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Research draft

nucleic acids

vr.tr.nucleic-acids · PHY.MAT

Let an agent explain nucleic acids and their functions, relay structure, types and laboratory uses from molecular biology sources, describe the analogues and concepts the registry aliases name, and distinguish nucleic acids from nucleotides, genes, chromosomes and proteins.

Thing Registry Physical world and living systems

Research draft, second pass

A second pass drafted this model: the structure a model of this thing needs, and what is known about it in the world. The line under this one says how the second half was obtained - researched against sources, or recalled without web access, in which case nothing here was read anywhere and every claim is a lead to verify. Unreviewed either way.

written by Claude from model knowledge without web access - no source was read, every claim is a lead to verify

Researched by: Claude

Purpose and description

Let an agent explain nucleic acids and their functions, relay structure, types and laboratory uses from molecular biology sources, describe the analogues and concepts the registry aliases name, and distinguish nucleic acids from nucleotides, genes, chromosomes and proteins.

Biopolymers made of nucleotide monomers, DNA and RNA, that store and transmit genetic information and catalyse and regulate cellular processes, along with synthetic analogues called xeno nucleic acids such as hexitol and glycol nucleic acids; related concepts in the registry aliases include nucleic acid probes used to detect sequences, episomes, which are DNA elements that replicate independently or integrate into chromosomes, R-loops, three-stranded DNA-RNA hybrid structures, and nucleic acid nomenclature conventions.

What it is for: Storing and expressing genetic information.

It can be explain structure and types; relay functions and methods; describe analogues and concepts; distinguish related molecules.

Distinguishing features

Nucleotide polymers

Genetic information

Base pairing

Natural and synthetic forms

What it looks like

Not a visible object; long molecular chains, visible as white strands when precipitated.

Physical character

DNA double helix described: 1953 year - Watson, Crick, Franklin, Wilkins

nucleic acid discovered: 1869 year - Friedrich Miescher

human genome: about 3.1 billion base pairs

How it is recognised

Polymers of nucleotides

DNA, RNA, hexitol and glycol nucleic acids, probes, episomes, R-loops

Nucleotides are monomers; genes are functional segments; chromosomes are packaged DNA; proteins are amino acid polymers

Related models

is a kind of - in registry terms

macromolecule

is a kind of - in registry terms

polynucleotide

includes -

DNA

is composed of -

nucleotide

In practice

Families and kinds

DNA

RNA including mRNA, tRNA and rRNA

xeno nucleic acids such as HNA and GNA

nucleic acid probes

episomes and plasmids

structures such as R-loops

Identifiers

MeSH D009696 Nucleic Acids

Standards and regulation

IUPAC-IUBMB nucleic acid nomenclature

Biosafety rules for recombinant nucleic acids

Failure modes and hazards

Confusing nucleic acids with genes

Registry aliases mixing molecules, tools and structures

Overstating synthetic biology claims

Also called

nucleic acid probehexitol nucleic acidepisomeR-loopNucleic acid nomenclatureglycol nucleic acidampliconcell-free nucleic acidimmobilized nucleic acidsInfectious nucleic acids

Where this came from

wikidata · CC0 1.0

Drafted structure

Bundle to layer to finding to question, as the second pass will find it: 4 bundles · 8 layers · 8 findings · 16 questions.

Understand What nucleic acids are.

Science.

Definition

Definition.

Definition

Definition.

  1. What are nucleic acids, and how do they differ from nucleotides, genes, chromosomes and proteins? definition
  2. Is the question about structure, a type, a laboratory method or synthetic biology? boundary

Concepts

Related concepts.

Concepts

Concepts.

  1. What are hexitol and glycol nucleic acids, probes, episomes, R-loops and nucleic acid nomenclature? definition
  2. Which entry fits the specific concept? action
Biology Structure and function.

Science.

Structure

Structure.

Structure

Structure.

  1. How do DNA and RNA structures and base pairing work? provenance
  2. Which references are standard? provenance

Function

Function.

Function

Function.

  1. How do nucleic acids store, copy and express genetic information? provenance
  2. Which sources are cited? provenance
Laboratory Methods and synthetic biology.

Application.

Methods

Methods.

Methods

Methods.

  1. How are probes, sequencing and PCR used to study nucleic acids? provenance
  2. Which entry fits DNA sequencing? action

XNA

Xeno nucleic acids.

XNA

XNA.

  1. What are xeno nucleic acids, and what research uses do they have? provenance
  2. Which entry fits xeno nucleic acid? action
Context History.

Context.

History

History.

History

History.

  1. How did Miescher, Avery, Franklin, Watson and Crick contribute? provenance
  2. Which entry fits the history of molecular biology? action

Structures

R-loops and episomes.

Structures

Structures.

  1. What are R-loops and episomes, and why do they matter? provenance
  2. Which entry fits R-loop? action

What the second pass must settle

  • Should xeno nucleic acids and R-loops be separate primary entries?
  • How should molecular biology sources be linked?
  • The registry entry has merged aliases naming tools, elements and structures; should they be split off?