RESEARCH BASE

Search 3,721 documents across 34 fields — every claim tier-rated by evidence

3,721 Documents 34 Sections 43,625 Citations 34,852 Keywords Indexed 4 Evidence Tiers

3,633 are the core, quality-scored corpus (34 lettered sections — see How We Work); the remaining 88 are cross-corpus synthesis documents (68 InterDocs, 12 Connections, 8 Theories) also indexed here.

3,692 results for "g factor" — page 31 of 185

Z_1_17 Verified Molecular Biology

Z_1_17 — Environmental Epigenetics & Toxicogenomics

Environmental epigenetics examines how chemical exposures, nutritional states, and ecological stressors modify gene expression without altering DNA sequence — through DNA methylation, histone modifications, and non-codin

epigenetics toxicogenomics endocrine disruptors PFAS transgenerational inheritance DNA methylation
Z_1_16 Verified Molecular Biology

Z_1_16 — Transposable Elements: Jumping Genes and Genome Evolution

Transposable elements (TEs) — sequences of DNA capable of moving ("jumping") from one genomic location to another — constitute approximately 45% of the human genome and up to 85% of the maize genome, making them the sing

transposable elements jumping genes Barbara McClintock retrotransposons DNA transposons Alu elements
Z_1_01 Verified Molecular Biology

Z_1_01 — ENCODE Project, Non-Coding DNA & Epigenetics

The human genome is ~3.2 billion base pairs long, but only ~1.5% encodes proteins. The remaining ~98.5% was once dismissed as "junk DNA." The ENCODE Project (2003–present) revealed that at least 80% of the genome has bio

ENCODE non-coding DNA junk DNA epigenetics regulatory elements endogenous retrovirus
Z_1_18 Verified Molecular Biology

Z_1_18 — Junk DNA & the ENCODE Controversy: Function, Noise, and the Human Genome

The term "junk DNA" — coined by Susumu Ohno (1972) to describe non-coding DNA sequences in eukaryotic genomes that appeared to have no functional role — ignited one of the most contentious debates in modern genomics: how

junk DNA ENCODE non-coding DNA transposable elements selfish DNA C-value paradox
Z_1_05 Verified Molecular Biology

Z_1_05 — Genomic Imprinting and Parent-of-Origin Effects

Genomic imprinting is an epigenetic phenomenon in which a gene's expression depends on whether it was inherited from the mother or the father — violating the standard Mendelian assumption that both parental copies functi

genomic imprinting parent-of-origin effect epigenetics DNA methylation imprinting control region ICR
Z_1_03 Verified Molecular Biology

Z_1_03 — Human Genome Project and Its Legacy

The Human Genome Project (HGP), launched in 1990 and completed in 2003, was the largest coordinated biological research effort in history — a $3 billion, 13-year international collaboration to sequence all ~3.2 billion b

Human Genome Project HGP genome sequencing Francis Collins Craig Venter Celera
Z_1_19 Verified Molecular Biology

Z_1_19 — Non-Coding RNA and Gene Regulation

Non-coding RNAs (ncRNAs) — RNA molecules that are transcribed from the genome but do not encode proteins — have emerged as central regulators of gene expression, challenging the classical "one gene–one protein" paradigm

non-coding-rna microrna lncrna gene-regulation rna-interference sirna
Z_1_15 Verified Molecular Biology

Z_1_15 — Long Non-Coding RNA: The Dark Matter of the Transcriptome

Long non-coding RNAs (lncRNAs) — RNA transcripts longer than 200 nucleotides that do not encode proteins — represent one of the most surprising and rapidly expanding frontiers of molecular biology. The human genome encod

long non-coding RNA lncRNA XIST HOTAIR gene regulation chromatin
Z_1_12 Verified Molecular Biology

Z_1_12 — Genome Architecture and 3D Organization

The human genome — approximately 6.4 billion base pairs of DNA — is packed into a nucleus only ~6 μm in diameter. If stretched end-to-end, the DNA of a single human cell would extend about 2 meters, yet it is packaged an

genome architecture 3D genome chromatin organization topologically associating domains TADs chromosome territories
Z_1_11 Verified Molecular Biology

Z_1_11 — Polyploidy and Genome Duplication

Polyploidy — the possession of more than two complete sets of chromosomes — is a major force in genome evolution, particularly in plants and some animal lineages. Susumu Ohno (1970) proposed that whole genome duplication

polyploidy genome duplication whole genome duplication WGD autopolyploidy allopolyploidy
Z_1_09 Verified Molecular Biology

Z_1_09 — Copy Number Variation and Structural Genomics

Copy number variations (CNVs) — segments of DNA ranging from ~1 kilobase to several megabases that are present in variable numbers across individuals — represent the most impactful form of genetic variation in the human

copy number variation CNV structural variation deletion duplication inversion
Z_1_14 Verified Molecular Biology

Z_1_14 — Chromatin Remodeling: Epigenetic Architecture of the Genome

Chromatin remodeling — the dynamic restructuring of the protein-DNA complex (chromatin) that packages eukaryotic genomes — is a central mechanism of gene regulation and a cornerstone of epigenetics. In eukaryotic cells,

chromatin histone nucleosome epigenetics histone modification acetylation
Z_4_21 Verified Molecular Biology

Z_4_21 — Autophagy Mechanisms

Autophagy (from Greek, "self-eating") is a fundamental cellular process by which eukaryotic cells degrade and recycle their own components — damaged organelles, protein aggregates, intracellular pathogens, and surplus cy

autophagy autophagosomes lysosome Ohsumi ATG genes mTOR
Z_4_20 Verified Molecular Biology

Z_4_20 — Quorum Sensing in Bacteria

Quorum sensing (QS) is a chemical communication system used by bacteria to coordinate gene expression in response to population density — enabling single-celled organisms to exhibit collective behaviors that would be ine

quorum sensing autoinducer AHL AI-2 bioluminescence biofilm
Z_4_13 Verified Molecular Biology

Z_4_13 — Membrane Biology: Lipid Bilayers, Rafts, and Cellular Boundaries

Biological membranes — the lipid bilayer structures that define cells and compartmentalize their interiors — are fundamental to all life on Earth. Every cell is bounded by a plasma membrane that separates the interior (c

membrane lipid bilayer fluid mosaic model Singer-Nicolson lipid raft phospholipid
Z_4_05 Verified Molecular Biology

Z_4_05 — Synthetic Biology and Minimal Genomes

Synthetic biology aims to design, construct, and engineer biological systems and organisms with novel functions not found in nature — or to redesign existing biological systems for useful purposes. The field's landmark a

synthetic biology minimal genome JCVI-syn3.0 Mycoplasma mycoides synthetic cell Venter
Z_4_18 Verified Molecular Biology

Z_4_18 — Protein Misfolding and Prion Diseases

Prion diseases — transmissible spongiform encephalopathies (TSEs) — are fatal neurodegenerative disorders caused by the misfolding and self-propagating aggregation of a normal cellular protein (PrPᶜ) into a pathological

prion protein-misfolding amyloid bse cjd mad-cow-disease
Z_4_17 Verified Molecular Biology

Z_4_17 — Non-coding RNA Networks: Regulation Beyond the Genome

Non-coding RNAs (ncRNAs) — RNA molecules that are not translated into protein but perform functional roles in the cell — have emerged since the late 1990s as a vast and previously unsuspected layer of biological regulati

non-coding RNA microRNA lncRNA RNA interference gene regulation RNA world
Z_4_09 Verified Molecular Biology

Z_4_09 — Protein Folding: From Anfinsen's Dogma to AlphaFold

Protein folding — the process by which a linear chain of amino acids spontaneously adopts its specific three-dimensional structure — is one of the most fundamental problems in molecular biology and has been called the "s

protein folding Anfinsen AlphaFold Levinthal paradox chaperones folding funnel
Z_4_12 Verified Molecular Biology

Z_4_12 — Autophagy: The Cell's Self-Eating Recycling System

Autophagy (from Greek auto "self" + phagein "to eat") — the process by which cells degrade and recycle their own components — is a fundamental cellular quality control and survival mechanism conserved from yeast to human

autophagy Ohsumi lysosome mTOR autophagosome protein degradation