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This deck focuses on Explain Environmental Influences On Traits, giving you a quick way to review the definitions, rules, and examples that matter most for Biology.
Study Explain Environmental Influences On Traits in Biology with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
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What is the key difference between acclimation and adaptation?
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Acclimation is within a lifetime; adaptation evolves across generations. Acclimation occurs quickly; adaptation takes generations.
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This deck focuses on Explain Environmental Influences On Traits, giving you a quick way to review the definitions, rules, and examples that matter most for Biology.
Work through these flashcards in short sessions. Try to answer each prompt before flipping the card, then revisit any cards you miss until the explanation feels automatic.
Answer: Acclimation is within a lifetime; adaptation evolves across generations. Acclimation occurs quickly; adaptation takes generations.
Answer: Environment influenced phenotype (phenotypic plasticity). Same genotype responds differently to light conditions.
Answer: Alcohol (ethanol). Crosses placenta and damages developing brain tissue.
Answer: Tobacco smoke exposure. Toxic chemicals damage lung tissue over time.
Answer: Ability of one genotype to produce different phenotypes. Same genes can create different traits in different conditions.
Answer: Erythropoietin (EPO). Kidney hormone that stimulates blood cell production.
Answer: Prenatal alcohol exposure affecting brain development. Developmental exposure creates permanent changes.
Answer: Rubella virus. Viral infection during pregnancy affects development.
Answer: Radiation (e.g., UV or ionizing radiation). High-energy radiation damages DNA structure directly.
Answer: Ultraviolet (UV) radiation exposure. UV light triggers melanin production as protection.
Answer: The diet effect differs between genotypes (nonparallel responses). Interaction occurs when genotypes respond differently.
Answer: Not inherited (they do not change DNA sequence in gametes). Only changes in gamete DNA are passed to offspring.
Answer: Use of genetic information to make RNA and proteins. Process of turning genes into functional products.
Answer: An environmental factor that affects survival or reproduction. Environmental conditions that influence evolutionary fitness.
Answer: A trait change due to environment, not inherited genetically. Traits gained during life, not passed to offspring.
Answer: An environmental agent that disrupts embryonic development. Chemical or physical factor causing birth defects.
Answer: Prenatal alcohol exposure affecting brain development. Developmental exposure creates permanent changes.
Answer: Environmental exposure differences affected phenotype. Different environments caused phenotypic variation.
Answer: Skin tanning after UV exposure. Phenotypic response without genetic change.
Answer: A trait change due to environment, not inherited genetically. Traits gained during life, not passed to offspring.
Answer: Phenotypic plasticity. Flexible response of genotype to environmental variation.
Answer: Environmental (acquired characteristic). Physical injury creates non-genetic trait change.
Answer: Phytochrome. Light-sensitive protein that measures day length.
Answer: Melanin. Dark pigment that protects skin from UV damage.
Answer: Iron deficiency. Iron is essential for hemoglobin synthesis.
Answer: Reversible phenotypic adjustment to environmental change. Short-term adjustment to environmental changes.
Answer: Poor nutrition (especially protein and calories). Malnutrition limits growth despite genetic potential.
Answer: Poor nutrition (especially protein and calories). Malnutrition limits growth despite genetic potential.
Answer: Quantitative traits. Continuous variation due to environmental sensitivity.
Answer: DNA methylation. Chemical modification that silences gene transcription.
Answer: Heritable changes in gene expression without DNA sequence change. Gene activity changes without altering DNA sequence.
Answer: Body mass (weight) or height. Many genes and nutrition both influence these traits.
Answer: An environmental factor that affects survival or reproduction. Environmental conditions that influence evolutionary fitness.
Answer: Skin tanning after UV exposure. Phenotypic response without genetic change.
Answer: Tobacco smoke exposure. Toxic chemicals damage lung tissue over time.
Answer: Amount of lactose consumed (diet). Symptom severity depends on dietary intake.
Answer: An environmental agent that disrupts embryonic development. Chemical or physical factor causing birth defects.
Answer: Low oxygen at high altitude. Body compensates for reduced oxygen availability.
Answer: The diet effect differs between genotypes (nonparallel responses). Interaction occurs when genotypes respond differently.
Answer: Use of genetic information to make RNA and proteins. Process of turning genes into functional products.
Answer: Phenotype. The visible or measurable traits of an organism.
Answer: Melanin. Dark pigment that protects skin from UV damage.
Answer: Stunting. Chronic malnutrition impairs normal growth processes.
Answer: Exercise (mechanical load and training). Resistance training stimulates muscle protein synthesis.
Answer: Ultraviolet (UV) radiation exposure. UV light triggers melanin production as protection.
Answer: Different environments and epigenetic differences. Environment and gene regulation vary even with same DNA.
Answer: Dietary phenylalanine level affects symptom development. Restricting substrate prevents toxic metabolite buildup.
Answer: A non-genetic factor that affects phenotype expression. External conditions that modify how genes are expressed.
Answer: A non-genetic factor that affects phenotype expression. External conditions that modify how genes are expressed.
Answer: Multifactorial trait. Multiple genes plus environment create complex patterns.
Answer: Physiological response to day length. Plants use day length to time seasonal responses.
Answer: Pattern of phenotypes a genotype shows across environments. Shows how one genotype varies across environments.
Answer: Stunting. Chronic malnutrition impairs normal growth processes.
Answer: Water availability (drought) and humidity. Water stress triggers stomatal closure responses.
Answer: Temperature alters enzyme activity and reaction rates. Heat changes protein shape and metabolic rates.
Answer: Body mass (weight) or height. Many genes and nutrition both influence these traits.
Answer: Temperature alters enzyme activity and reaction rates. Heat changes protein shape and metabolic rates.
Answer: Selection changes allele frequencies; environment changes phenotype expression. Selection acts across generations; environment within lifetime.
Answer: Epigenetic regulation. Chemical modifications control gene activity levels.
Answer: Environmental exposure differences affected phenotype. Different environments caused phenotypic variation.
Answer: Exercise (mechanical load and training). Resistance training stimulates muscle protein synthesis.
Answer: Dietary phenylalanine level affects symptom development. Restricting substrate prevents toxic metabolite buildup.
Answer: Ability of one genotype to produce different phenotypes. Same genes can create different traits in different conditions.
Answer: Phenotype. The visible or measurable traits of an organism.
Answer: Iron deficiency. Iron is essential for hemoglobin synthesis.
Answer: Not inherited (they do not change DNA sequence in gametes). Only changes in gamete DNA are passed to offspring.
Answer: Pattern of phenotypes a genotype shows across environments. Shows how one genotype varies across environments.
Answer: Phenotype results from genotype interacting with environment. Genes provide potential; environment determines expression.
Answer: Phytochrome. Light-sensitive protein that measures day length.
Answer: Light conditions (intensity and photoperiod). Light quality and duration regulate plant development.
Answer: Reversible phenotypic adjustment to environmental change. Short-term adjustment to environmental changes.
Answer: Different environments and epigenetic differences. Environment and gene regulation vary even with same DNA.
Answer: DNA methylation. Chemical modification that silences gene transcription.
Answer: Alcohol (ethanol). Crosses placenta and damages developing brain tissue.
Answer: Light conditions (intensity and photoperiod). Light quality and duration regulate plant development.
Answer: Low oxygen at high altitude. Body compensates for reduced oxygen availability.
Answer: Soil pH affects pigment chemistry and ion availability. Acidic conditions alter anthocyanin pigment structure.
Answer: Quantitative traits. Continuous variation due to environmental sensitivity.
Answer: Amount of lactose consumed (diet). Symptom severity depends on dietary intake.
Answer: Erythropoietin (EPO). Kidney hormone that stimulates blood cell production.
Answer: Environment influenced phenotype (phenotypic plasticity). Same genotype responds differently to light conditions.
Answer: Genotype-by-environment interaction (G×E). Different genetic variants respond uniquely to conditions.
Answer: Radiation (e.g., UV or ionizing radiation). High-energy radiation damages DNA structure directly.
Answer: Heritable changes in gene expression without DNA sequence change. Gene activity changes without altering DNA sequence.
Answer: Genotype. The complete set of genes an organism inherits.
Answer: Genotype-by-environment interaction (G×E). Different genetic variants respond uniquely to conditions.
Answer: Water availability (drought) and humidity. Water stress triggers stomatal closure responses.
Answer: Phenotypic plasticity. Flexible response of genotype to environmental variation.
Answer: Epigenetic regulation. Chemical modifications control gene activity levels.
Answer: Environmental (acquired characteristic). Physical injury creates non-genetic trait change.
Answer: Genotype. The complete set of genes an organism inherits.
Answer: Low-phenylalanine diet started early in life. Early intervention prevents irreversible brain damage.
Answer: Phenotype results from genotype interacting with environment. Genes provide potential; environment determines expression.
Answer: Multifactorial trait. Multiple genes plus environment create complex patterns.
Answer: Soil pH affects pigment chemistry and ion availability. Acidic conditions alter anthocyanin pigment structure.
Answer: Rubella virus. Viral infection during pregnancy affects development.
Answer: Low-phenylalanine diet started early in life. Early intervention prevents irreversible brain damage.
Answer: Physiological response to day length. Plants use day length to time seasonal responses.
Answer: Selection changes allele frequencies; environment changes phenotype expression. Selection acts across generations; environment within lifetime.