Yes. Both eukaryotes and prokaryotes use the same system of codons (they speak the same 'language'). For example, GGG will be translated to glycine in a human and in E. coli bacteria. Therefore, as long as the eukaryotic gene is attached to the appropriate prokaryotic gene regulation elements, a prokaryotic cell will be able to translate and express the gene. The most common method to accomplish this is to put the eukaryotic gene in a 'vector' (most commonly a plasmid of bacterial origin), and then transform the bacteria with this vector.
This is how humulin (human insulin) was first prepared by recombinant DNA technology. The eukaryotic genetic information (human DNA) was inserted into prokaryotic plasmids, and the bacteria then synthesized insulin.
because eukariyotic cells only has one set of genetic infromation that needs to be copied before cell division can take place
bacterial and mammalian cells have different genetic codes and regulatory mechanisms, making it difficult for the bacterial cell to properly transcribe and translate the mammalian gene. This can result in the gene not being properly expressed or expressed with errors, leading to potential harmful effects or lack of desired function. Additionally, the post-translational modifications required for mammalian proteins may not occur in bacterial cells.
Eukaryotic cells use various DNA sequences to regulate gene expression, including promoters, enhancers, and silencers. Promoters are located near the start of a gene and initiate transcription. Enhancers and silencers can be distant from the gene and help to enhance or repress gene expression, respectively. Together, these sequences play important roles in controlling when and how genes are expressed in eukaryotic cells.
Prokaryotes have a single circular chromosome, wherease eukaryotes have many bar shaped chromsomes. Also, prokaryotes are single cell organisms (there are some single cell eukaryotes, but never multicellular prokaryotes). Because multicellular organisms have so many cells, (such as humans), their chromsomes have to contain a lot of information to provide details to the cell so it can carry out it's job. In eukaryotic cell DNA there are introns and exons. When a gene is needed to be expressed, the cell must remove the information in the sequence that is not needed; ie, the introns. It is believed that the same DNA sequence can actually code for more than one gene because of the cells ability to remove introns and keep exons. for example, the word 'strawberry' contains the code for three words: straw, berry, strawberry. by removing peices of the word, you are left with information that provides a different set of instructions. Prokaryotes do not have introns and exons.
Incorporation and expression of a plasmid in eukaryotic cells is typically achieved through a process called transfection. This involves introducing the plasmid DNA into the cells using methods such as electroporation or lipid-mediated transfection. Once inside the cell, the plasmid can be expressed by the cell's machinery to produce the desired protein or gene product.
The difference is that eukaryotic DNA is organized into a well defined nucleus and prokaryotic DNA is not. An example of a prokaryote is bacteria (or a bacterium). Humans and fungi are eukaryotes. Prokaryotes also do not have introns (DNA that is not expressed), while Eukaryotes do.
proteins are expressed differently in prokaryotes and eukaryotes
Loosely packed DNA can result in genes not being expressed properly.
Some of the characters and opinions that are expressed are not historically accurate.
because eukariyotic cells only has one set of genetic infromation that needs to be copied before cell division can take place
True breeding plants were homozygous for all the characters expressed, hence inheritance of characters was better understood with the help of these plants.
In prokaryotic genes, a promoter is a specific DNA sequence located upstream of the gene that serves as the binding site for RNA polymerase and transcription factors. It initiates the transcription process by facilitating the recruitment of RNA polymerase, which unwinds the DNA and synthesizes RNA from the DNA template. The strength and sequence of the promoter can influence the rate of transcription, thereby regulating gene expression. Overall, promoters are crucial for controlling when and how much a gene is expressed in prokaryotic cells.
An abbreviation for calmoduin is CaM. It is a calcium-binding messenger protein expressed in all eukaryotic cells. It loads calcium signals by binding calcium ions and then modifying its interactions with various target proteins.
bacterial and mammalian cells have different genetic codes and regulatory mechanisms, making it difficult for the bacterial cell to properly transcribe and translate the mammalian gene. This can result in the gene not being properly expressed or expressed with errors, leading to potential harmful effects or lack of desired function. Additionally, the post-translational modifications required for mammalian proteins may not occur in bacterial cells.
The author's viewpoint in a novel is their perspective on the events, characters, themes, and overall message conveyed in the text. It reflects the author's beliefs, values, and attitudes that are expressed through the narrative and the characters' actions and dialogue.
A set of prokaryotic genes that are regulated and transcribed as a unit is called an operon. In prokaryotes, operons consist of multiple genes that are transcribed together into a single mRNA molecule under the control of a single promoter. This allows for coordinated expression of genes involved in related functions.
Eukaryotic cells use various DNA sequences to regulate gene expression, including promoters, enhancers, and silencers. Promoters are located near the start of a gene and initiate transcription. Enhancers and silencers can be distant from the gene and help to enhance or repress gene expression, respectively. Together, these sequences play important roles in controlling when and how genes are expressed in eukaryotic cells.