist of two subunits that fit together (Figure 2) and work as one to translate the mRNA into a polypeptide chain during protein synthesis (Figure 1). Because they are formed from two subunits of non-equal size, they are slightly longer in the axis than in diameter.

A Golgi body, also known as a Golgi apparatus, is a cell organelle that helps process and package proteins and lipid molecules, especially proteins destined to be exported from the cell. Named after its discoverer, Camillo Golgi, the Golgi body appears as a series of stacked membranes.

The Golgi apparatus, also called Golgi complex or Golgi body, is a membrane-bound organelle found in eukaryotic cells (cells with clearly defined nuclei) that is made up of a series of flattened stacked pouches called cisternae. It is located in the cytoplasm next to the endoplasmic reticulum and near the cell nucleus.

Why is the Golgi Apparatus the most important organelle? The main function of Golgi apparatus is to carry out the processing of proteins generated in the ER. Golgi apparatus also transports protein to the different parts of cell. Cells synthesize a large number of different macromolecules required for life.

Without a Golgi apparatus, there would be no lysosomes in a cell. Subsequently, the cell would not be able to digest or break down the materials left over from protein creation. This would create a lot of excess junk within the cell. If this happened, the cell wouldn’t be able to live for very long.

When Golgi apparatus is removed from the cell,the modification of lipid and protein molecules synthesized by the cell is stopped. These modifications lead to the formation of functional forms of enzymes, hormones and other intracellular and extracellular secretions. Therefore, formation of these substances is stopped.

No energy would be produced for the cell since cellular respiration wouldn’t occur. Proteins would not be made. All the organelles would bump into each other and they would not be held in place.

If the golgi apparatus is not present the packaging and transport of materials would cease to happen. So, various substances such as sugar monomers would not be able to be transformed into proper forms for further use. The secretory activities of the cell would also cease to occur.

“A cell is defined as the smallest, basic unit of life that is responsible for all of life’s processes.” Cells are the structural, functional, and biological units of all living beings. A cell can replicate itself independently. Hence, they are known as the building blocks of life.

The name is given on the name of the scientist, who discovered the organelle, i.e. Camillo Golgi. It is found in all the eukaryotic cells, plants as well as animals. They are membrane-bound organelle present in the cytosol of the cell.

Mitochondria are known as power house of the cell. These organells contain many oxidative enzymes which oxidise the food and convert them into energy of the cell in the form if A.T.P. In the absence of mitochondria in the cell ,oxidation of food and release of energy does not takes place. Hence cell may die.

You can’t survive without mitochondria, the organelles that power most human cells. Mitochondria are the descendants of bacteria that settled down inside primordial eukaryotic cells, eventually becoming the power plants for their new hosts.

Answer. if mitochondria is removed from the cell. it will die.

Ribosomes are organelles that create proteins. Cells use proteins to perform important functions such as repairing cellular damage and directing chemical processes. Without these ribosomes, cells would not be able to produce protein and would not be able to function properly.