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Research draft

cyborg

vr.tr.cyborg · PHY.LIV

Enable an AI agent to recognise a living organism with functionally integrated technology, assess the state of that integration, and determine which interventions are feasible and authorised.

Thing Registry Physical world and living systems

Research draft, second pass

A second pass drafted this model: the structure a model of this thing needs, and what is known about it in the world. The line under this one says how the second half was obtained - researched against sources, or recalled without web access, in which case nothing here was read anywhere and every claim is a lead to verify. Unreviewed either way.

Researched by: Codex + Grok

Purpose and description

Enable an AI agent to recognise a living organism with functionally integrated technology, assess the state of that integration, and determine which interventions are feasible and authorised.

A cyborg is a living organism whose regulation, sensing, or action is continuously coupled to an engineered system in or on the body, so that organism and apparatus operate as one adaptive unit rather than as a person merely using a detachable tool.

It can be Assess whether a candidate organism-technology composite meets a stated cyborg boundary.; Trace an observed capability or impairment through its biological and technical contributors.; Compare interface observations with documented operating limits and flag unresolved conditions.; Determine whether a proposed control change is technically supported and authorised.; Assess the documented consequences and prerequisites of maintenance, disconnection, or component replacement.; Record changes to composite membership and function while preserving the organism's continuity..

Distinguishing features

Identify a living organism participating in the composite; biological appearance alone does not distinguish a cyborg from a robot.

Identify a technological component and the organism-level function it participates in; mere proximity or carriage is insufficient under the working boundary.

Document an ongoing bodily or operational coupling; implantation alone does not establish functional integration.

Describe what changes in the coupled function when the component is disconnected, disabled, or removed, using existing evidence where testing would be unsafe.

For wearables, prostheses, and temporary support systems, apply an explicit integration threshold and retain a disputed classification when the evidence does not resolve it.

Scope

+ The living organism and technological components participating in the composite

+ The evidence and criteria establishing functional integration

+ Functions produced, restored, modified, or supported through that integration

+ Biological-technical interfaces and their current condition

+ Control authority, experienced agency, and intervention permissions

+ Dependencies and transitions associated with maintenance, disconnection, replacement, or removal

- The organism's complete anatomy, medical history, or species description

- Standalone device specifications and manufacturing processes

- Ordinary tool use without qualifying functional integration

- Entire communication networks or service organisations supporting components

- Purely artificial robots without a living organism

- General legal personhood or ownership rules beyond their recorded application to the composite

Characteristics

Constituent organism
Reference to the living organism participating in the composite Anchors the composite to a living participant without assuming that participant is human.
Cyborg classification
Qualifies under stated criterion | does not qualify | disputed | undetermined Makes the contested integration boundary explicit.
Integrated technological components
Component references with inclusion rationale and integration interval Separates constituents of the composite from nearby tools and supporting infrastructure.
Coupling mode
Mechanical | electrical | chemical | sensory | computational | other documented mode; multiple values permitted Identifies how biological and technical processes affect one another.
Functional contribution
Component-to-organism function relationship, including restoration, substitution, support, or augmentation where evidenced Explains what the integration accomplishes without assuming all cyborg technology enhances capability.
Dependence on integration
Documented effects of loss: no demonstrated effect | reduced function | loss of function | threat to viability | unknown Constrains disconnection and maintenance decisions.
Interface condition
Within documented operating bounds | degraded | failed | unassessed, per interface Locates problems at the coupling rather than attributing every problem to the organism or device alone.
Coupled response delay
Milliseconds or seconds, with stimulus, response, operating mode, and measurement conditions Supports assessment of time-sensitive coupled functions when response delay is relevant.
Control allocation
Function-to-controller mapping covering organism, onboard automation, external operator, and shared control Shows who or what can initiate, modify, or stop a function.
Intervention authority
Actor-to-permitted intervention relationship, with consent or other authority basis, conditions, and expiry Separates technical ability to intervene from permission to do so.

Also called

Bio-Intelligent Cyborg Insect

Where this came from

wikidata · CC0 1.0

Drafted structure

Bundle to layer to finding to question, as the second pass will find it: 6 bundles · 11 layers · 18 findings · 28 questions.

Composite boundary Establishes which living and technological participants constitute this cyborg.

A cyborg model must distinguish integrated technology from equipment merely used or carried by an organism.

Living participant

Identifies the organism around which the composite is recognised.

Organism anchor

Record the participating organism and the evidence supporting its identification as the living constituent.

  1. Which living organism anchors this composite, and how is it identified? definition
  2. What observation or record supports that identification? provenance

Integration membership

Determines which technological components belong within the composite boundary.

Functional inclusion test

Record the adopted integration criterion and its application to each candidate component.

  1. What bodily or operational coupling makes this component part of the composite rather than a carried tool? boundary
  2. Which worn, implanted, remote, or temporary components remain outside or disputed under that criterion? boundary
Coupled function Explains what biological and technological processes accomplish together.

The composite's capabilities and dependencies cannot be inferred from a component inventory alone.

Functional contribution

Connects technological participation to specific organism-level functions.

Joint function account

Record the function, its biological and technical contributors, and the evidence of their contribution.

  1. Which organism-level function does the technology restore, substitute for, support, modify, or augment? definition
  2. What observations distinguish demonstrated function from intended or claimed capability? provenance

Functional dependence

Captures how the organism's function changes when technological participation changes.

Loss and fallback

Record documented loss consequences, available fallback functions, and uncertainty about disconnection.

  1. What is known to happen to the organism's function if this component loses power, communication, or physical coupling? boundary
  2. Which fallback or support must be available before a planned interruption? action
Biological-technical interfaces Describes the sites and processes through which the organism and technology interact.

Integration introduces interface conditions that neither a standalone organism model nor a device model fully captures.

Coupling pathways

Identifies what crosses each interface and in which direction.

Interface exchanges

Record exchanges of force, energy, material, or signals without assuming every interface is bidirectional.

  1. Where does each biological-technical interface occur, and what crosses it in each direction? definition
  2. Which measurable properties determine whether that exchange supports its intended function? measurement

Interface condition

Assesses the current integrity and compatibility of the coupling.

Coupling integrity

Record evidence of interface performance, biological response, and changes affecting compatibility.

  1. What current observations show the condition of the biological side, technical side, and connection between them? measurement
  2. Which documented interface conditions require adjustment, specialist assessment, or suspension of a coupled function? action
Control and agency Identifies how coupled functions are directed and whose authority governs intervention.

Technology integrated with an organism can make device commands consequential for bodily action, perception, or support.

Control pathways

Maps sources of commands, feedback, and override for each coupled function.

Command and override

Record how organism-generated input, automation, and external commands influence function.

  1. Which inputs initiate or modify this function, and how are conflicting inputs resolved? definition
  2. Who or what can override or stop the function, and what consequences follow? action

Experienced agency and authority

Separates reported experience and preferences from technical control and intervention permission.

Bodily intervention authority

Record available first-person reports, communication limits, and the authority applicable to proposed changes.

  1. Where reportable, how does the organism describe control, comfort, or interference associated with the integration? provenance
  2. What consent or other applicable authority permits this specific intervention, and what limits apply? action
Integration continuity Tracks how the composite persists through adaptation, servicing, and component changes.

Maintaining integrated technology may interrupt organism-level functions or change the relationship between organism and component.

Adaptation and maintenance

Captures ongoing requirements for sustaining the coupled function.

Sustained coupling requirements

Record power, consumables, calibration, training, and external support required by the integration where applicable.

  1. Which recurring resources or activities sustain this organism-technology coupling? definition
  2. What evidence indicates that bodily change, learning, or component drift requires reassessment or recalibration? measurement

Component transitions

Handles attachment, replacement, removal, and changes in integration status.

Transition and continuity

Record how a proposed transition affects composite membership, coupled function, and continuity of the record.

  1. Which functional checks and support arrangements are required before and after replacement or removal? action
  2. Does this transition preserve the same composite record, create a new configuration, or end its classification as a cyborg under the adopted criterion? boundary
Evidence and external alignment What the world already says about this thing, gathered so the model can be checked against it.

A model that cannot be lined up against existing standards, identifiers and practice cannot be adopted by anyone who already uses them.

Reported evidence

Findings from the breadth pass, kept separate from the structural claims.

Kinds and varieties

Reported by the breadth pass; each item needs checking against its source before it becomes normative.

  • restorative medical cyborg (lost function replaced: pacemaker, cochlear implant, myoelectric limb)
  • homeostatic or metabolic cyborg (closed-loop physiological control, the original 1960 sense)
  • neural cyborg (stable coupling to the nervous system: deep-brain stimulation, brain-computer interface)
  • enhancement cyborg (function pushed past the typical human range rather than restored)
  • wearable or exoskeletal cyborg (disputed: worn robots counted only on a loose definition)
  • non-human cyborg (animals or insects with telemetry, stimulation, or control implants)
  • science-fiction cyborg (cultural type: partly organic, partly machine person)
  • theoretical or political cyborg (Haraway: hybrid identity, not a hardware inventory)
  1. Which of these kinds and varieties hold for the sense of cyborg this model covers, and on what evidence? provenance

Identifiers and schemes

Reported by the breadth pass; each item needs checking against its source before it becomes normative.

  • Library of Congress Subject Headings - Cyborgs - Subject heading for the concept in library cataloguing; not a unique instance identifier.
  • Wikidata - item labelled 'cyborg' (human-machine organism concept) - A Q-number exists on Wikidata for the concept; the numeric id is not restated here because it was not re-verified in this pass.
  1. Which of these identifiers and schemes hold for the sense of cyborg this model covers, and on what evidence? provenance

Standards and regulation

Reported by the breadth pass; each item needs checking against its source before it becomes normative.

  • ISO 14708 series (active implantable medical devices) - International Organization for Standardization
  • ISO 5841 (cardiac pacemakers) - International Organization for Standardization
  • IEC 60601-1 (medical electrical equipment, basic safety and essential performance) - International Electrotechnical Commission
  • Regulation (EU) 2017/745 (Medical Device Regulation), succeeding the Active Implantable Medical Devices Directive 90/385/EEC - European Union
  • United States FDA Class III / PMA regime for many active implants (21 CFR Parts 814 and 860) - U.S. Food and Drug Administration
  • WADA Prohibited List, where some performance-enhancing technologies and substances used with the body are banned in sport - World Anti-Doping Agency
  1. Which of these standards and regulation hold for the sense of cyborg this model covers, and on what evidence? provenance

Real-world use

Reported by the breadth pass; each item needs checking against its source before it becomes normative.

  • Cardiac pacemakers and implantable cardioverter-defibrillators as everyday closed-loop heart-rate and rhythm control.
  • Cochlear implants converting sound to electrical stimulation of the auditory nerve in people with severe hearing loss.
  • Deep-brain stimulation leads for Parkinson disease, essential tremor, and some dystonias.
  • Myoelectric and osseointegrated limb prostheses driven by residual-muscle or neural signals.
  • Insulin pumps and hybrid closed-loop 'artificial pancreas' systems coupling glucose sensing to insulin delivery.
  • Retinal prostheses and a smaller set of experimental visual and cortical implants.
  • Laboratory and field animals fitted with telemetry, stimulation, or locomotion-control implants.
  • The term itself is used far more in fiction, art, and theory than on consent forms: clinics say implant recipient or prosthesis user.
  1. Which of these real-world use hold for the sense of cyborg this model covers, and on what evidence? provenance

Typical measurements

Reported by the breadth pass; each item needs checking against its source before it becomes normative.

  • Number of active implanted devices in one person - 1-several - count
  • Service life of a typical battery-powered active implant (e.g. pacemaker) - 5-15 - year
  • Neural-interface channel count - 1-1000+ - channel
  • Kinematic degrees of freedom of an upper-limb prosthesis - 1-20 - count
  • Time in target glucose range for a hybrid closed-loop insulin system - 50-90 - %
  • Speech-recognition score in quiet for many cochlear-implant users - highly variable, often tens of percent to >80 - % words or sentences correct
  1. Which of these typical measurements hold for the sense of cyborg this model covers, and on what evidence? provenance

Failure modes and hazards

Reported by the breadth pass; each item needs checking against its source before it becomes normative.

  • Surgical infection and biofilm on implant surfaces.
  • Fibrous encapsulation or gliosis that degrades electrode, sensor, or drug-delivery function.
  • Lead fracture, hermetic-seal failure, or other hardware faults.
  • Premature battery depletion and the need for replacement surgery.
  • Electromagnetic interference from MRI, electrosurgery, security gates, or strong radio fields.
  • Demonstrated cybersecurity attacks on networked insulin pumps and defibrillators.
  • Mismatch between intended function and lived body: pain, phantom sensation, or rejection of the device as not-self.
  • Legal and sporting disputes when a device is used for enhancement rather than therapy.
  • No recognized legal status 'cyborg': rights and duties attach to the person and to the device as a medical product.
  1. Which of these failure modes and hazards hold for the sense of cyborg this model covers, and on what evidence? provenance

Regional variation

Reported by the breadth pass; each item needs checking against its source before it becomes normative.

  • Clinical English almost never calls a patient a cyborg; Japanese popular usage of サイボーグ often overlaps what English would call an android.
  • Anglophone humanities use Haraway's cyborg as a metaphor for hybrid identity; biomedical engineering uses the word rarely and usually pejoratively or loosely.
  • The EU and the United States regulate implants as medical devices; neither creates a civil status of cyborg.
  • Disability-rights communities in several English-speaking countries often reject the label as dehumanizing and prefer person-first or identity-first assistive-technology language.
  • Military research programmes (notably U.S. DARPA neural-interface work) frame human-machine coupling as capability, while clinical practice frames it as restoration.
  1. Which of these regional variation hold for the sense of cyborg this model covers, and on what evidence? provenance

Neighbouring kinds and how to tell them apart

Reported by the breadth pass; each item needs checking against its source before it becomes normative.

  • android or humanoid robot - An android need not contain a living organism; a cyborg is still an organism with coupled technology.
  • ordinary prosthesis or assistive tool - A cane, glasses, or a doffed limb is a tool; cyborg coupling is ongoing participation in the organism's control, sensing, or metabolism.
  • bionic device - Bionics is the engineering of biological function in hardware; the person becomes a cyborg only when that hardware is stably coupled to an organism.
  • chimera or hybrid organism - A chimera mixes biological lineages; a cyborg mixes organism with engineered apparatus.
  • transhuman or posthuman - Those are future-person or philosophical categories; a cyborg is a present organism-machine coupling, often a clinical one.
  • exoskeleton user - A worn robot is a cyborg only on definitions that drop implantation or homeostatic integration; most clinical and original technical uses do not count it.
  • brain-computer interface - A BCI is a component technology; the subject is a cyborg only if the interface is a lasting part of the body's control loop.
  • Cyborg (fictional character) - A proper-name instance in comics or film, not the class of organism-plus-machine.
  1. Which of these neighbouring kinds and how to tell them apart hold for the sense of cyborg this model covers, and on what evidence? provenance

Sources

  1. Cyborgs and Space - Astronautics (American Rocket Society), September 1960 - Origin of the word and the technical definition: a self-regulating man-machine system that can live in otherwise hostile environments without constant conscious adaptation.
  2. A Cyborg Manifesto, in Simians, Cyborgs, and Women - Routledge, 1991 (essay first in Socialist Review, 1985) - The non-engineering sense of cyborg as a hybrid social and bodily identity, which must not be collapsed into implant hardware.
  3. Natural-Born Cyborgs: Minds, Technologies, and the Future of Human Intelligence - Oxford University Press, 2003 - The cognitive-science claim that humans already incorporate tools into the mind-body system, and the distinction between that claim and implanted medical devices.
  4. ISO 14708-1, Implants for surgery - Active implantable medical devices - Part 1 - International Organization for Standardization - The actual product class that real-world medical cyborgs are built from: active implants, their safety marking, and manufacturer information.
  5. Regulation (EU) 2017/745 on medical devices - Official Journal of the European Union - How the European Union governs the devices (not a legal status of 'cyborg') that create clinical cyborg couplings, including active implants.
  6. The Cyborg Handbook - Routledge, 1995, ed. Chris Hables Gray - Survey of engineering, military, medical, and cultural uses, and the split between organism-plus-machine and purely fictional types.

What the second pass must settle

  • What authoritative scope should this registry assign to cyborg, particularly for passive implants, removable prostheses, and ordinary wearables?
  • Must technological participation involve feedback or adaptive control, or can persistent one-way functional coupling qualify?
  • How should temporary clinical support and remotely located components affect composite membership?
  • Does an existing Vercy world model already own this concept or any of its proposed organism-technology boundary rules?
  • Which evidence standards and intervention authorities should apply across human, nonhuman animal, and other living-organism cases?