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Research draft

respiratory system

vr.tr.respiratory-system · PHY.OBJ

Enable an AI agent to recognise an organism's respiratory system, assess its capacity and current state, and identify actions supported by evidence, context and authority.

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 an organism's respiratory system, assess its capacity and current state, and identify actions supported by evidence, context and authority.

The respiratory system is the organ system that conducts air between the external environment and gas-exchange surfaces, enabling oxygen uptake and carbon dioxide elimination.

It can be Map respiratory components and exchange interfaces using the organism's actual architecture.; Record respiratory observations with methods, timestamps, activity and support conditions.; Compare ventilation, gas exchange and effort across comparable observations.; Identify missing evidence and select applicable assessments within the agent's authority.; Flag concerning changes against sourced, organism-appropriate criteria for qualified review.; Record authorised respiratory interventions and evaluate their observed effects..

Distinguishing features

Identify structures that mediate gas exchange between the organism and its environment; oxygen consumption within cells alone identifies cellular respiration instead.

Establish the functional system boundary across exchange surfaces, passages and associated mechanisms; one lung, gill or airway is a component rather than automatically the whole system.

Determine whether observed gas movement belongs to the organism's respiratory mechanism or to an external support device connected to it.

Locate the interface with internal gas transport; circulation that distributes oxygen after exchange belongs primarily to the circulatory system.

Scope

+ Respiratory architecture and functional boundaries for the organism and life stage

+ Movement of air or water to respiratory exchange surfaces, where applicable

+ Oxygen uptake and carbon dioxide elimination across respiratory surfaces

+ Respiratory regulation, protective mechanisms and functional reserve

+ Observed impairment, respiratory support and constraints on intervention

- Systemic circulation and oxygen transport beyond the respiratory exchange interface

- Cellular respiration and intracellular energy metabolism

- Whole-organism neurological function beyond respiratory control interfaces

- Environmental air or water quality as an independently managed system

- Disease entities, medications and medical devices as independently modelled things

Characteristics

Organism and life stage
Linked organism, taxon and developmental stage Determines which respiratory structures, measurements and reference conditions apply.
Respiratory architecture
Pulmonary, branchial, tracheal, cutaneous, mixed or unresolved Prevents assumptions about lungs or blood-mediated exchange from being applied to incompatible organisms.
Respiratory medium
Air, water, both or unresolved Defines the external medium whose movement and gas availability must be assessed.
Ventilation mode
Architecture-specific mode; spontaneous, assisted, externally driven, absent, not applicable or unknown Distinguishes intrinsic respiratory activity from support and from architectures without a comparable ventilation mechanism.
Respiratory cycle frequency
Cycles/min, with observation method and activity state; not applicable where no discrete cycle exists Supports comparison of respiratory activity across time under comparable conditions.
Ventilatory flow or volume
mL/cycle or L/min, with medium, measurement location and reference conditions Records medium movement without treating it as proof of effective gas exchange.
Gas exchange evidence
Oxygen and carbon dioxide flux, partial pressure or saturation, with units, compartment, method and support conditions Makes exchange assessments traceable to measurements rather than inferred from visible breathing alone.
Respiratory effort
Architecture-specific observed effort and coordination, with assessment method Helps distinguish adequate-looking output achieved comfortably from output requiring substantial effort.
Respiratory support dependency
Linked support device or intervention, operating conditions and observed dependency Prevents supported performance from being mistaken for unaided capacity.

Also called

human respiratory systempleopodal lungsRespiratory system of gastropodsavian respiratory systemrespiratory system of insectsRespiratory system of the horse

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 · 11 findings · 22 questions.

Respiratory architecture Establishes which organism-specific structures constitute the respiratory system and where its interfaces lie.

A respiratory model must identify the exchange architecture before assigning measurements or interpreting function.

Organism-specific organisation

Connects respiratory anatomy to organism identity and developmental stage.

Exchange architecture

Record the respiratory surfaces and associated structures actually present, including mixed architectures.

  1. Which respiratory surfaces and mechanisms are present in this organism at its current life stage? definition
  2. What observation or anatomical source establishes this architecture? provenance

Passages and interfaces

Maps environmental access and connections to neighbouring physiological systems.

Respiratory system boundary

Record how the respiratory medium reaches exchange surfaces and where exchange connects to internal transport.

  1. Through which openings, passages or exposed surfaces does air or water reach the exchange interface? definition
  2. Where does this model hand responsibility to circulation, other tissue systems or external support equipment? boundary
Ventilation and mechanics Records movement of the respiratory medium and the mechanisms that produce or limit it.

Movement, obstruction and effort must be assessed separately from gas exchange effectiveness.

Medium movement

Describes the pattern, direction and magnitude of respiratory medium movement.

Ventilation pattern

Record applicable ventilation measurements without imposing a breathing-cycle model on every architecture.

  1. Is medium movement cyclic, continuous, externally driven or not a distinct mechanism in this architecture? definition
  2. What frequency, flow or volume was measured, at which location and under what activity and support conditions? measurement

Mechanical load

Assesses passage patency and the effort needed to move the respiratory medium.

Patency and effort

Record restrictions, movement limitations and evidence of increased respiratory effort.

  1. What evidence identifies narrowing, blockage or restricted movement along the respiratory pathway? measurement
  2. How is respiratory effort assessed for this architecture, and how has it changed from a comparable baseline? measurement
Respiratory gas exchange Assesses oxygen uptake and carbon dioxide elimination at the respiratory interface.

Visible respiratory movement cannot by itself establish whether gas exchange meets the organism's needs.

Exchange performance

Captures direct measurements and applicable proxies for respiratory gas exchange.

Oxygen and carbon dioxide evidence

Record gas measurements with their compartments, methods and interpretive limits.

  1. What observations separately support assessments of oxygen uptake and carbon dioxide elimination? measurement
  2. Which measurement method and source justify interpreting each observation as evidence of respiratory exchange? provenance

Exchange constraints

Examines limitations at the environmental, surface and internal transport interfaces.

Exchange limitation localisation

Distinguish observed exchange impairment from hypotheses about its location and cause.

  1. What evidence distinguishes limited environmental gas availability, inadequate medium delivery, surface impairment and internal transport limitation? measurement
  2. Which suspected limitation belongs within this respiratory model, and which requires assessment by a neighbouring model? boundary
Respiratory control and protection Records regulation of respiratory activity and protection of respiratory passages and surfaces.

Respiratory performance depends on appropriate control and on keeping exchange pathways functional.

Drive and coordination

Assesses initiation, timing and coordination of respiratory activity where applicable.

Regulated respiratory response

Record respiratory responses to ordinary changes in demand and distinguish observation from inferred control failure.

  1. How does respiratory activity change with documented activity, rest or other naturally occurring demand changes? measurement
  2. What evidence distinguishes altered respiratory drive from inability of the respiratory structures to execute that drive? measurement

Surface and passage protection

Records applicable mechanisms that exclude, remove or tolerate material threatening respiratory function.

Clearance and barrier function

Record protective mechanisms and observed failures using architecture-specific evidence.

  1. Which clearance, closure or surface-protection mechanisms are present in this respiratory architecture? definition
  2. What observations show retained material, failed protection or damage affecting respiratory function? measurement
Respiratory state and action Combines contextual evidence into state assessments and bounded decisions about assessment or support.

An agent needs to distinguish current supported performance, underlying capacity and uncertainty before proposing an action.

Trajectory and reserve

Assesses change over time and evidence of capacity under relevant demand.

Contextual respiratory state

Record whether respiratory performance is stable, changing or indeterminate under stated conditions.

  1. How do gas exchange, ventilation and effort compare with the organism's baseline under comparable support and demand? measurement
  2. What existing evidence supports an assessment of respiratory reserve, and what remains unmeasured? provenance

Assessment and support decisions

Connects respiratory findings to authorised next steps and evaluation of their effects.

Bounded respiratory action

Record the evidence, authority, dependencies and review criteria for a proposed respiratory action.

  1. Which assessment, escalation or support action is justified by the available respiratory evidence and within the agent's authority? action
  2. What respiratory outcomes, review timing and stop or escalation criteria govern the authorised action? action
  3. Which external support settings and dependencies must accompany the resulting observations? provenance
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.

  • upper airway
  • lower airway
  • conducting zone
  • respiratory zone
  • pulmonary circulation
  • ventilatory pump
  1. Which of these kinds and varieties hold for the sense of respiratory system this model covers, and on what evidence? provenance

What the second pass must settle

  • Does the registry intend this entry to cover respiratory systems across organisms, or should its operational scope be restricted to humans or another taxonomic group?
  • Which existing Vercy models already own respiratory organs, cutaneous exchange, circulation and respiratory control, and where should the exact boundaries lie?
  • Which authoritative sources establish architecture-specific measurements, reference conditions and criteria for concerning respiratory change?
  • How should mixed respiratory architectures and life-stage transitions be represented without fragmenting the registered system into duplicate models?
  • Which agent roles may initiate assessments or alter respiratory support, and what organism-specific protocols and oversight govern those permissions?