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This deck focuses on Regulation Of Gene Transcription, giving you a quick way to review the definitions, rules, and examples that matter most for AP Biology.
Study Regulation Of Gene Transcription in AP 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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Identify the process where small RNAs regulate gene expression post-transcriptionally.
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RNA interference. Uses small RNAs to silence target genes.
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This deck focuses on Regulation Of Gene Transcription, giving you a quick way to review the definitions, rules, and examples that matter most for AP 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: RNA interference. Uses small RNAs to silence target genes.
Answer: Assist in forming the transcription initiation complex. Required for RNA polymerase binding and function.
Answer: Terminator sequence. Signals the end of transcription in bacteria.
Answer: Repressor. Blocks transcription when bound to operator.
Answer: Increases transcription levels by interacting with activators. DNA sequences that boost gene expression remotely.
Answer: Promoter. Essential regulatory region for transcription start.
Answer: RNA polymerase. The primary enzyme responsible for RNA synthesis.
Answer: RNA polymerase I. Produces ribosomal RNA in the nucleolus.
Answer: Transcribes tRNA and some small RNAs. Synthesizes transfer RNA and regulatory RNAs.
Answer: Altered gene expression due to faulty transcription initiation. Disrupts normal transcription factor binding.
Answer: Decreases transcription by binding repressor proteins. Regulatory elements that reduce gene expression.
Answer: RNA interference. Uses small RNAs to silence target genes.
Answer: Affinity for transcription factors and RNA polymerase. Binding efficiency determines transcription frequency.
Answer: Increases transcription by loosening DNA-histone interaction. Opens chromatin structure for gene accessibility.
Answer: A cluster of genes regulated together. Found in prokaryotes for coordinated gene control.
Answer: Decreases transcription by tightening DNA-histone interaction. Compacts chromatin, reducing gene accessibility.
Answer: Rho factor. Protein-dependent transcription termination mechanism.
Answer: RNA splicing. Removes non-coding sequences from pre-mRNA.
Answer: Terminator sequence. Signals the end of transcription in bacteria.
Answer: Facilitates interaction between transcription factors and RNA polymerase. Bridges regulatory proteins with transcription machinery.
Answer: Assist in forming the transcription initiation complex. Required for RNA polymerase binding and function.
Answer: Affinity for transcription factors and RNA polymerase. Binding efficiency determines transcription frequency.
Answer: Promoter. Required regulatory sequence for gene expression.
Answer: Increases transcription levels by interacting with activators. DNA sequences that boost gene expression remotely.
Answer: Increases transcription by loosening DNA-histone interaction. Opens chromatin structure for gene accessibility.
Answer: RNA interference. Post-transcriptional gene silencing mechanism.
Answer: Repressor. Blocks transcription when bound to operator.
Answer: Allolactose. Derived from lactose, activates the lac operon.
Answer: Decreases transcription by binding repressor proteins. Regulatory elements that reduce gene expression.
Answer: Increase transcription by binding to enhancers. Promote gene expression by recruiting RNA polymerase.
Answer: Facilitates interaction between transcription factors and RNA polymerase. Bridges regulatory proteins with transcription machinery.
Answer: Generates different mRNA variants from the same gene. Increases protein diversity from a single gene.
Answer: Increase transcription by binding to enhancers. Promote gene expression by recruiting RNA polymerase.
Answer: RNA interference. Post-transcriptional gene silencing mechanism.
Answer: Generates different mRNA variants from the same gene. Increases protein diversity from a single gene.
Answer: Indicates where transcription starts by binding transcription factors. Core promoter element crucial for transcription initiation.
Answer: Altered gene expression due to faulty transcription initiation. Disrupts normal transcription factor binding.
Answer: Binds to operators to block RNA polymerase. Prevents transcription when bound to operator sequences.
Answer: Rho factor. Protein-dependent transcription termination mechanism.
Answer: RNA polymerase. The primary enzyme responsible for RNA synthesis.
Answer: Helicase. Separates DNA strands for RNA polymerase access.
Answer: Regulates transcription by interacting with repressors. DNA sequence that controls repressor binding.
Answer: Enhance transcription by linking activators to the transcription machinery. Bridge activators to the transcription complex.
Answer: mRNA, tRNA, and rRNA. All RNA types produced during transcription.
Answer: RNA polymerase II. Specifically synthesizes messenger RNA transcripts.
Answer: RNA polymerase II. Specifically synthesizes messenger RNA transcripts.
Answer: RNA polymerase I. Produces ribosomal RNA in the nucleolus.
Answer: Increases transcription by stabilizing the transcription complex. Enhances transcriptional machinery assembly.
Answer: Regulates transcription by interacting with repressors. DNA sequence that controls repressor binding.
Answer: Initiates transcription by binding RNA polymerase. Acts as the binding site where transcription begins.
Answer: Transcribes tRNA and some small RNAs. Synthesizes transfer RNA and regulatory RNAs.
Answer: Promoter. Required regulatory sequence for gene expression.
Answer: Protects mRNA from degradation and aids ribosome binding. Stabilizes mRNA and facilitates translation initiation.
Answer: A cluster of genes regulated together. Found in prokaryotes for coordinated gene control.
Answer: Promoter. Essential regulatory region for transcription start.
Answer: Decreases transcription by tightening DNA-histone interaction. Compacts chromatin, reducing gene accessibility.
Answer: Guides RNA polymerase to the promoter. Helps RNA polymerase recognize specific promoters.
Answer: Helicase. Separates DNA strands for RNA polymerase access.
Answer: Binds to operators to block RNA polymerase. Prevents transcription when bound to operator sequences.
Answer: Indicates where transcription starts by binding transcription factors. Core promoter element crucial for transcription initiation.
Answer: 5' capping or polyadenylation. RNA processing that occurs after transcription.
Answer: Allolactose. Derived from lactose, activates the lac operon.
Answer: DNA methylation. Silences genes by adding methyl groups to cytosine.
Answer: Protects mRNA from degradation and aids ribosome binding. Stabilizes mRNA and facilitates translation initiation.
Answer: Enhance transcription by linking activators to the transcription machinery. Bridge activators to the transcription complex.
Answer: Increases transcription by stabilizing the transcription complex. Enhances transcriptional machinery assembly.
Answer: Proteins that bind to DNA sequences. Regulatory proteins that control gene expression levels.
Answer: Initiates transcription by binding RNA polymerase. Acts as the binding site where transcription begins.
Answer: RNA splicing. Removes non-coding sequences from pre-mRNA.
Answer: Proteins that bind to DNA sequences. Regulatory proteins that control gene expression levels.
Answer: Guides RNA polymerase to the promoter. Helps RNA polymerase recognize specific promoters.
Answer: 5' capping or polyadenylation. RNA processing that occurs after transcription.
Answer: mRNA, tRNA, and rRNA. All RNA types produced during transcription.
Answer: DNA methylation. Silences genes by adding methyl groups to cytosine.