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normal alleleの例文

例文モバイル版携帯版

  • In the familial form, a mutated allele is inherited along with a normal allele.
  • C at position 665 ( leading to an alanine at amino acid 222 ) is the normal allele.
  • Cherubism is autosomal dominantly linked, meaning the displayed phenotype is determined by the dominant allele while the normal allele is recessive.
  • The second  hit results in the loss of the remaining normal allele ( gene ) and occurs within a particular retinal cell.
  • Crosses of two heterozygous Manx cats result in 2 offspring displaying the heterozygous shortened tail phenotype, and 1 offspring of normal tail length that is homozygous for a normal allele.
  • A heterozygous individual ( i . e . one who is a carrier for the disease, having only one normal allele for the insulin receptor ) will not be affected.
  • B for Bantam dwarfism is dominant over the normal allele " Dw ", and the last is dominant over the sex-linked recessive allele " dw ".
  • Also, if one X-chromosome has a mutation hindering its growth or rendering it non viable, cells which randomly inactivated that X will have a selective advantage over cells which randomly inactivated the normal allele.
  • The ineffective homozygous allele works at a rate of about 8 % of the normal allele, for it shows a higher km for NAD + and has a higher maximum velocity than the wild-type allele.
  • In the overall Japanese population, about 57 % of individuals are homozygous for the normal allele ( sometimes termed ALDH2 * 1 ), 40 % are heterozygous for glu487lys, and 3 % are homozygous for glu487lys.
  • Thus, although inactivation is initially random, cells that inactivate a normal allele ( leaving the mutated allele active ) will eventually be overgrown and replaced by functionally normal cells in which nearly all have the same X-chromosome activated.
  • In a diploid population, a deleterious allele " B " may have different effects on individual fitness in heterozygotes " AB " and homozygotes " BB " depending on the degree of dominance of the normal allele " A ".
  • If both parents have one mutant allele and one normal allele ( heterozygous ) then they have a 25 % chance of producing a homozygous recessive child ( has predisposition ), 50 % chance of producing a heterozygous child ( carrier of the faulty gene ) and 25 % chance of produced a child with two normal alleles.
  • If both parents have one mutant allele and one normal allele ( heterozygous ) then they have a 25 % chance of producing a homozygous recessive child ( has predisposition ), 50 % chance of producing a heterozygous child ( carrier of the faulty gene ) and 25 % chance of produced a child with two normal alleles.
  • The frequency p = p _ { AA } + p _ { AB } of normal alleles " A " increases at rate 1 / ( 1-s p _ { BB } ) due to the selective elimination of recessive homozygotes, while mutation causes p to decrease at rate 1-\ mu ( ignoring back mutations ).
  • The expression of any color, except white, requires the presence of the normal allele " C " +, an autosomic dominant allele that allows the synthesis of pigment in the feathers . " C " + is the most dominant of the allelic series of the locus " C " with the following order of dominance: