A) It adds new genetic material to DNA. B) It copies DNA strands. C) It mutates genes. D) It cuts DNA at specific sequences.
A) To remove genes from an organism. B) To produce multiple copies of a gene. C) To study the entire genome of an organism. D) To create a completely new gene.
A) To edit genes with precision. B) To clone entire organisms. C) To study proteins in cells. D) To create hybrid organisms.
A) A grand method of optimization. B) A genetically modified organism. C) A gene mapping organization. D) A protein found in organisms.
A) They are tools to measure DNA length. B) They are enzymes used to cut DNA. C) They are proteins that regulate gene expression. D) They are used as vectors to transfer desired genes into host organisms.
A) To increase the cost of food production. B) To eliminate the need for fertilizers. C) To reduce the genetic diversity of crops. D) To produce crops with desirable traits such as pest resistance or higher yield.
A) A tool to deliberately spread a specific gene through a population. B) A process to analyze the entire genome of a species. C) A method to delete genes from an organism. D) A technique to clone entire organisms.
A) Using genetic engineering to create vaccines against diseases. B) Testing antibiotics on viruses. C) Manufacturing traditional medicines. D) Studying the history of vaccines.
A) PCR amplification B) Transcription C) Translation D) Restriction digestion
A) CRISPR-Cas9 B) Gel electrophoresis C) Polymerase Chain Reaction (PCR) D) Transformation
A) Agrobacterium-mediated transformation B) Western blotting C) Yeast two-hybrid system D) RNA splicing
A) Coding Region for Identifying Specific Proteins B) Cellular Replication and Inheritance System C) Clustered Regularly Interspaced Short Palindromic Repeats D) Catalytic RNA for Inducing Specific Proteins
A) Copying a gene from one species to another. B) Deleting an entire chromosome. C) Inserting a whole gene into an organism. D) Changing a specific sequence of DNA within a gene.
A) No change in genetic diversity within a population. B) Improved overall health and well-being. C) Unintended genetic mutations and long-term health effects. D) Immediate and predictable benefits.
A) To physically manipulate DNA in a lab. B) To study biochemistry in organisms. C) To create artificial organisms. D) To analyze and interpret biological data using computational tools.
A) The manipulation of genes in a lab setting. B) The process by which information from a gene is used in the synthesis of a functional gene product. C) The study of gene inheritance patterns. D) The sequencing of an entire genome.
A) By reducing the variety of crop species. B) By promoting the use of natural fertilizers only. C) By developing crops with improved yields and resistance to pests. D) By increasing the use of chemical pesticides.
A) RNA interference B) Gel electrophoresis C) CRISPR-Cas9 D) Southern blotting
A) The transfer of an entire chromosome into a cell. B) A natural gene mutation. C) The insertion of a specific gene into a specific location in the genome. D) The removal of genes from an organism.
A) Gene cloning. B) Plasmid transformation. C) RNA interference. D) CRISPR-Cas9.
A) By increasing resistance to antibiotics in humans. B) By enabling the production of human proteins like insulin for therapy. C) By creating new diseases for research purposes. D) By replacing traditional medicines with genetically modified ones. |