The progeny phenotypes will require recombination between genes A and B would be <u>1, 2, 5, and 6</u> .
- The allelic makeup of the gamete from either the heterozygous parent can be seen in the progeny's phenotypes.
- Recombinant phenotypes generally occur less frequently in populations than non-recombinant phenotypes.
- The distance among connected genes would affect how frequently certain recombinant phenotypes occur.
The chromosomes which could be already produced as a result of homologous chromosomes trying to cross over will be known as recombinant kind chromosomes. Different allele combinations are created on the chromosomes by recombinant kind chromosomes.
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During meiosis both females and males create gametes (sperm and egg) each gamete having 23 chromosomes from mom (the egg) and 23 chromosomes from the dad (the sperm) during fertilization the egg and sperm come together creating a child with all 46 chromosomes (not sure if this was exactly what you were asking but lol)
No oxygen to be transported to that specific part of the brain causing for that specific part of the brain to not function properly because red blood cells carry oxygen for the brain (which is an organ that needs oxygen) to do its job
<span>1. Adaptation processes occur to help species survive and thrive in the ecological balance of life.
2. Structural adaptations are physical features of an organism that adapted through time. An example of this are the bills of a bird and the fur of bears that they generally need for their survival; birds for hunting, and bears to protect them from low climate areas.</span>
Sugar molecules (i.e. glucose) are broken down into simpler molecules such as pyruvate. Pyruvate, in the presence of oxygen will be converted to Acetyl-CoA and it will enter the tricarboxylic acid cycle wherein it will produce series of reducing compounds such as NADH and FADH. These reducing compounds are then processed in the electron transport chain and oxidized, and the energy released in the oxidation of NADH and FADH is transferred to the high energy phosphate bond of adenosine triphosphate or ATP.