CatalogueData & Artificial IntelligenceMLOps, AI Governance & Model Security
Data & Artificial Intelligence

MLOps, AI Governance & Model Security

Governance, lifecycle controls and operational tooling for responsibly deploying, monitoring and retiring AI models and AI-enabled applications.

Who this is for
  • CIO and risk leaders
  • AI product owners
  • Security teams
  • Data science leaders
Outcomes it serves
  • Clear AI ownership and risk decisions
  • Reproducible model releases
  • Continuous quality and drift monitoring
  • Documented controls for regulators and customers
Capabilities
  • AI inventory and risk-tiering
  • Model documentation and approval gates
  • Evaluation and red-team plans
  • Versioning, deployment and rollback
  • Monitoring for drift, abuse and cost
  • Incident, change and retirement procedures
What is delivered
  • Confirmed scope, stakeholders, assumptions and acceptance criteria
  • Assessment, design or implementation work products
  • Decision log, risk register and issue resolution
  • Testing or evidence pack appropriate to the service
  • Knowledge transfer, administrator guidance and handover
  • Follow-up support or managed-service transition where contracted
Options
  • AI governance program
  • Model registry and pipelines
  • Independent validation
  • Managed model monitoring
  • Policy and training package
What may change the price
  • Edition, modules and user/location count
  • Hosting, environments and availability target
  • Data migration and integrations
  • Configuration versus custom development
  • Security, compliance and assurance scope
  • Training, support and service level

Content on this page comes from the governed ARRIX catalogue record DAI-08; pricing is confirmed only through a reviewed quotation.

What This Is

MLOps, LLMOps & AgentOps

MLOps, LLMOps & AgentOps establishes the engineering controls that let an organisation deploy, version, release, operate and improve machine-learning models, language-model applications and AI agents as dependable production systems rather than as experiments that happen to be running.

The problem this answers

The model worked in a notebook and the assistant worked in a demonstration, and both are now serving real users without the machinery ordinary software takes for granted. There is no dependable record of which version is live, which data and which prompt produced it, or who released it. Changes go out by hand, usually by the one person who has done it before, and returning to the previous version means rebuilding it from memory. Each new model repeats the same plumbing, because none of it was built to be shared.

Releasing a change stops being an event

A defined path from build to production, with automated checks and a rehearsed way back, turns a model or prompt update into routine work instead of a scheduled risk.

Improvement compounds instead of stalling

When any change can be withdrawn safely, teams change things more often, and the system keeps pace with the business it serves.

The second AI system costs less than the first

Pipelines, registry, deployment patterns and release gates are built once and inherited by every model, application and agent that follows.

Delivery stops depending on one person's machine

Reproducible builds, versioned artefacts and a documented promotion path remove the single point of knowledge most early AI work is quietly built around.

The business can be told what is running and why

A registry and change record answer which version is live, what it was evaluated against and who approved it, without anyone starting an investigation.

Incidents get shorter

Version history, traced execution and a tested rollback mean a bad release is identified and reversed rather than debugged while users wait.

Why It Matters

Where this changes the outcome

Data science produces artefacts; operations produce dependability, and the gap between the two is where most AI investment quietly stalls. A model nobody can rebuild, a prompt edit nobody can attribute and an agent nobody can withdraw are all the same failure wearing different clothes. Treating models, prompts, retrieval configurations and agent definitions as versioned production assets is what makes change safe, and safe change is the whole point: a system that cannot be altered with confidence stops being improved, and one that stops being improved decays against the world it was fitted to.

Who buys this, and what changes as a result
OrganisationNeedWhat ARRIX doesOutcome
A data science team whose models never leave the notebookA repeatable path from experiment into productionPipeline, registry and deployment engineeringModels reach users along a defined path instead of being handed over as files and hope.
A team running a language-model application by handVersion control over prompts, retrieval sources and model choiceVersioning, release gates and rollback for the artefacts that are not model binariesA prompt change becomes a reviewable release with a way back rather than an untracked edit.
An organisation putting its first agents into productionControl over what changes inside a system that actsVersioning of agent definitions, tools and permissions, with staged rolloutAgent behaviour changes deliberately, and a change that misbehaves is withdrawn quickly.
A business with several models and no shared platformStopping every project rebuilding the same plumbingA common operating platform with shared pipelines, patterns and standardsNew work starts from an existing path instead of a blank page.
A regulated firm facing model risk reviewEvidence that change is controlledRegistry, approval records and reproducible buildsQuestions about what was running, when, and on whose approval have recorded answers.
A team whose model quality has slipped since launchA safe way to retrain and re-releaseRetraining triggers, release gates and progressive deploymentRefresh becomes a routine cycle rather than a project someone has to justify.
How It Works

The path, stage by stage

The path a model, prompt or agent takes into production and back into improvement
  1. BUILD
  2. EVALUATE
  3. REGISTER
  4. DEPLOY
  5. OBSERVE
  6. GOVERN
  7. IMPROVE

Build

Turn training, packaging and configuration into an automated pipeline that produces the same artefact from the same inputs.

Reproducible build pipeline

Evaluate

Run the checks the artefact must pass before release: quality thresholds, safety and security checks, and regression against prior behaviour.

Pass or fail against agreed gates

Register

Record the artefact with its lineage: the data, code, configuration and results that stand behind it.

Versioned entry in the registry

Deploy

Promote through environments into production using the pattern the workload needs, with rollout criteria stated in advance.

Controlled release into production

Observe

Emit and route the quality, latency, cost and drift signals the owning team needs, with thresholds and alert routing agreed.

Instrumented production system

Govern

Hold the record of what is live, what it passed and who approved it, and enforce who may promote a change at all.

Controlled change record

Improve

Feed findings and triggers into the next build, and release that change through the same gates as the last one.

Repeatable improvement cycle

Detail

For whoever has to sign it off

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What ARRIX delivers
  • Assessment of how models, prompts, retrieval configurations and agents currently reach production, with the manual steps named
  • Build, packaging, evaluation and deployment pipelines that produce the same artefact from the same inputs
  • A registry for models, prompts, datasets, retrieval configurations and agent definitions, with versioning and promotion
  • Release gates: the quality thresholds, security checks and approvals an artefact must pass before it is promoted
  • Environment strategy across development, testing and production, with data handling appropriate to each
  • Deployment patterns fitted to the workload: batch scoring, real-time serving, streaming, or serving inside the consuming application
  • Progressive rollout and a rollback procedure that has been rehearsed and timed rather than assumed
  • Telemetry wiring for quality, latency, cost and drift signals, routed to the team that owns the system
  • Retraining and refresh triggers, with the conditions that start them written down
  • Operating model: who owns which system, who may promote a change, and what the escalation path is
What you receive
  • Current-state assessment of the delivery path with every manual step identified
  • Build, evaluation and deployment pipelines in operation
  • Registry holding versioned models, prompts, retrieval configurations and agent definitions
  • Release gate definition with thresholds, checks and approvals
  • Environment and promotion policy
  • Rollback procedure, tested and timed
  • Telemetry and alert wiring with ownership and routing agreed
  • Retraining and refresh policy with defined triggers
  • Operating runbook and handover to the owning team
Technical benefits
  • Reproducible builds: the data, code, configuration, prompt and model version behind a result can be reassembled later
  • A registry holding models, prompts, retrieval configurations and agent definitions as versioned, promotable artefacts
  • Automated release gates that block promotion when quality, security or policy checks fail
  • Environment separation, so a change is exercised somewhere before it meets production traffic
  • Progressive deployment patterns, including shadow, canary and staged rollout, with criteria for proceeding agreed in advance
  • Rollback as a tested procedure with a known recovery time rather than as a theoretical option
  • Telemetry wired in at build time, so quality, latency, cost and drift signals exist from the first release onwards
  • Pipelines and infrastructure defined as code, so the platform itself can be reviewed, rebuilt and moved
  • Retraining and refresh started by defined conditions instead of by someone remembering
Governance and security
  • Permission to deploy separated from permission to develop, with promotion performed through the pipeline rather than by hand
  • Every production artefact traceable to the data, code, configuration and approval behind it
  • Secrets, model credentials and tool permissions held in a managed store rather than in code, notebooks or configuration files
  • Training and evaluation data handled under its classification, including what may exist outside production
  • The model and dependency supply chain tracked, so a changed base model or library is a recorded event with an owner
  • An audit trail of promotions, approvals and rollbacks retained for as long as the organisation's obligations require
Technology options
Candidates assessed against the requirement. Naming a technology is not a partnership, resale or authorisation claim.
AreaCandidatesHow it is chosen
Pipeline and orchestrationWorkflow orchestrators for training and batch jobs, The continuous integration and delivery system already used for application code, Managed pipeline services within the existing cloud platformExtending the engineering organisation's existing delivery system usually beats introducing a parallel one for AI. Naming a category is never a partnership, reseller or authorisation claim.
Registry and versioningModel registry with stage promotion, Artefact and container registries, Prompt and configuration versioning in source control, Dataset and feature versioningThe registry has to cover prompts, retrieval configurations and agent definitions as well as model binaries, or the parts that change most often stay untracked.
Serving and deploymentReal-time model serving, Batch and scheduled scoring, Streaming inference, Serving embedded in the consuming application, Hosted model interfaces behind an internal gatewayThe pattern follows the latency the decision needs and the load it carries, not a platform preference.
Release controlShadow deployment, Canary and staged rollout, Flag-controlled release, Parallel production environmentsProgressive patterns cost engineering effort and buy the ability to withdraw a change before most users have met it.
Operational telemetryOpen standard tracing into the existing observability stack, AI-specific tracing platforms, Metric and log routing into the owning team's alertingWiring the signals is part of delivery; interpreting them in depth is evaluation and observability work, which is a separate offering.
When you may not need this

If you have one model, one owner and a release every few months, a documented manual procedure and a kept copy of the previous version may be proportionate, and building a delivery platform first would cost more than it returns. This becomes necessary once more than one system is live, once more than one person releases changes, or once anyone outside the building depends on the output. If nothing is in production yet, the useful work is getting the first system deployed safely and building the operating controls around it as it goes, rather than in advance of anything to run.

Common Questions

Answered plainly

Is this just DevOps for AI?

It borrows most of its principles and adds the inputs software delivery does not have. Application delivery versions code, while AI delivery has to version data, models, prompts, retrieval configurations and tool permissions as well, because any of those can change behaviour with the code untouched. The release gate differs too: a passing test suite is not the same as a quality evaluation on representative tasks. Where an organisation already has strong application delivery practice, the work is usually extending it rather than starting again.

We have language-model applications, not trained models. Does this still apply?

Yes, and the artefacts are different rather than absent. A prompt, a retrieval configuration, a model version, a set of tool permissions and a guardrail policy each change behaviour, and each needs versioning, review and a way back. Teams usually discover this the first time an untracked prompt edit changes output for every user with no record of what was altered or by whom. The controls are lighter than for trained models, but the discipline is the same.

How much of this do we need at the start?

Less than a full platform, and rather more than most teams begin with. The increments that pay first are version control over everything that affects behaviour, a rollback that has been tested, and a recorded answer to what is live. Automated pipelines, progressive rollout and retraining triggers arrive as the number of systems and the frequency of releases grow. Building an entire platform before the first system is in production is a well-worn way to spend a year without shipping.

Who operates this once it is built?

Your team, unless you ask ARRIX to operate it under a managed arrangement. Handover covers the runbook, the promotion policy, the rollback procedure and an ownership map saying which team is accountable for which system. An operating model without named owners fails quietly: the pipelines keep running, the alerts keep firing and nobody acts on either. Deciding ownership is part of the design work, not an administrative step afterwards.

Does this tell us whether our AI is any good?

It wires the signals and enforces the gate; the depth of the measurement itself is separate work. The concern here is that quality, latency, cost and drift are emitted from the first release, that nothing is promoted without passing an agreed threshold, and that results stay attached to the version they describe. Defining what good enough means for a use case, building representative evaluation sets and interpreting production quality belongs with the evaluation and observability offering. The two fit together: one decides the standard, this one enforces it at the point of release.

Can this work across cloud and on-premises together?

In most estates it has to, and the design assumes it. Pipelines, registry and promotion can span environments while deployment patterns differ by location, and residency or classification rules often decide where a workload runs rather than convenience. What matters is that the record of what is live and how it got there stays in one place, whatever it runs on. Splitting that record across environments is how organisations lose the ability to answer basic questions about their own systems.

Next Step

What ARRIX needs to know

These are the questions a scoped proposal answers. Bring what you can; the rest is established in the conversation.

  • Do you know which version of each model, prompt and agent definition is serving production right now?
  • If a release turned out to be worse, how long would it take to get back to the previous version, and has anyone tried?
  • Could you rebuild a model trained several months ago from the same data and configuration?
  • Who is allowed to change what reaches production, and is that enforced by access control or by convention?
  • Are prompts, retrieval sources and agent tool permissions under version control, or edited in place?
  • What has to be true before a change is released, and who checks it?
  • When a model's quality declines, what starts the retraining, and who notices first?
  • Which team is on call for the AI systems, and do they have the access and the runbook to act?
  • How much of the delivery path is carried by one person who has done it before?
What This Is

AI Governance, Model Risk & Security

AI Governance, Model Risk & Security establishes how an organisation decides which uses of machine learning, language models and agents it will permit, on what conditions, under whose oversight and with what evidence, so that its AI can be defended when somebody asks.

The problem this answers

AI has entered the organisation from several directions at once: a sanctioned programme, a few departmental tools bought on a card, features that arrived inside software already in use, and staff quietly using whatever they found. Nobody holds a list. No one has agreed which uses need approval, which need a person in the loop, and which should not proceed at all. When a board member, a regulator, an insurer or a large customer asks how AI decisions are controlled here, the answer is assembled from memory by whoever happens to be available. Meanwhile the security function is being asked to approve systems whose behaviour is probabilistic and whose data paths nobody has mapped.

The organisation knows what AI it is actually running

A maintained inventory covering what was built, what was bought, what is embedded in existing software and what arrived without approval.

Scrutiny becomes proportionate rather than uniform

Risk classification separates low-consequence uses that may proceed under standing conditions from those needing real examination, so review effort lands where consequences are.

Questions from boards, regulators, insurers and customers have prepared answers

Decisions, conditions and supporting records are maintained as a normal operating record instead of being assembled during the enquiry.

Valuable use cases stop being blocked by unresolved doubt

Where exposure is understood and conditions are met, approval can be given with stated reasons, which is faster than an indefinite pause nobody owns.

Unsanctioned use falls because there is a sanctioned route

A published position on what is permitted, with an approval path people can actually use, removes most of the incentive to work around it.

Accountability is assigned before an incident rather than during one

Each use has a named owner, an approver and a defined response path, so the first hour of a problem is spent responding rather than working out who decides.

Why It Matters

Where this changes the outcome

AI creates a class of decision that is fast, hard to inspect and easy to repeat at volume, and responsibility for it does not transfer to the system making it. It stays with the organisation whether or not the organisation prepared for the question. Governance is what turns that responsibility into something workable: a known population of AI uses, proportionate conditions attached to each, and evidence produced while the work happens rather than reconstructed under pressure afterwards. Done badly it becomes a committee that slows everything and prevents nothing. Done properly it is the thing that allows the higher-value uses to be approved at all.

Who buys this, and what changes as a result
OrganisationNeedWhat ARRIX doesOutcome
A board that has approved AI spending and now wants assuranceKnowing what is running and how it is controlledInventory, classification and a reporting position the board can act onOversight is exercised against a factual picture rather than against assurances.
A CISO being asked to approve AI systemsA way to assess systems whose behaviour is not deterministicThreat assessment, control selection and security testing suited to AIApproval decisions rest on assessed exposure rather than on discomfort or optimism.
A regulated firm with an established model risk functionExtending existing model risk practice to language models and agentsGap assessment and control design for the behaviours traditional model risk did not anticipateOne framework covers statistical models and generative systems without two competing processes.
An organisation discovering widespread unsanctioned AI useBringing that usage under a policy people will actually followUsage discovery, an acceptable-use position and an approval route staff can use without painUse migrates onto sanctioned paths because the sanctioned path is quicker than the workaround.
A supplier answering enterprise assurance questionnaires about its AIRecords of governance that a customer's assurance team will acceptControl documentation, oversight records and response proceduresCustomer due diligence stops holding up deals.
A public body accountable for automated decisions affecting peopleShowing fairness, contestability and human responsibilityImpact assessment, oversight design and record-keeping for contested decisionsAffected people have a route to challenge, and the body can show how a decision was reached.
How It Works

The path, stage by stage

From unknown AI use to accountable AI use
  1. AI INVENTORY
  2. RISK CLASSIFICATION
  3. CONTROL SELECTION
  4. HUMAN OVERSIGHT
  5. EVIDENCE AND AUDIT
  6. INCIDENT RESPONSE
  7. ENFORCEMENT AND REVIEW

Inventory

Find the AI actually in use across built, bought, embedded and unsanctioned sources, and record purpose, owner and data.

AI use inventory

Classify risk

Assess each use by consequence, how far it acts rather than advises, data sensitivity and who is affected.

Risk tier per use

Select controls

Attach a proportionate set of conditions to each tier, covering data, access, testing, oversight and disclosure.

Control set per tier

Assign oversight

Specify where a person reviews, decides or intervenes, and give that person the information, time and authority to do it.

Human oversight specification

Evidence and audit

Make the controls produce records as they operate, and examine those records on a defined cycle.

Retained control records

Respond

Define and rehearse what happens when an AI system fails, harms somebody or is misused.

Tested incident procedure

Enforce and review

Hold the approval route, apply it to new proposals, and revisit classifications as uses and obligations change.

Operating governance cycle

Detail

For whoever has to sign it off

Open only what you need. Nothing here is hidden from print or from a browser without JavaScript.

What ARRIX delivers
  • Discovery and inventory of AI in use: built, bought, embedded in existing software, and adopted without approval
  • Risk classification of each use against consequence, degree of action taken, data sensitivity and who is affected
  • A policy set specific enough to apply to a real proposal: acceptable use, approval thresholds, prohibited uses and standing conditions
  • Accountability structure naming who owns a use, who approves it, who reviews it and who may suspend it
  • Data and model lineage sufficient to answer what influenced an output and where the training or retrieval material came from
  • Identity, access and privacy review covering the models, the tools they reach and the data crossing the boundary
  • Security assessment of AI-specific exposure, including adversarial input, data extraction, misuse and unsafe tool permissions
  • Human oversight design: where a person must review, what they see, what authority they hold and how disagreement is recorded
  • Assurance approach covering what records are kept, who examines them and how often
  • AI incident response: detection, containment, notification and post-incident review, exercised rather than only written
  • Alignment mapping showing how the control set is designed to align with recognised practices, and where gaps remain open
What you receive
  • AI use inventory with owner, purpose, data and whether the system advises or acts
  • Risk classification method, and the completed classification of current uses
  • AI policy set with approval thresholds, standing conditions and prohibited uses
  • Accountability map naming owners, approvers, reviewers and who may suspend a system
  • Control set per risk tier, with the record each control is expected to produce
  • Human oversight specification per use
  • AI security assessment findings with a prioritised remediation plan
  • Incident response plan for AI failures, with one scenario exercised
  • Alignment map against recognised practices, with gaps and remediation stated plainly
  • Reporting pack for the board or risk committee
Technical benefits
  • An inventory recording purpose, owner, data used, model or supplier, and whether the system advises or acts
  • Risk classification applied per use rather than per technology, since one model carries different exposure in different jobs
  • Data and model lineage traced far enough to answer what influenced a given output
  • Identity and access controls extended to cover models, the tools they can call and the systems those tools can reach
  • Privacy exposure assessed against the data that actually flows, including whatever crosses the organisation's boundary
  • Human oversight specified per use: what the reviewer sees, what they may change and what they are answerable for
  • Security testing suited to probabilistic systems, covering adversarial input, data extraction, misuse and unsafe tool access
  • Control records produced as a by-product of operation rather than gathered as a periodic exercise
Governance and security
  • The inventory itself treated as sensitive, because it names where automated decisions are made and where the weaknesses sit
  • Least-privilege access to models, tools and the data behind them, tied to a named identity rather than a shared credential
  • Personal data in prompts, retrieval sources, training sets and logs identified and handled under the applicable privacy obligations
  • Retention decided deliberately for prompts, outputs and oversight records, since they accumulate quickly and are disclosable
  • Purchased and embedded AI assessed for data handling, model change notice and subprocessing before it is approved for use
  • Controls designed to align with recognised practices such as the NIST AI Risk Management Framework, the NIST Generative AI Profile, the NIST Cybersecurity Framework 2.0, the NIST Privacy Framework and ISO/IEC 42001, with no claim of certification attached
  • Separation between the team building an AI system and the function assuring it, proportionate to the consequence of the use
Technology options
Candidates assessed against the requirement. Naming a technology is not a partnership, resale or authorisation claim.
AreaCandidatesHow it is chosen
Inventory and oversight toolingA register maintained inside existing governance, risk and compliance tooling, AI-specific governance platforms, Discovery from identity, network and expense records for unsanctioned use, A structured register kept by the accountable functionA small estate is served well by a maintained register; platform tooling earns its cost once the number of uses exceeds what a person can track. Naming a category is never a partnership, reseller or authorisation claim.
Control enforcementPolicy enforced at an internal gateway for model access, Data loss prevention applied to model inputs and outputs, Identity-based access to models and the tools they can call, Content filtering and guardrail servicesA control that exists only in a document is not enforced. Where the exposure is material, the enforcement point belongs in the path the data actually takes.
AI security testingAdversarial and prompt-injection testing, Data extraction and memorisation testing, Misuse and jailbreak assessment, Tool and permission abuse testing for agentsTesting a probabilistic system is sampling rather than proving, so results describe observed exposure and residual risk instead of declaring a system safe.
Recognised practicesNIST AI Risk Management Framework, NIST Generative AI Profile, NIST Cybersecurity Framework 2.0, NIST Privacy Framework, ISO/IEC 42001Control sets are designed to align with these where they are relevant to the organisation. Alignment is a design choice and not a certification: neither ARRIX nor a client becomes certified by adopting them.
When you may not need this

If your AI use is confined to a handful of internal, low-consequence tasks where every output is read by the person who asked for it, an acceptable-use note and a named owner may be all the governance the situation justifies, and a formal programme would cost more attention than it protects. This becomes necessary once AI touches customers, personal data, money or regulated decisions, once systems act rather than only suggest, or once somebody outside the organisation starts asking how it is controlled, whether that is a regulator, an insurer, an enterprise customer or an auditor.

Common Questions

Answered plainly

Does this make us NIST certified or ISO certified?

No, and it is worth being precise about why. Control sets can be designed to align with the NIST AI Risk Management Framework, the NIST Generative AI Profile, the NIST Cybersecurity Framework 2.0, the NIST Privacy Framework and ISO/IEC 42001, which means practices are mapped to recognised structures and the remaining gaps are stated openly. NIST publishes voluntary frameworks and certifies nobody against them, so NIST certification does not exist and any supplier offering it is describing something imaginary. ISO/IEC 42001 does have a certification path, but that certificate is awarded to your organisation by an independent certification body after an audit, and aligned controls are preparation for that rather than a substitute for it. Alignment is not certification, and ARRIX will not describe it as such.

Will governance slow our AI programme down?

Badly designed governance does, usually by applying the same review to a marketing draft and a credit decision. Proportionate classification is what prevents that: most uses should proceed under standing conditions with no individual review, so examination concentrates where the consequences are real. The programme also removes a common source of delay, which is a security or legal function declining to approve something because nobody has assessed it. Speed comes from having a decision route, not from having no rules.

We already do model risk management for statistical models. Is this different?

The foundations transfer and some of the assumptions do not hold. Traditional practice assumes a model you can specify, validate against a known distribution and revalidate on a cycle, whereas a language model's behaviour shifts when a prompt, a retrieval source or the underlying version changes. Agents add a further dimension, because the system takes actions rather than producing an estimate for somebody else to act on. The work is usually extending the framework you have to cover behaviour, oversight and action, instead of running a second process alongside it.

How do we handle AI that arrived inside software we already bought?

Treat it as in scope, because your obligations follow the data and the decision rather than who wrote the code. That means recording the feature in the inventory, establishing what data it processes and where that data goes, and asking the supplier what changes when they change the model underneath. Contractual terms deserve real attention here: notice of material model change, whether your data trains anything, subprocessing and retention. Embedded AI is where most organisations find their largest unassessed exposure.

What does human oversight actually mean in practice?

It means a named person with the information, the time and the authority to reach a different conclusion, and it fails when any one of those three is missing. A reviewer shown a recommendation with no reasoning, given moments per case and measured on throughput is producing the appearance of oversight rather than oversight itself. The design work is deciding where review is genuinely required, what the reviewer must see, what they may change and how a disagreement is recorded. Where meaningful review is impossible at the volume involved, that is a finding about the use case rather than a detail to wave through.

Where should we start if we have nothing in place?

Start with the inventory, because every other decision depends on knowing what is in use, and the discovery itself usually changes how people see the exposure. Classify what you find, then attach conditions to the few uses carrying real consequence rather than to everything equally. A short, specific acceptable-use position and a working approval route come next, since together they reduce unsanctioned use faster than any technical control. Formal alignment mapping is more useful once there is something real to map.

Can you assess AI systems we did not build?

Yes, and in most organisations that is the larger part of the work. Assessment covers what the system does, what data reaches it, what it can act on, what oversight surrounds it and what the supplier commits to contractually. Where the internals are not visible, the assessment concentrates on data paths, permitted actions, observed behaviour on representative cases and the contractual position. What you get is an assessed exposure and a set of conditions for use, not a declaration that the system is safe.

Next Step

What ARRIX needs to know

These are the questions a scoped proposal answers. Bring what you can; the rest is established in the conversation.

  • Can anyone here produce a list of the AI systems in use, including the ones that arrived inside other software?
  • Who decides whether a proposed AI use is permitted, and what do they base that decision on?
  • Which AI uses affect people's access to services, money, employment or care?
  • What personal or confidential data reaches a model today, and does any of it leave your boundary?
  • Where a person is described as being in the loop, what do they actually see, and can they overrule the system?
  • If an AI system produced a harmful or plainly wrong outcome tomorrow, who would be told, who could suspend it, and who would speak to those affected?
  • Which obligations apply to you: sector regulation, privacy law, contractual commitments to customers, insurance conditions?
  • Do staff have a sanctioned way to use AI for their work, and do they know what it is?
  • Has anyone tested your AI systems for misuse, adversarial input or extraction of the data behind them?

Ask AI what ARRIX does for MLOps, AI Governance & Model Security — ARRIX Catalogue

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