Cell therapy crossed into autoimmune disease.
CD19 CAR-T and related immune-reset approaches now have human remission signals and expanding trials.
As of June 2026, immunology is moving from chronic suppression toward immune-state reset, tissue-resolution logic, and circuit-mediated control. Autoimmune CAR-T, fibrosis reversal, vagus-mediated inflammation control, and immune-aging programs all raise the same buyer question: which immune state changed, and can it stay changed safely?
This page tracks immune reset durability, tissue sanctuary risk, fibrosis reversibility, closed-loop substitution, and whether remission is mechanistically explained or only observed.
The strongest work measures whether interventions remove pathogenic memory, restore regulation, resolve tissue injury, and avoid rebound, infection, malignancy, or organ toxicity.
Immune state, inflammatory memory, tolerance, autoimmunity, fibrosis, tissue resolution, neuro-immune control, and durable immune intervention endpoints.
CD19 CAR-T and related immune-reset approaches now have human remission signals and expanding trials.
Fibroblast states, macrophage programs, extracellular matrix dynamics, and tissue mechanics can be mapped more specifically.
Programs still need reconstitution, relapse, sanctuary, infection, and malignancy gates before they can claim immune reset.
Each signal below starts from the field: what changed, why it matters, and which research or buyer decision becomes more testable.
Published and reported lupus experience continues to show remission potential, including severe cases treated with engineered T-cell approaches.
The buyer question is whether remission survives B-cell return, tissue sanctuary, immune reconstitution, and scalable manufacturing.
Changes platform review from potency to reset durability and control.
RESET-RA tested vagus nerve-targeted neuromodulation in a randomized sham-controlled rheumatoid arthritis trial.
Bioelectronic immune control needs indication-by-circuit logic, measurable biomarkers, and substitution value.
Changes whether neuro-immune devices are monitored, partnered, or avoided.
A randomized Phase 2a trial of a generative-AI-discovered TNIK inhibitor in idiopathic pulmonary fibrosis was published in Nature Medicine.
Fibrosis programs need to prove restoration of resolution biology rather than only slowed matrix accumulation.
Moves target diligence toward organ context, reversibility, and endpoint hierarchy.
Programs increasingly connect thymic output, clonal expansion, myeloid skew, senescence, infection risk, vaccine response, and tissue repair.
The actionable question is which immune node limits resilience, not whether an immune marker changes with age.
Changes next-study design toward resilience-limiting node classification.
These representative programs and research fronts frame the active field before the page maps Zemi Dossiers into it.
CASTLE-style studies and NHS lupus experience are turning dramatic remission cases into questions about dose, lymphodepletion, B-cell return, relapse, and scalable manufacturing.
Cell therapy controlmRNA, controllable, and alternative-target cell therapies are trying to preserve remission logic while reducing prolonged aplasia, CRS/ICANS, and bespoke manufacturing burden.
Fibrosis biologyIPF and multi-organ fibrosis programs are testing whether fibroblast, macrophage, endothelial, matrix, and tissue-mechanics states can be reversed rather than just slowed.
Bioelectronic medicineRESET-RA makes neuromodulation a serious immunology surface, but the field still needs biomarkers, indication-by-circuit logic, and substitution economics.
Immune resilienceThymic output, clonal hematopoiesis, myeloid skew, infection risk, vaccine response, and repair capacity are being connected into resilience-limiting node maps.
These are field-level gates first. The dossier library appears later as the set of existing Zemi products that can help investigate them.
Does remission survive immune reconstitution and steroid withdrawal?
Which tissue or immune compartment remains pathogenic after apparent reset?
Does tissue function improve, or only the inflammatory marker?
Can a device or cell therapy be dialed, stopped, or rescued?
Are infection, malignancy, cytokine, and organ-toxicity risks bounded?
Which biomarker, tissue, function, or relapse endpoint decides the next study?
Each dossier card uses stats from the actual research report manifest and Evidence & Decision Workbook, including pages, workbook sheets, evidence/source rows, claim rows, power rows, and decision instruments where present.
Distinguishes remission achieved from durability solved by mapping persistence, sanctuary, and immune reconstitution risks.
Which autoimmune cell-therapy programs have a credible durability path, and what would reveal relapse risk before scale-up?
Pairs the research report with workbook evidence rows, claim discipline, decision instruments, power calculations, and next-study surfaces.
Identifies the rate-limiting resolution node and the matched research move across persistence, scar integrity, and reversal measurement.
Which fibrosis programs target the binding resolution node, and what would show whether repair can occur without destabilizing tissue integrity?
Pairs the research report with workbook evidence rows, claim discipline, decision instruments, power calculations, and next-study surfaces.
Routes immune-aging programs to the binding supply-chain node before treating broad immune decline as one therapeutic target.
Which immune-aging interventions target the binding node, and when would restoration create more risk than resilience?
Pairs the research report with workbook evidence rows, claim discipline, decision instruments, power calculations, and next-study surfaces.
Uses convergent detection to subtype disease, while requiring sign-labile biology and therapeutic-window logic before treatment spend.
Which neurodegeneration programs are using convergence for detection while still measuring the divergent biology needed for treatment decisions?
Pairs the research report with workbook evidence rows, claim discipline, decision instruments, power calculations, and next-study surfaces.
Scores indication readiness by biomarker validity, sensing fidelity, decoding generalizability, circuit match, and substitution economics.
Which indications have enough biomarker, sensing, decoding, and reimbursement logic to justify a closed-loop bioelectronic program?
Pairs the research report with workbook evidence rows, claim discipline, decision instruments, power calculations, and next-study surfaces.
Links MRD timing, antigen selection, vaccine manufacture, immune response, and recurrence endpoints into a recurrence-prevention decision gate.
Which MRD-guided vaccine strategies have enough timing, manufacturing, immune-response, and endpoint logic to justify next-step validation?
Pairs the research report with workbook evidence rows, claim discipline, decision instruments, power calculations, and next-study surfaces.
Separates IO platform promise from therapeutic-index reality across potency, specificity, resistance, safety, and combination logic.
Which next-generation IO programs improve therapeutic index rather than simply adding potency, complexity, or combination burden?
Pairs the research report with workbook evidence rows, claim discipline, decision instruments, power calculations, and next-study surfaces.
Maps the durability ceiling across host tolerance, organ-specific failure physiology, immune compatibility, and organ-scale function.
Which xenotransplantation programs are limited by host tolerance, organ-specific failure physiology, perfusion, or immune compatibility rather than edit count?
Pairs the research report with workbook evidence rows, claim discipline, decision instruments, power calculations, and next-study surfaces.
These are the developments most likely to change the field map, evidence posture, or next-study priorities.
The field needs relapse timing, immune reconstitution, steroid-free remission, and severe-adverse-event rates across diseases.
FibrosisA credible antifibrotic program should show function or structure moving in the right tissue, not only a biomarker trend.
Neuro-immuneReusable sensing and control layers would change bioelectronic medicine from device feature to therapeutic platform.
Immune agingMarkers become actionable only when they predict a modifiable failure in defense, repair, or treatment tolerance.
The public page stays readable, but the underlying domain model tracks source-linked developments that change evidence posture, buyer decisions, or next-study priorities.
The decisive evidence will be what happens after immune reconstitution and across tissue sanctuary sites.
2025 / RESET-RA Randomized neuro-immune modulation gives the domain a device benchmark.Future claims should specify the biomarker, circuit, dose rule, and patient-selection logic, not only stimulation feasibility.
2025 / Fibrosis AI-discovered fibrosis drugs still have to prove resolution biology.The domain signal is stronger when target discovery, tissue state, function, and endpoint sensitivity line up.
Request access to inspect the full research report, Evidence & Decision Workbook, power calculations, and release-audit surfaces behind each decision package.