A) Y chromosome B) Autosomal chromosome C) Mitochondrial DNA D) X chromosome
A) Only children of both sexes B) Only males C) Both males and females D) Only females
A) They have two X chromosomes B) Mitochondrial DNA prevents it C) They do not possess Y-allosomes D) They have protective genes
A) Infertility B) Obesity C) Diabetes D) Heart disease
A) Randomly from either parent B) Exclusively from the father C) Exclusively from the mother D) Equally from both parents
A) Nuclear DNA B) Mitochondria C) Golgi apparatus D) Ribosomes
A) Heart disease B) Down syndrome C) Leber's hereditary optic neuropathy D) Asthma
A) Y-linked mutations B) Environmental factors C) Nuclear gene defects D) Mitochondrial DNA mutations
A) Mitochondrial B) Autosomal dominant C) Autosomal recessive D) Y-linked
A) Only chromosomal abnormalities B) A single genetic mutation C) Multiple genes and environmental factors D) Only lifestyle choices
A) Heart disease B) Leber's hereditary optic neuropathy C) Trisomy 21 D) Y-linked infertility
A) They lack a clear-cut pattern of inheritance B) They are always caused by external trauma C) They are caused by a single known gene D) They only occur in one generation
A) Ignoring genetic variants entirely B) Focusing only on environmental factors C) Identifying clinical manifestations before genetic variants D) Identifying genetic variants before clinical manifestations
A) A missing, extra, or irregular portion of chromosomal DNA B) A single gene mutation C) A combination of multiple genes D) An infection of the DNA
A) A mitochondrial mutation B) A missing chromosome 21 C) An extra copy of chromosome 21 D) A structural mutation on chromosome 21
A) One B) Four C) Three D) Two
A) Neither parent is affected B) One affected parent C) Two affected parents D) Only the mother is affected
A) 100% B) 75% C) 25% D) 50%
A) Congenital anomaly B) Autosomal recessive C) Genetic drift D) Reduced penetrance
A) Autosomal mutations B) Congenital anomalies C) Hereditary markers D) Penetrance factors
A) Phenylketonuria B) Neurofibromatosis type 1 C) Hemophilia A D) Albinism
A) Only if both parents are affected B) No, due to reduced penetrance C) Yes, always D) Only if the mutation is on the X chromosome
A) Fragile X syndrome B) Turner syndrome C) Acute intermittent porphyria D) Down syndrome
A) Contracting a virus B) Exposure to harmful radiation C) Poor nutrition during childhood D) Abnormalities in the genome
A) Monogenic B) Chromosome abnormality C) Polygenic D) Mitochondrial
A) Around 2,000 B) Under 1,000 C) Exactly 500 D) Over 6,000
A) Less than 100 B) More than 600 C) All known disorders D) Exactly 5,000
A) Mitochondrial mutations B) BRCA mutations C) X-linked mutations D) Y-linked mutations
A) Monogenic disorder B) Rare disorder C) Polygenic disorder D) Acquired disorder
A) Achondroplasia B) Sickle cell anemia C) BRCA syndrome D) Metabolic disorder
A) One B) Three C) Two D) Four
A) 100% B) 50% C) 75% D) 25%
A) X-linked hypophosphatemic rickets B) Cystic fibrosis C) Hemophilia A D) Rett syndrome
A) Phenylketonuria B) Albinism C) Rett syndrome D) Sickle cell disease
A) Albinism B) Hemophilia A C) Tay-Sachs disease D) Thalassaemia
A) Increased mutation rate B) Higher X chromosome dosage C) Autosomal inheritance D) Skewed X-inactivation
A) Klinefelter syndrome B) Incontinentia pigmenti C) Aicardi syndrome D) Turner syndrome
A) Gene therapy B) Ultrasound C) Physical therapy D) Amniocentesis
A) Developmental delays B) None, it is asymptomatic C) Cognitive decline D) Physical symptoms
A) Muscular dystrophy B) Huntington's disease C) Down syndrome D) Amelogenesis imperfecta
A) Paranthropus robustus B) Homo sapiens C) Australopithecus D) Neanderthals |