Thesis, evidence, and buyer actions
Frames the domain, strategic thesis, opportunities, risks, limitations, near-discovery signals, and what different buyers should do next.
Fast-moving medical fields generate papers, trial updates, registry changes, platform claims, and company signals faster than teams can separate signal from noise. Zemi Research converts that evidence into a buyer-ready decision map: what is established, what is inferred, what remains hypothetical, what would prove or break the thesis, and what to build, fund, avoid, monitor, or test next.
These are not generic literature reviews, market summaries, or automated article bundles. They are premium medical research-intelligence products designed to help serious builders and funders decide where frontier medical research is actually investable, testable, strategically defensible, or too early.
Frames the domain, strategic thesis, opportunities, risks, limitations, near-discovery signals, and what different buyers should do next.
Shows claim ledgers, evidence tables, source-support verdicts, excluded claims, score basis, traceability certificate, and audit surfaces.
Converts conclusions into explicit, evidence-linked hypotheses, each with a primary endpoint and threshold, the named result that would falsify it, and the validation gates that would strengthen, weaken, or break the thesis. Near-discovery propositions, not proven claims.
Pairs each major hypothesis with population, intervention, comparator, and endpoint, then effect-size, alpha, target power, computed sample size, design sample size, budget, and timeline — and the buyer decision each study resolves.
This preview shows how the Dossier format moves from evidence narrative to inspectable decision infrastructure: report preview, workbook power sheet, traceability surfaces, hypotheses, and limitations.
This is the section the top Dossiers tab now lands on: the nine corrected domains, their primary Zemi Dossiers, and the package stats buyers need before choosing a dossier or domain page.
Cancer biology, molecular residual disease, recurrence prevention, immuno-oncology, therapeutic resistance, early intervention, and evidence standards for cancer programs.
Links MRD timing, antigen selection, vaccine manufacture, immune response, and recurrence endpoints into a recurrence-prevention decision gate.
Next-Generation Immuno-Oncology PlatformsSeparates IO platform promise from therapeutic-index reality across potency, specificity, resistance, safety, and combination logic.
Immune state, inflammatory memory, tolerance, autoimmunity, fibrosis, tissue resolution, neuro-immune control, and durable immune intervention endpoints.
Distinguishes remission achieved from durability solved by mapping persistence, sanctuary, and immune reconstitution risks.
Fibrosis as Failed ResolutionIdentifies the rate-limiting resolution node and the matched research move across persistence, scar integrity, and reversal measurement.
Immune Aging Supply ChainRoutes immune-aging programs to the binding supply-chain node before treating broad immune decline as one therapeutic target.
Therapeutic platforms that edit, replace, silence, repair, regulate, or compensate for DNA, RNA, chromatin, and variant-to-function disease mechanisms.
Classifies whether mitotic dilution, active erasure, or reactivation pressure will dominate before buyers commit to delivery, indication, or permanence strategy.
In Vivo Gene EditingTurns in-vivo editing from a modality story into a coupled-system failure-mode map.
RNA Editing & the Permanence SpectrumPositions RNA editing on a permanence spectrum so buyers do not confuse reversibility with durability or safety by default.
Cardiomyopathy, heart failure, arrhythmia, vascular biology, cardiometabolic risk, cardiac devices, genetic disease, and measurable cardiovascular outcome gates.
Resistance, pathogen threat ranking, fungal disease, host vulnerability, diagnostics, antimicrobial precision, surveillance gaps, and countermeasure design.
Maps fungal threat expansion against diagnostic timing, drug scarcity, resistance, toxicity, and host-risk stratification.
Precision AMR CountermeasuresUses mutational supply, diagnostic timing, pathogen burden, and combination logic to assess durability against resistance escape.
Small-population development, monogenic and mitochondrial disease, natural history, surrogate endpoints, variant interpretation, N-of-1 therapies, and evidence flexibility.
Routes variant interpretation toward rescue experiments instead of stopping at association, prediction, or annotation confidence.
Mitochondrial Medicine Permanence LadderMaps mitochondrial interventions onto a permanence ladder so buyers do not overbuild or underbuild the required correction.
Clinical AI, digital biomarkers, computational biology, prospective validation, deployment drift, sensor-derived measures, and decision utility.
Separates static generation wins from the harder validation problem: whether AI can predict dynamic biological response under prospective tests.
AI Clinical Validation & Digital BiomarkersTurns AI and digital biomarkers into validation-gate questions: prospective utility, generalization, drift, fairness, and endpoint acceptance.
Brain states, neural circuits, neurodegenerative biology, neural interfaces, closed-loop modulation, memory science, and neuro-immune control systems.
Diagnoses whether BCI/BSI decline is recoverable code drift or irreversible source loss before buyers overspend on the wrong layer.
Bioelectronic Neuro-Immune Closed LoopScores indication readiness by biomarker validity, sensing fidelity, decoding generalizability, circuit match, and substitution economics.
Engineering Memory / EngramsResolves the Lost-vs-Locked diagnostic gate before choosing re-access, editing, stabilization, reconstruction, or avoidance.
Neurodegeneration ConvergenceUses convergent detection to subtype disease, while requiring sign-labile biology and therapeutic-window logic before treatment spend.
New approach methodologies, organ-on-chip systems, biofabrication, perfusable tissues, xenotransplantation, platform devices, and translational engineering gates.
Routes a proposed context of use to its binding qualification gate before buyers spend on biological completeness.
Ovarian Aging Multi-ClockSeparates endocrine, follicular, mitochondrial, stromal, and functional clocks before buyers infer benefit from measurement movement.
Partial Epigenetic ReprogrammingMaps the rejuvenation-transformation margin so buyers can distinguish clock movement from functional, controlled, and safe benefit.
Perfusable Vascular NetworksEvaluates whether vascular networks are merely visible, truly perfusable, functionally mature, and integration-ready.
Xenotransplantation Durability CeilingMaps the durability ceiling across host tolerance, organ-specific failure physiology, immune compatibility, and organ-scale function.
Domain pages are field-first maps: what changed recently, what is measurable, what remains unresolved, and which Zemi Dossiers fit the active decision gates.
A Zemi Dossier is the output of a process no individual reader can replicate: hundreds of sources synthesized, every claim independently audited, and every number traceable to where it came from — compressing months of analyst work into one decision-ready package.
See how it's builtHundreds of papers, trials, registries, regulatory records, and company signals are read and reconciled — surfacing cross-field connections no single analyst spans.
An AI auditor resolves each citation against live databases and tests whether the source actually supports the claim, so issues are corrected before release.
Claims carry verbatim excerpts and page anchors; figures and power rows map back to identifiers. You can audit the dossier instead of trusting it.
What would take a team months to assemble — less thoroughly — arrives decision-ready, with the excluded and quarantined work preserved.
Nine medical domains, each with field-first decision dossiers — every package pairs a research report with an Evidence & Decision Workbook and power-calculated next studies.