This Page Score: 0/40
Match List-I with List-II regarding the deciphering of the Genetic Code.
| List-I (Scientist) | List-II (Contribution) |
| A. George Gamow | I. Cell-free system for protein synthesis |
| B. Har Gobind Khorana | II. Enzyme for template-independent RNA synthesis |
| C. Marshall Nirenberg | III. Synthesized RNA homopolymers chemically |
| D. Severo Ochoa | IV. Proposed that the code is a Triplet |
[Molecular-Basis-of-Inheritance] [class-xii ]
Match List-I with List-II regarding the steps and components of DNA Fingerprinting.
| List-I (Component/Step) | List-II (Function/Description) |
| A. VNTR | I. Transfer of DNA to synthetic membrane |
| B. Probe | II. Separation of DNA fragments by size |
| C. Southern Blotting | III. Mini-satellite used as marker |
| D. Electrophoresis | IV. Radioactive DNA detecting specific sequences |
[Molecular-Basis-of-Inheritance] [class-xii ]
Match List-I with List-II regarding types of RNA and their roles.
| List-I (RNA) | List-II (Function) |
| A. mRNA | I. Adapter molecule |
| B. tRNA | II. Precursor to mRNA in eukaryotes |
| C. rRNA | III. Template for protein synthesis |
| D. hnRNA | IV. Structural and Catalytic role |
[Molecular-Basis-of-Inheritance] [class-xii ]
Match List-I with List-II regarding Eukaryotic RNA Polymerases.
| List-I (Enzyme) | List-II (Product) |
| A. RNA Polymerase I | I. hnRNA (Precursor to mRNA) |
| B. RNA Polymerase II | II. tRNA, 5S rRNA, snRNA |
| C. RNA Polymerase III | III. rRNAs (28S, 18S, 5.8S) |
[Molecular-Basis-of-Inheritance] [class-xii ]
Match List-I with List-II regarding the Translation process.
| List-I (Step) | List-II (Description) |
| A. Charging of tRNA | I. Release Factors bind to Stop codon |
| B. Initiation | II. Peptide bond formation by 23S rRNA |
| C. Elongation | III. Aminoacylation (Activation of amino acid) |
| D. Termination | IV. Small ribosomal subunit binds to mRNA |
[Molecular-Basis-of-Inheritance] [class-xii ]
Match List-I with List-II regarding properties of the Genetic Code.
| List-I (Property) | List-II (Explanation) |
| A. Degenerate | I. One codon codes for only one amino acid |
| B. Unambiguous | II. Code is nearly the same across all organisms |
| C. Universal | III. Multiple codons can code for the same amino acid |
| D. Comma-less | IV. Read continuously without punctuation |
[Molecular-Basis-of-Inheritance] [class-xii ]
Match List-I with List-II regarding DNA Replication Enzymes.
| List-I (Enzyme) | List-II (Function) |
| A. Helicase | I. Joins Okazaki fragments (Molecular Glue) |
| B. Topoisomerase | II. Synthesizes RNA primer |
| C. Primase | III. Unzips/Unwinds the DNA helix |
| D. DNA Ligase | IV. Relieves tension/supercoiling |
[Molecular-Basis-of-Inheritance] [class-xii ]
Match List-I with List-II regarding the structure of tRNA.
| List-I (Feature) | List-II (Description) |
| A. 2D Structure | I. Reads the codon on mRNA |
| B. 3D Structure | II. Clover-leaf shape |
| C. Acceptor Arm | III. Inverted L shape |
| D. Anticodon Loop | IV. Binds to Amino Acid |
[Molecular-Basis-of-Inheritance] [class-xii ]
Match List-I with List-II regarding experiments on Genetic Material.
| List-I (Scientist) | List-II (Discovery) |
| A. Frederick Griffith | I. Unequivocal proof using Bacteriophage |
| B. Hershey and Chase | II. Semi-conservative replication in Vicia faba |
| C. Meselson and Stahl | III. Transforming Principle |
| D. Taylor and colleagues | IV. Semi-conservative replication in E. coli |
[Molecular-Basis-of-Inheritance] [class-xii ]
Match List-I with List-II regarding RNA Processing.
| List-I (Process) | List-II (Feature) |
| A. Capping | I. Removal of Introns |
| B. Tailing | II. Addition of Methyl Guanosine Triphosphate |
| C. Splicing | III. Addition of Adenylate residues (Poly-A) |
| D. Exons | IV. Coding sequences retained in mature RNA |
[Molecular-Basis-of-Inheritance] [class-xii ]
This Page Score: 0/40