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🧪

GENE EDIT

Synthetic Biology

Central Hypothesis

“Track gene editing breakthroughs, synthetic organism capabilities, biosecurity risks, and governance gaps in programmable biology.”
Evidence strength · grounded
34 sourced findings
74%
16.1Capabilities; Gene Editing & Synthetic Organisms
1072

Synthetic biology is expanding from designed circuits to programmable cellular logic and partial self-replication, while generative models begin searching circuit architectures; the newest results remain laboratory demonstrations rather than deployed systems.

bar = value against the largest on this card
MetricValueDetail
Base gap switches for programmable cell-free biosensing
DNA-triggered transcriptional…
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MetricBase gap switches for programmable cell-free biosensing
ValueDNA-triggered transcriptional switch: seven orthogonal circuits averaged 0.89% crosstalk, reached ON:OFF ratios up to 973:1, and detected targets at 10 fM; Nature Sensors (2026-09-14)
DetailCAUSAL: (1) Researchers created base gap switches in which a target DNA fills a designed gap, allowing transcription and translation of a selected protein output. (2) The switches controlled multiple reporters with low leakage, supported orthogonal multiplexing, and detected an EGFR mutation at variant fractions as low as 0.5% in synthetic DNA; a recombinase polymerase amplification version
77
nature.com
Autocatalytic selection of gene functions in synthetic cells
Cell-free DNA…
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MetricAutocatalytic selection of gene functions in synthetic cells
ValueCell-free DNA self-replicator: autocatalytic coupling selected functional transcription, metabolic, and nucleotide-synthesis genes from mixed variants in liposome compartments, including enrichment from a 1:4 active to inactive starting mix (Communications Biology, 2026-05-27)
DetailCAUSAL: (1) Researchers linked a gene of interest to transcription, metabolism, or DNA replication so its activity fed back into DNA self-replication inside liposomes. (2) The coupling created a genotype to phenotype selection mechanism: functional variants gained replication advantages, including enrichment of the active beta-galactosidase construct from 31% to 51% in a 1:4 starting mixture.
74
nature.com
Self-replicating synthetic cell with integrated membrane biosynthesis
Synthetic genome…
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MetricSelf-replicating synthetic cell with integrated membrane biosynthesis
ValueSynthetic genome DNArep-PLsyn: six encoded genes combined DNA self-replication with phospholipid biosynthesis inside liposomes; about 8% of vesicles showed both functions and the genome amplified about 10-fold in 16 hours (Nature Communications, 2026-03-24)
DetailCAUSAL: (1) Researchers built a roughly 9.6 kilobase linear genome encoding a phi29 DNA replication module plus four enzymes of the E. coli Kennedy phospholipid pathway, then expressed it in a PURE cell-free system inside liposomes. (2) The genome replicated and produced DOPS, while microscopy found about 8% of more than 34,000 analyzed vesicles had simultaneous DNA replication and lipid
73
nature.com
Eight-letter Hachimoji transcription by E. coli RNA polymerase
Hachimoji genetic alphabet…
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MetricEight-letter Hachimoji transcription by E. coli RNA polymerase
ValueHachimoji genetic alphabet: E. coli RNA polymerase efficiently transcribed four natural and four unnatural nucleotides, with P:Z and B:S pairs selectively incorporated; P:Z rates were about two-fold below natural dG:CTP and the Z* analog reduced G misincorporation (Nature Communications, 2026-09-02)
DetailCAUSAL: (1) The study reconstituted E. coli multi-subunit RNA polymerase with DNA templates containing the four natural bases plus P, Z, B, and S, and observed selective transcription of both unnatural base pairs. (2) Cryo-EM structures showed P:Z and P:Z* adopting Watson-Crick-like geometry and supporting processive elongation, while replacing Z's nitro group with the Z* carboxamide analog
72
nature.com
Automated prototyping of alternative genetic codes
A robotic cell-free workflow…
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MetricAutomated prototyping of alternative genetic codes
ValueAGENTEX: a robotic cell-free workflow tested compressed genetic codes with engineered ribosomes; a 22-codon code incorporated a non-standard amino acid and produced about six-fold more reporter signal than wild-type ribosomes (Nature, 2026-08-26)
DetailCAUSAL: (1) Harvard Medical School and Wyss Institute researchers automated DNA assembly, tRNA production, cell-free translation, and peptide testing, then used engineered ribosomes to translate a compressed code with a non-standard amino acid.
72
nature.com
Multi-input mammalian synthetic gene circuits🔴 SPOF
RNA trans-splicing and…
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MetricMulti-input mammalian synthetic gene circuits
ValueRNA trans-splicing and synthetic microRNA circuits implemented half-adder, full-adder, and 3-to-1 multiplexer functions in human cells within a single computational layer; the full adder produced the expected outputs across all eight input states (Nature Communications, 2026-08-05)
DetailCAUSAL: (1) Researchers combined orthogonal RNA trans-splicing, synthetic microRNAs, and hybrid promoters to build mammalian circuits that integrated two or three input signals and produced fluorescent or IL-15 outputs. (2) The architecture reduced multi-step logic to parallel reactions, while experiments in HEK293T cells verified expected half-adder, full-adder, and selector-overload states.
71
nature.com
Automated synthetic-cell screening for designed protein functions
PUREdrop: automated…
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MetricAutomated synthetic-cell screening for designed protein functions
ValuePUREdrop: automated microfluidic synthetic-cell screening identified redesigned FtsZ variants with altered assembly timing and morphology, while using 7.4-fold less cell-free translation reagent per reaction (Nature Communications, 2026-08-15)
DetailCAUSAL: (1) Researchers combined programmable DNA loading, cell-free expression in droplets, and time-resolved fluorescence microscopy to screen computationally redesigned FtsZ proteins and protein modulators in synthetic-cell compartments. (2) The platform distinguished variants with earlier or delayed bundle formation, different persistence, and different morphology, and its droplets-on-demand
71
nature.com
Programmable DNA-origami nanosyringe for synthetic-cell control
Synthetic-cell membrane…
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MetricProgrammable DNA-origami nanosyringe for synthetic-cell control
ValueSynthetic-cell membrane control: a fuel-actuated DNA-origami nanosyringe reversibly pierced lipid membranes, transported molecular cargo, and triggered localized DNA reactions, RNA transcription, and catalytic RNA cleavage in vesicles (Nature Nanotechnology, 2026-08-11)
DetailCAUSAL: (1) Researchers built a modular DNA-origami device with a fuel-triggered sliding needle that anchors to lipid membranes, penetrates them, transports tethered cargo, and retracts to reseal the membrane. (2) In synthetic vesicles, the device initiated membrane-localized hybridization chain reactions, externally triggered RNA transcription, and catalytic RNA cleavage, demonstrating
71
nature.com
Massive-scale parallel synthesis of designed DNA
Oligonucleotide hybridization…
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MetricMassive-scale parallel synthesis of designed DNA
ValueMOSAIC: oligonucleotide hybridization assembled more than 1,000 distinct gene fragments in one pot, reached a tested fragment length of 9.9 kilobases, and supported a theoretical 43-million-variant PETase library (Nature Biotechnology, 2026-08-19)
DetailCAUSAL: (1) Tsinghua University and Chinese Academy of Sciences researchers replaced enzymatic extension with reversible hybridization of overlapping oligonucleotides, using microchip-synthesized pools to assemble many distinct fragments in parallel.
71
nature.com
Generative design of synthetic gene circuits
RNA circuit design: a…
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MetricGenerative design of synthetic gene circuits
ValueRNA circuit design: a conditional VAE generated topologies for target adaptation and evolutionary stability, with test reconstruction R² = 0.97 and high-quality results from roughly 2,000 training samples; npj Systems Biology and Applications (2026-03-16)
DetailCAUSAL: (1) The researchers trained a conditional variational autoencoder on simulated three-node RNA circuits and generated new topologies conditioned on adaptation and evolutionary-stability targets. (2) The mechanism is a learned representation of circuit motifs: the model captured adaptation-relevant topologies, and the study reports high-quality generative results with a training set as small as about 2,000 samples. (3) This implies synthetic-biology design may move toward simulation-first, generative searches over circuit architectures, but the paper is a proof of concept on simulated circuits rather than evidence of clinical or industrial deployment.
68
nature.com
16.2Risks; Biosecurity & Dual-Use Threats
273

Collapsing gene synthesis costs and open-source protocols create dual-use risks. Gain-of-function research oversight remains fragmented.

Generative models produce complete phage genomes outside known-sequence screening space— increasing↑ RISING
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CAUSAL: (1) A Nature Biotechnology report dated 2026-09-10 describes Evo 1 and Evo 2 generating complete PhiX174-like bacteriophage genome candidates

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RiskGenerative models produce complete phage genomes outside known-sequence screening space
Severityhigh
Trendincreasing
DetailCAUSAL: (1) A Nature Biotechnology report dated 2026-09-10 describes Evo 1 and Evo 2 generating complete PhiX174-like bacteriophage genome candidates from models trained on more than 2 million phage genomes; computational filtering produced 302 candidates, each based on an approximately 5.4 kilobase, 11-gene phage template, with sequence diversity beyond observed natural examples.
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nature.com
Cross-provider DNA fragment orders bypass pathogen screening— increasing↑ RISING
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CAUSAL: (1) A peer-reviewed Nature Communications stress test found that legal DNA fragments ordered from multiple providers could collectively encode

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RiskCross-provider DNA fragment orders bypass pathogen screening
Severityhigh
Trendincreasing
DetailCAUSAL: (1) A peer-reviewed Nature Communications stress test found that legal DNA fragments ordered from multiple providers could collectively encode select-agent pathogens, and that voluntary controls did not reliably prevent shipment. (2) The gap arises because regulations and screening often evaluate intact sequences or individual orders, while fragmented orders distributed across providers
68
nature.com
16.3Governance; Regulation & International Frameworks
575

Governance is tightening in some jurisdictions but diverging in scope and timing: the US funding ban is still being implemented, FDA genome-editing safety standards remain draft, EU crop rules ease in 2028, and Japan now criminalizes heritable embryo editing.

1
USG Policy for Stopping High-Risk Life Sciences Research

The federal government issued a government-wide policy, required by Executive Order 14292, that explicitly prohibits any federal funding for research meeting its definition of 'dangerous…

20%
▾
NameUSG Policy for Stopping High-Risk Life Sciences Research
Key MetricFederal biosecurity policy: bans dangerous gain-of-function research funding; 0% federal support permitted; implementation pending (Source: NIH/OSP, 2026-07-28)
DetailCAUSAL: (1) The federal government issued a government-wide policy, required by Executive Order 14292, that explicitly prohibits any federal funding for research meeting its definition of 'dangerous gain-of-function' (DGOF) work, and separately restricts 'international research of concern' conducted in countries with inadequate biosafety oversight. (2) The mechanism is a funding-conditioned ban plus a new independent third-party review body that agencies must stand up within 90 days, with all previously flagged DGOF projects remaining suspended under earlier 2025 notices until agency-specific implementation guidance is published within 120 days. (3) This implies the U.S. government has moved from a project-by-project deliberative gain-of-function review process to a categorical funding prohibition, shifting the compliance burden onto research institutions themselves and creating a period of paused research while oversight mechanisms are built out.
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grants.nih.gov
2
FDA genome-editing safety guidance

FDA issued draft guidance covering sequencing strategies, sample selection, analysis parameters, and reporting for human genome-editing products.

40%
▾
NameFDA genome-editing safety guidance
Key MetricFDA draft: standardized next-generation sequencing recommendations for off-target editing and genome-integrity assessment in ex vivo and in vivo gene therapies; FDA (2026-04-14)
DetailCAUSAL: (1) FDA issued draft guidance covering sequencing strategies, sample selection, analysis parameters, and reporting for human genome-editing products. (2) The mechanism is a common nonclinical safety-assessment roadmap for investigational and licensed products, focused on detecting off-target edits and loss of genome integrity; public comments are open for 90 days before finalization. (3) This implies governance is becoming more operationally specific as programmable gene therapies advance, while the document remains draft guidance rather than a final rule.
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fda.gov
3

The European Parliament and Council adopted Regulation (EU) 2026/1388 on plants obtained by targeted mutagenesis and cisgenesis (new genomic techniques), which entered into force July 16, 2026 and…

60%
▾
Key MetricRegulation (EU) 2026/1388, in force 2026-07-16
DetailCAUSAL: (1) The European Parliament and Council adopted Regulation (EU) 2026/1388 on plants obtained by targeted mutagenesis and cisgenesis (new genomic techniques), which entered into force July 16, 2026 and applies from July 17, 2028. (2) This creates a distinct, lighter-touch category outside the EU's strict 2001 GMO rules for a specific class of gene-edited plants, ending a years-long
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ec.europa.eu
4
Japan binding ban on heritable human genome editing

Japan's new Act on Regulation of Handling of Human Genome-Edited Embryos, etc. closes a specific gap in which 2019 guidance barred transfer of edited embryos to a uterus but carried no penalty, while…

80%
▾
NameJapan binding ban on heritable human genome editing
Key MetricJapan enacted Act No. 70 of 2026 on 2026-07-17: criminal penalties replaced non-binding guidance for reproductive use of genome-edited embryos; Nature Medicine (2026-09-08)
DetailCAUSAL: (1) Japan's new Act on Regulation of Handling of Human Genome-Edited Embryos, etc. closes a specific gap in which 2019 guidance barred transfer of edited embryos to a uterus but carried no penalty, while the 2000 cloning law did not cover genome-edited embryos.
72
nature.com
5
FDA prior-knowledge framework for genome-editing therapies

FDA issued a separate draft framework that lets developers use applicable existing chemistry, manufacturing and controls data, nonclinical results, and clinical information across genome-editing…

100%
▾
NameFDA prior-knowledge framework for genome-editing therapies
Key MetricFDA draft guidance issued June 2, 2026: sponsors may leverage public and platform knowledge across manufacturing, nonclinical, and clinical evidence to streamline development of somatic genome-editing therapies; status: open for comment
DetailCAUSAL: (1) FDA issued a separate draft framework that lets developers use applicable existing chemistry, manufacturing and controls data, nonclinical results, and clinical information across genome-editing programs. (2) The mechanism is a more reusable evidence pathway that can reduce redundant testing and accelerate submissions, while requiring sponsors to justify why prior data apply to the
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fda.gov
16.4Gene Therapy Pipeline
676

The clinical pipeline is broadening across modalities: Casgevy now reaches children age 2+, dual-AAV therapy improved hearing in 16 of 20 evaluable patients, and host-cell discoveries increased nonviral retinal editing up to 8-fold, but durability and delivery barriers remain.

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Research−85%
Preclinical−70%
Phase I−60%
Phase II−55%
Phase III−40%
Approved

Typical pharma attrition: 90% Research → Approved. Gene therapy tracking better in Phase III.

16.5Agricultural Biotech
275

Gene-edited crops bypass GMO regulations in some jurisdictions. CRISPR livestock entering food chain. Food security applications accelerating.

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MetricValueDetail
R2 retrotransposon gene addition in crops
Plant genome writing: R2…
▾
MetricR2 retrotransposon gene addition in crops
ValuePlant genome writing: R2 retrotransposons inserted full-length gene cassettes into 28S rDNA in tobacco and rice calli; more than 17% of TG construct rice calli became kanamycin positive, but no insertion was detected in more than 500 regenerated T0 plants (Nature Biotechnology, 2026-06-19)
DetailCAUSAL: (1) The study repurposed R2 retrotransposon proteins for RNA-templated, double-strand-break-free insertion at plant rDNA safe-harbor loci; it installed GFP and recombinase landing-pad cassettes in Nicotiana benthamiana and kanamycin and ALS cassettes in rice calli.
75
nature.com
Gene-edited crop deregulation
Gene-edited crops approved…
▾
MetricGene-edited crop deregulation
ValueGene-edited crops approved: Monsanto's MON 87429 corn (multi-herbicide resistance) deregulated by USDA APHIS, no longer subject to genetic-engineering oversight (Source: aphis.usda.gov, 2026-08-04)
DetailCAUSAL: (1) USDA's Animal and Plant Health Inspection Service deregulated Monsanto Company's MON 87429 corn, engineered for resistance to dicamba, glufosinate, quizalofop, and 2,4-D plus tissue-specific glyphosate resistance for hybrid seed production, removing it entirely from genetic-engineering regulation. (2) The determination rests on APHIS's plant-pest-risk assessment finding the modified corn is unlikely to pose greater plant pest risk than an unmodified comparator, a standard that treats herbicide-stacking edits as agronomically routine rather than novel risk. (3) This implies the regulatory bar for stacking multiple herbicide-resistance traits into a single gene-edited crop continues to clear USDA's plant-pest framework, reinforcing the pattern of multi-trait edited crops reaching commercial deregulation on a predictable administrative timeline rather than facing case-by-case novel scrutiny.
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aphis.usda.gov
16.6Biomanufacturing
175

Lab-grown materials replacing petrochemicals. Precision fermentation scaling. Synthetic biology enabling novel materials and chemicals.

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MetricValueDetail
Industrial biomanufacturing scale-up economics
PHA production costs are…
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MetricIndustrial biomanufacturing scale-up economics
ValuePHA production costs are estimated at about US$4-6/kg versus US$1-2/kg for commodity plastics; feedstock contributes 40-50%, fermentation 30-40%, and downstream processing 10-20% of PHA costs; Nature Communications (2026-05-30)
DetailCAUSAL: (1) The review's techno-economic synthesis identifies feedstock, fermentation, and downstream recovery as the dominant cost blocks in polyhydroxyalkanoate production, with the total cost still several times the commodity-plastics benchmark.
75
nature.com
16.7DNA Data Storage
172

DNA can store 215 petabytes per gram. Commercial applications emerging. Read/write costs declining but still prohibitive for mass adoption.

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MetricValueDetail

1 gram of DNA = ?

🧬1g DNA215 PB
=
🏢~1,000data centers
=
📦shoebox1 exabyte
Cost trajectory:$3,500/MB now→$100/TB by 2030
DNA storage density and retrieval
Siyuan Code: 1.66 bits per…
▾
MetricDNA storage density and retrieval
ValueSiyuan Code: 1.66 bits per nucleotide and 41 exabytes per gram of DNA, with perfect retrieval using six copies per strand and about 1 MB/s encoding and decoding; Nature Communications (2026-08-27)
DetailCAUSAL: (1) The study used a bijective codec that maps binary data onto nearly all suitable low-error DNA sequences while avoiding error-prone patterns, reducing redundancy. (2) In experiments it reached 1.66 bits per nucleotide, 41 exabytes per gram, perfect retrieval with six copies per strand, and approximately 1 MB/s encoding and decoding on commodity hardware.
72
nature.com
16.8Microbiome Engineering
270

Gut microbiome therapeutics entering clinical trials. Soil microbiome engineering for agriculture. Industrial applications expanding.

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MetricValueDetail
Engineered gut microbes for inflammation sensing
Bacteroides thetaiotaomicron…
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MetricEngineered gut microbes for inflammation sensing
ValueBacteroides thetaiotaomicron engineered to detect deoxycholic acid and nitric oxide and either secrete interleukin-35 or display trefoil factor in mouse gut; Nature Microbiology (2026-08-27)
DetailCAUSAL: (1) The cited work reprogrammed a prevalent human gut commensal to sense two inflammation-associated signals and couple detection to either an anti-inflammatory IL-35 output or a trefoil-factor repair output. (2) This creates a programmable sensor-effector circuit in a gut microorganism, linking local disease-state recognition to therapeutic payload delivery in vivo.
72
nature.com
Engineered phage-based CRISPR antimicrobials
EPICIrsaE: nonreplicative…
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MetricEngineered phage-based CRISPR antimicrobials
ValueePICIrsaE: nonreplicative synthetic phage-inducible chromosomal island carrying CRISPR-Cas9 killed Staphylococcus aureus in a murine mastitis model, inhibited 17 of 20 bovine mastitis isolates versus 9 of 20 for helper phage 80alpha, and acted without recipient chromosomal integration - npj Biofilms and Microbiomes (2026-03-24)
DetailCAUSAL: (1) The engineered island packages Cas9 and a guide RNA in a helper-phage capsid, then targets a conserved Staphylococcus aureus regulatory RNA after delivery. (2) It killed bacteria in vivo even when the target strain's protein biofilm protected it in vitro, and its activity did not require integration into the recipient chromosome.
68
nature.com
16.9Bioweapons & Dual-Use Concerns
474

Dual-use exposure is widening through three concrete paths: AI-designed sequences may evade known-pathogen matching, mobile CRISPR cargo can spread edits between bacteria, and long viral or repository sequences fall outside current customer screening.

Long pathogen sequences in non-custom repositories evade screening— new↑ RISING
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CAUSAL: (1) A 2026 risk framework identifies a specific acquisition gap: US synthesis guidance did not address customer screening for non-custom repos

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RiskLong pathogen sequences in non-custom repositories evade screening
Severityhigh
Trendnew
DetailCAUSAL: (1) A 2026 risk framework identifies a specific acquisition gap: US synthesis guidance did not address customer screening for non-custom repository materials, including long viral sequences and reverse-genetics systems transferred between laboratories; the paper also cites an estimate that only 15% of global synthetic DNA providers screen for sequences of concern.
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ebi.ac.uk
AI-generated biological sequences evade known-pathogen DNA screening— increasing↑ RISING
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CAUSAL: (1) A comparative analysis of synthetic biology, AI and automation across 16 jurisdictions reports that current DNA-synthesis screening is bui

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RiskAI-generated biological sequences evade known-pathogen DNA screening
Severityhigh
Trendincreasing
DetailCAUSAL: (1) A comparative analysis of synthetic biology, AI and automation across 16 jurisdictions reports that current DNA-synthesis screening is built around matching known pathogen databases, while AI-generated sequences may be novel enough to evade those matches yet still have concerning functions; it also finds no surveyed jurisdiction with specific rules for AI-designed biological
72
nature.com
Mobile CRISPR cargo could spread population-level bacterial edits beyond the intended target— new↑ RISING
high
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CAUSAL: (1) Researchers built pPro-MobV, a conjugatively transferable plasmid that delivers a self-amplifying CRISPR editing system into bacterial rec

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RiskMobile CRISPR cargo could spread population-level bacterial edits beyond the intended target
Severityhigh
Trendnew
DetailCAUSAL: (1) Researchers built pPro-MobV, a conjugatively transferable plasmid that delivers a self-amplifying CRISPR editing system into bacterial recipients; laboratory conjugation frequency was about 40%. (2) Induction reduced ampicillin-resistant colony recovery by about 1,000-fold and reduced resistance by 3 to 5 logs across tested recipient genotypes.
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nature.com
Mobile genetic elements can fuse plasmids and expand bacterial resistance transfer— new↑ RISING
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CAUSAL: (1) A study of Staphylococcus aureus found that transposases and homologous recombination can fuse distinct plasmids into multireplicon elemen

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RiskMobile genetic elements can fuse plasmids and expand bacterial resistance transfer
Severityhigh
Trendnew
DetailCAUSAL: (1) A study of Staphylococcus aureus found that transposases and homologous recombination can fuse distinct plasmids into multireplicon elements with expanded gene content and transfer potential. (2) Antibiotic pressure enriched the fused plasmids, while opposing phage selection favored deletion derivatives that retained essential functions and transmissibility.
72
nature.com
16.10Synthetic Biology Investment
175

Synbio VC rebounds to $18B. IPO activity recovering. Major M&A as pharma acquires biotech capabilities.

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MetricValueDetail
U.S. defense biomanufacturing investment
Department of Defense…
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MetricU.S. defense biomanufacturing investment
ValueDepartment of Defense biomanufacturing investment: US$965.2 million since 2021 across three initiatives supporting domestic supply chains and facility scale-up; two initiatives are planned to end after FY2027 and FY2028; GAO (2026-02-26)
DetailCAUSAL: (1) GAO reports that DOD invested $965.2 million across initiatives for military-lab maturation, a national facility network, and commercial-scale domestic biomaterials production. (2) The spending responds to identified dependence on foreign suppliers and an infrastructure gap, especially insufficient pilot-scale capacity to move promising biotechnology from laboratory work to commercial
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gao.gov
▸Verified Sources (169)

This topic's hunt pipeline cites only these 169 domains — no general web sources.

Government / Regulator

  • U.S. NIH — nih.gov
  • U.S. FDA — fda.gov
  • U.S. CDC — cdc.gov
  • USDA (biotech crops) — usda.gov
  • European Medicines Agency — ema.europa.eu
  • U.S. Environmental Protection Agency — epa.gov
  • National Human Genome Research Institute — genome.gov
  • U.S. Federal Select Agent Program — selectagents.gov
  • India Department of Biotechnology — dbtindia.gov.in
  • European Food Safety Authority — efsa.europa.eu
  • European Chemicals Agency — echa.europa.eu
  • UK Health and Safety Executive — hse.gov.uk
  • UK Food Standards Agency — food.gov.uk
  • UK Department for Environment, Food and Rural Affairs — defra.gov.uk
  • Robert Koch Institute — rki.de
  • French Agency for Food, Environmental and Occupational Health and Safety — anses.fr
  • Japan Ministry of Agriculture, Forestry and Fisheries — maff.go.jp
  • Japan Ministry of Health, Labour and Welfare — mhlw.go.jp

International Organisation

  • World Health Organization — who.int

Research / Journal

  • NCBI / GenBank — ncbi.nlm.nih.gov
  • Nature — nature.com
  • Science (AAAS) — science.org
  • Cell Press — cell.com
  • PNAS — pnas.org
  • The Lancet — thelancet.com
  • bioRxiv — biorxiv.org
  • medRxiv — medrxiv.org
  • EMBO Press — embopress.org
  • arXiv — arxiv.org
  • eLife — elifesciences.org
  • PLOS — plos.org

Primary Lab / Company

  • Broad Institute of MIT and Harvard — broadinstitute.org
  • Wellcome Sanger Institute — sanger.ac.uk
  • European Molecular Biology Laboratory — embl.org
  • Joint BioEnergy Institute — jbei.org
  • J. Craig Venter Institute — jcvi.org
  • Wyss Institute for Biologically Inspired Engineering — wyss.harvard.edu
  • Institut Pasteur — pasteur.fr

Statistical / Data Agency

  • DNA Data Bank of Japan — ddbj.nig.ac.jp
  • European Bioinformatics Institute — ebi.ac.uk
  • Ensembl — ensembl.org
  • RCSB Protein Data Bank — rcsb.org
  • Protein Data Bank Japan — pdbj.org
  • UniProt Consortium — uniprot.org
  • Europe PMC — europepmc.org

Non-Profit / Archive

  • U.S. National Academies — nationalacademies.org
  • American Society for Microbiology — asm.org
  • Addgene (plasmid repository) — addgene.org
  • iGEM Foundation — igem.org
  • Synthetic Biology Open Language Community — sbolstandard.org

Applies to all topics (119)

  • United Nations — un.org
  • World Bank — worldbank.org
  • IMF — imf.org
  • OECD — oecd.org
  • European Commission — ec.europa.eu
  • U.S. Congress — congress.gov
  • U.S. GAO — gao.gov
  • UNESCO — unesco.org
  • UN Environment Programme — unep.org
  • UN Development Programme — undp.org
  • International Telecommunication Union — itu.int
  • World Intellectual Property Organization — wipo.int
  • World Meteorological Organization — wmo.int
  • International Atomic Energy Agency — iaea.org
  • International Civil Aviation Organization — icao.int
  • International Maritime Organization — imo.org
  • UN Food and Agriculture Organization — fao.org
  • International Labour Organization — ilo.org
  • UNCTAD — unctad.org
  • UN Human Rights Office — ohchr.org
  • UN Refugee Agency — unhcr.org
  • International Organization for Migration — iom.int
  • UN Office on Drugs and Crime — unodc.org
  • UNICEF — unicef.org
  • World Food Programme — wfp.org
  • World Trade Organization — wto.org
  • Bank for International Settlements — bis.org
  • Financial Action Task Force — fatf-gafi.org
  • IPCC — ipcc.ch
  • International Renewable Energy Agency — irena.org
  • International Energy Agency — iea.org
  • African Union — au.int
  • ASEAN — asean.org
  • Organization of American States — oas.org
  • CARICOM — caricom.org
  • Pacific Islands Forum — forumsec.org
  • African Development Bank — afdb.org
  • Asian Development Bank — adb.org
  • Inter-American Development Bank — iadb.org
  • Asian Infrastructure Investment Bank — aiib.org
  • EBRD — ebrd.com
  • Council of Europe — coe.int
  • OSCE — osce.org
  • South Africa Government — gov.za
  • Statistics South Africa — statssa.gov.za
  • South African Reserve Bank — resbank.co.za
  • Central Bank of Nigeria — cbn.gov.ng
  • Kenya National Bureau of Statistics — knbs.or.ke
  • Central Bank of Kenya — centralbank.go.ke
  • Bank of Ghana — bog.gov.gh
  • Central Bank of Egypt — cbe.org.eg
  • Bank Al-Maghrib (Morocco) — bkam.ma
  • Rwanda National Institute of Statistics — statistics.gov.rw
  • Government of China — gov.cn
  • China National Bureau of Statistics — stats.gov.cn
  • People's Bank of China — pbc.gov.cn
  • Japan Ministry of Foreign Affairs — mofa.go.jp
  • Statistics Bureau of Japan — stat.go.jp
  • Bank of Japan — boj.or.jp
  • Government of South Korea — korea.kr
  • Bank of Korea — bok.or.kr
  • Statistics Korea — kostat.go.kr
  • Government of India — india.gov.in
  • Reserve Bank of India — rbi.org.in
  • India Ministry of Statistics — mospi.gov.in
  • Press Information Bureau of India — pib.gov.in
  • Government of Singapore — gov.sg
  • Monetary Authority of Singapore — mas.gov.sg
  • Singapore Department of Statistics — singstat.gov.sg
  • Bank Negara Malaysia — bnm.gov.my
  • Malaysia Department of Statistics — dosm.gov.my
  • Bank Indonesia — bi.go.id
  • Statistics Indonesia — bps.go.id
  • Bank of Thailand — bot.or.th
  • State Bank of Vietnam — sbv.gov.vn
  • State Bank of Pakistan — sbp.org.pk
  • Pakistan Bureau of Statistics — pbs.gov.pk
  • Bangladesh Bank — bb.org.bd
  • Central Bank of Sri Lanka — cbsl.gov.lk
  • Nepal Rastra Bank — nrb.org.np
  • Saudi Central Bank — sama.gov.sa
  • Saudi General Authority for Statistics — stats.gov.sa
  • United Arab Emirates Government — u.ae
  • Central Bank of the UAE — centralbank.ae
  • Qatar Central Bank — qcb.gov.qa
  • Bank of Israel — boi.org.il
  • Israel Central Bureau of Statistics — cbs.gov.il
  • Central Bank of Turkey — tcmb.gov.tr
  • Turkish Statistical Institute — tuik.gov.tr
  • Government of Brazil — gov.br
  • IBGE (Brazil statistics) — ibge.gov.br
  • Central Bank of Brazil — bcb.gov.br
  • Government of Mexico — gob.mx
  • INEGI (Mexico statistics) — inegi.org.mx
  • Bank of Mexico — banxico.org.mx
  • Government of Argentina — argentina.gob.ar
  • INDEC (Argentina statistics) — indec.gob.ar
  • Central Bank of Argentina — bcra.gob.ar
  • Central Bank of Chile — bcentral.cl
  • Chile National Statistics Institute — ine.cl
  • DANE (Colombia statistics) — dane.gov.co
  • Bank of the Republic (Colombia) — banrep.gov.co
  • Central Reserve Bank of Peru — bcrp.gob.pe
  • INEI (Peru statistics) — inei.gob.pe
  • Australian Bureau of Statistics — abs.gov.au
  • Reserve Bank of Australia — rba.gov.au
  • Government of New Zealand — govt.nz
  • Stats NZ — stats.govt.nz
  • Reserve Bank of New Zealand — rbnz.govt.nz
  • Government of the United Kingdom — gov.uk
  • UK Office for National Statistics — ons.gov.uk
  • Bank of England — bankofengland.co.uk
  • Swiss Federal Administration — admin.ch
  • Swiss National Bank — snb.ch
  • Statistics Norway — ssb.no
  • Statistics Sweden — scb.se
  • Government of Canada — canada.ca
  • Statistics Canada — statcan.gc.ca
  • Bank of Canada — bankofcanada.ca