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.

3,410 results for "Io" — page 87 of 171

Z_5_08 Verified Molecular Biology

Z_5_08 — Mitochondrial DNA: Maternal Inheritance, Ancient Lineages, and Disease

Mitochondrial DNA (mtDNA) — the small, circular genome (~16,569 base pairs in humans) contained within mitochondria — encodes 37 genes essential for oxidative phosphorylation (13 protein-coding genes, 22 transfer RNAs, 2

mitochondrial DNA mtDNA maternal inheritance mitochondrial Eve heteroplasmy oxidative phosphorylation
Z_5_15 Verified Molecular Biology

Z_5_15 — Synthetic Genomes: Designing and Building Life from Scratch

Synthetic genomics — the design, construction, and transplantation of complete genomes assembled from chemically synthesized oligonucleotides — represents one of the most ambitious enterprises in modern biology, with the

synthetic genome Craig Venter Mycoplasma mycoides JCVI-syn3.0 minimal genome synthetic biology
Z_3_07 Verified Molecular Biology

Z_3_07 — Gene Drive Technology

Gene drives are genetic systems that bias their own inheritance to spread through a population at rates exceeding normal Mendelian expectations (~50% → ~99% transmission). Natural selfish genetic elements (transposons, m

gene drive CRISPR gene drive selfish genetic element meiotic drive super-Mendelian inheritance Anopheles
Z_3_16 Verified Molecular Biology

Z_3_16 — Genomic Conflict and Selfish Genetic Elements

Selfish genetic elements (SGEs) — sequences of DNA that promote their own transmission at the expense of the host organism or other genes in the genome — reveal that the genome is not a cooperating community of genes but

selfish-genetic-elements genomic-conflict transposable-elements meiotic-drive gene-drive intragenomic-conflict
Z_3_04 Verified Molecular Biology

Z_3_04 — Comparative Genomics and Cross-Species Analysis

Comparative genomics — the systematic comparison of genome sequences across species — has become the primary tool for understanding genome evolution, identifying functionally important sequences, and reconstructing the T

comparative genomics genome sequencing synteny ortholog paralog conserved element
Z_3_13 Verified Molecular Biology

Z_3_13 — Horizontal Gene Transfer in Prokaryotes

Horizontal gene transfer (HGT) — the movement of genetic material between organisms outside of parent-to-offspring inheritance — is a dominant force shaping prokaryotic evolution, fundamentally challenging the traditiona

horizontal gene transfer HGT lateral gene transfer conjugation transformation transduction
Z_3_15 Credible Molecular Biology

Z_3_15 — Genetics of Intelligence: Polygenicity, GWAS, and the Heritability Debate

The genetics of intelligence — attempts to identify the specific genetic variants that influence individual differences in cognitive ability — represents one of the most complex and contentious areas in human genetics. H

intelligence IQ GWAS polygenicity heritability educational attainment
Z_3_01 Verified Molecular Biology

Z_3_01 — Genetics of Brain Development — ASPM, Microcephalin, HAR1

The human brain is approximately three times larger than expected for a primate of our body size, with a vastly expanded cerebral cortex containing ~86 billion neurons. Identifying the genetic basis for this extraordinar

ASPM microcephalin MCPH1 HAR1 human accelerated regions brain evolution
Z_2_19 Verified Molecular Biology

Z_2_19 — Senolytics & Geroscience: Targeting Cellular Senescence in Aging

Cellular senescence — the irreversible arrest of cell division first described by Leonard Hayflick and Paul Moorhead (1961, Experimental Cell Research) — has emerged as a central mechanism of aging and age-related diseas

senolytics cellular-senescence geroscience aging-biology senescent-cells sasp
Z_2_21 Verified Molecular Biology

Z_2_21 — Epigenetic Aging Clocks

Epigenetic aging clocks are mathematical models that use patterns of DNA methylation at specific CpG dinucleotides across the genome to estimate an individual's biological age with remarkable accuracy — typically within

epigenetic clock DNA methylation biological age Horvath clock GrimAge aging
Z_2_07 Verified Molecular Biology

Z_2_07 — Genetics of Disease Resistance

Infectious disease has been the most powerful selective force shaping the human genome, leaving signatures across thousands of loci. The best-understood example is sickle cell disease (HbS, Glu6Val in HBB): heterozygous

disease resistance natural selection pathogen-driven selection sickle cell malaria resistance HbS
Z_2_05 Verified Molecular Biology

Z_2_05 — Gene Therapy: History and Progress

Gene therapy — the introduction, alteration, or replacement of genetic material within a patient's cells to treat or cure disease — has evolved from a speculative concept to an approved clinical reality over five decades

gene therapy gene replacement viral vector adeno-associated virus AAV lentivirus
Z_1_08 Verified Molecular Biology

Z_1_08 — Transposons and Mobile Genetic Elements

Transposable elements (TEs, transposons) — segments of DNA that can move or copy themselves to new genomic locations — are among the most abundant and influential components of eukaryotic genomes. Discovered by Barbara M

transposon mobile genetic element transposable element jumping gene Barbara McClintock retrotransposon
Z_1_13 Verified Molecular Biology

Z_1_13 — DNA Repair Mechanisms and Genome Stability

Every human cell sustains an estimated 10,000–100,000 DNA lesions per day from endogenous sources alone — oxidative metabolism, spontaneous hydrolysis, replication errors, and reactive metabolites — while environmental m

DNA repair base excision repair nucleotide excision repair mismatch repair double-strand break homologous recombination
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_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_21 Verified Molecular Biology

Z_1_21 — Riboswitches and RNA Thermometers

Riboswitches are structured RNA elements typically found in the 5' untranslated regions (5' UTRs) of bacterial messenger RNAs that directly sense and bind specific small-molecule metabolites — changing their three-dimens

riboswitch RNA thermometer aptamer gene regulation metabolite sensing mRNA structure
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_20 Credible Molecular Biology

Z_1_20 — RNA World Hypothesis

The RNA World hypothesis proposes that life on Earth passed through an early stage in which RNA molecules served as both the carriers of genetic information AND the catalysts of chemical reactions — performing the dual r

RNA world ribozyme self-replication origin of life ribonucleotide prebiotic chemistry
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