FORMĚS / TECHNICAL SYSTEM
FORMĚS
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FORMĚSDiscuss a Requirement
Multidisciplinary engineering & technical services

Engineering certainty.Across the asset lifecycle.

FORMĚS supports industrial, energy, infrastructure and built-environment assets from studies and design through delivery, inspection, commissioning and asset performance.

Discuss a Requirement Explore Capabilities
Continue / Capability Intelligence
01Evidence-ledStart from what can be established.
02Field-connectedKeep engineering tied to site reality.
03TraceableMake decisions and closure visible.
04Fit-for-purposeConfigure the response around the need.
METHOD / 01—04Evidence becomes a controlled decision.
FORMĚS heritage

Building solutions
that shape the future.

FORMĚS connects engineering judgement, field evidence and delivery discipline so technical decisions remain useful when they reach the real asset.

The company is structured around multidisciplinary problem solving: understand the question, establish the evidence, resolve the interfaces and leave behind a technical record that can support the next decision.

About FORMĚS
Capability intelligence

39 services. One coordinated technical system.

This is the capability chapter: explore what each FORMĚS service actually does, when it becomes useful and the type of technical output it can produce.

Organize by

Selected service: Design Review. 7 services are available in this view.

07 services in this viewSelect deliberately. Hover never changes the active technical scope.Choose a service to inspect its scope. All options remain visible in the page flow.View selected scope
Asset lifecycle

Technical support from assessment to performance.

The technical question changes as an asset moves forward. This chapter follows that change—from establishing evidence and a verified basis to delivery, assurance, readiness and operational improvement.

01
Lifecycle stage

Assess

Establish what is known, what is uncertain and what evidence is needed before a technical decision is made.

Technical outcomeTechnical baseline
What must become clear
  • Condition and available evidence
  • Constraints, defects and credible failure modes
  • Priority of further investigation
Story handoffEvidence → engineering basis
02
Lifecycle stage

Engineer & Verify

Turn the evidence into a coordinated technical basis by challenging assumptions, interfaces, compliance and design intent.

Technical outcomeVerified engineering basis
What must become clear
  • Design basis and assumptions
  • Discipline interfaces and compliance
  • Options, risks and technical decisions
Story handoffVerified basis → controlled delivery
03
Lifecycle stage

Manage & Deliver

Keep engineering intent connected to execution while scope, interfaces, field decisions and project controls continue to change.

Technical outcomeControlled project delivery
What must become clear
  • Scope and interface ownership
  • Field decisions and technical queries
  • Progress, quality and action closure
Story handoffControlled delivery → objective verification
04
Lifecycle stage

Inspect & Assure

Test the delivered work against defined acceptance criteria and preserve objective evidence of conformance, deviation and closure.

Technical outcomeTraceable assurance record
What must become clear
  • Acceptance criteria and inspection points
  • Objective field / supplier evidence
  • Nonconformity, action and closure
Story handoffVerified work → readiness
05
Lifecycle stage

Commission

Convert construction completion into demonstrable readiness by closing technical gaps and organizing the evidence required for handover.

Technical outcomeVerified readiness
What must become clear
  • Completion and readiness status
  • Testing, punch items and interfaces
  • Handover information and unresolved risk
Story handoffReadiness → operation
06
Lifecycle stage

Monitor & Improve

Use operational evidence to understand performance, emerging deterioration and when intervention should occur before value or reliability is lost.

Technical outcomeLifecycle intelligence
What must become clear
  • Performance and condition trends
  • Emerging deterioration or recurring issues
  • Intervention, monitoring and renewal priorities
Story handoffOperational evidence → next assessment
Sector intelligence

Engineering for demanding operating environments.

The same technical question behaves differently in a live process plant, a port, a utility network or an occupied property. Sector context changes access, evidence, interfaces and the consequence of getting the decision wrong.

01 / ENERGYPROCESS / ENERGY ASSETS
OPERATING REALITYIntegrity • continuity • assurance
Operating environmentOil & Gas & Energy01 / 06Change
SECTOR INTELLIGENCE / ACTIVE ENVIRONMENT01
Selected environmentOil & Gas & Energy
Explore selected sector

Operating and project environments where technical work must coexist with live-asset constraints, shutdown windows and a high consequence of incomplete evidence.

What changes in this environment
  • Live-asset and shutdown constraints
  • Aging / new-works integrity interfaces
  • Traceable supplier and field evidence
Questions to establish early
  • Can the work be executed without weakening operating continuity?
  • What evidence is required before release, restart or acceptance?
Engineering implicationKeep continuity, integrity and acceptance evidence aligned while work moves between engineering, supplier and site.

Industrial facilities combine production pressure, legacy modifications, machinery interfaces and structures that may have very different documentation quality.

What changes in this environment
  • Production continuity and access windows
  • Machinery / structure / MEP interfaces
  • Legacy information and modification history
Questions to establish early
  • Is the problem operational, structural, equipment-related or an interface between them?
  • What can be verified without unnecessarily interrupting production?
Engineering implicationSeparate operational symptoms from asset condition and project-quality issues before selecting the intervention.

Distributed infrastructure requires decisions that remain consistent across remote locations, repeated asset types and interfaces that are difficult to see in one place.

What changes in this environment
  • Service-continuity constraints
  • Distributed and difficult-access assets
  • Network interfaces and lifecycle history
Questions to establish early
  • How can condition and priority be compared consistently across many locations?
  • Which local exceptions materially change the network-level decision?
Engineering implicationCreate a consistent evidence and priority basis across assets without losing location-specific technical context.

Ports and logistics environments combine marine exposure, continuous operations, heavy interfaces and new works occurring beside assets that cannot simply stop.

What changes in this environment
  • Marine / environmental exposure
  • Operational windows and throughput pressure
  • Civil, structural and logistics interfaces
Questions to establish early
  • What access and inspection window is actually available?
  • How do marine exposure, throughput and adjacent works change the intervention strategy?
Engineering implicationPlan inspection, assurance and intervention around the operating window rather than treating the asset as an isolated construction site.

Built assets concentrate multidisciplinary design, authority requirements, construction quality and future operational needs into a tightly connected set of decisions.

What changes in this environment
  • Multidisciplinary design interfaces
  • Constructability and workmanship quality
  • Handover and operational readiness
Questions to establish early
  • Are design intent, installed condition and handover information still aligned?
  • Which technical interfaces are likely to affect operation, maintainability or acceptance?
Engineering implicationKeep design intent, field condition and final technical records consistent from review through handover.

Operational properties must be assessed while occupied and maintained, with building fabric, MEP performance and incomplete maintenance history all affecting the conclusion.

What changes in this environment
  • Occupied / live operating environment
  • MEP performance and maintainability
  • Maintenance records and renewal priorities
Questions to establish early
  • Which defects are isolated maintenance issues and which indicate broader asset deterioration?
  • What intervention protects occupancy, service continuity and lifecycle value?
Engineering implicationTranslate condition and operational evidence into interventions that protect service continuity and long-term asset value.
Representative experience

Relevant scope. Confidential by design.

Experience is presented through the technical question, evidence path and typical output. Confidential client, project and facility identifiers remain outside the public website.

Representative scopeSTRUCTURAL ASSURANCE01 / 06Change
EX-01 / REPRESENTATIVE TECHNICAL SCOPE
Asset context
Existing / operating asset
Technical question
What is causing the observed deterioration, and what does it mean for continued performance?
Evidence / method
Records review → field investigation → defect mapping → engineering assessment
Typical output
Condition / integrity basis with prioritized engineering recommendations
STRUCTURAL ASSURANCE

Condition assessment and structural integrity evaluation

The assignment is framed around the technical question first: establish the evidence, distinguish symptoms from credible causes, evaluate significance and define proportionate next action.

Explore all 39 service scenarios
EX-02 / REPRESENTATIVE TECHNICAL SCOPE
Asset context
Project delivery / construction works
Technical question
Can the project demonstrate that materials, workmanship and closure meet the defined acceptance basis?
Evidence / method
ITP / document review → field verification → objective records → action closure
Typical output
Traceable inspection and quality evidence with clear open / closed actions
PROJECT QUALITY

Construction QA/QC and inspection support

The emphasis is not inspection volume; it is whether the acceptance criteria, evidence, observations and closure trail remain coherent enough to support a defensible project-quality decision.

Explore all 39 service scenarios
EX-03 / REPRESENTATIVE TECHNICAL SCOPE
Asset context
Multidisciplinary project environment
Technical question
Where are technical interfaces, decisions or ownership gaps beginning to threaten controlled delivery?
Evidence / method
Interface mapping → technical coordination → site / design action control → reporting
Typical output
Controlled technical coordination and project-delivery support
TECHNICAL DELIVERY

Engineering and project-management support

FORMĚS support is configured around the gaps that matter to delivery: engineering interfaces, field decisions, technical actions, supervision and the information needed to keep responsibilities clear.

Explore all 39 service scenarios
EX-04 / REPRESENTATIVE TECHNICAL SCOPE
Asset context
New / existing development
Technical question
Is the available design and technical information reliable enough for the decision that depends on it?
Evidence / method
Information screening → assumption challenge → discipline review → risk / gap resolution
Typical output
Decision-focused technical review with gaps, risks and required actions
DESIGN ASSURANCE

Technical due diligence and design verification

The review focuses on material assumptions, missing evidence, interfaces and technical risks rather than producing another generic design checklist.

Explore all 39 service scenarios
EX-05 / REPRESENTATIVE TECHNICAL SCOPE
Asset context
Delivered / operating asset
Technical question
Can field evidence be trusted, found and reconciled with the technical record when the next decision is made?
Evidence / method
Structured capture → traceable inspection → field / record reconciliation → controlled data package
Typical output
Verified field and as-built information structured for downstream decisions
DIGITAL FIELD DATA

As-built verification and digital inspection workflow

The digital layer is used to reduce fragmentation between field observations, photographs, inspection records, models and as-built information—not to add technology for its own sake.

Explore all 39 service scenarios
EX-06 / REPRESENTATIVE TECHNICAL SCOPE
Asset context
Client / project organization
Technical question
What competency is missing, where should it sit in the project structure, and what accountability must remain clear?
Evidence / method
Role definition → competency matching → mobilization interface → output / performance control
Typical output
Role-specific technical capacity integrated into the project organization
TECHNICAL CAPACITY

Engineering and field-resource augmentation

Technical manpower is treated as a controlled delivery interface: role, competency, reporting line, expected outputs, project approvals and duration are clarified before mobilization.

Explore all 39 service scenarios
CONFIDENTIALITY CONTROL

Six homepage archetypes explain the different types of technical problem FORMĚS can be asked to solve. The dedicated Experience page expands this into a 39-service scope library without presenting illustrative patterns as identifying project claims.

Digital engineering

Field information transformed into technical intelligence.

The value of a digital workflow is the chain: field evidence becomes a verified record, the record remains connected to engineering information, and the information reaches the decision in a usable form.

FIELD EVIDENCE → VERIFIED RECORD → ENGINEERING DECISION01 / CAPTURE
N01FIELD CAPTUREN02INSPECTIONN03QA / QCN04BIM / MODELN05AS-BUILTN06DECISION
LIVE EVIDENCE ROUTEN01 / CAPTURE
01 / 06CaptureEvidence → controlled decision
01Capture
Incoming evidence
Observation / photograph / test / location
Control applied
Structured field capture with source and location traceability
Decision value
Evidence can be found, attributed and reviewed later
02Inspect
Incoming evidence
Field evidence + applicable acceptance basis
Control applied
Inspection point, criteria and objective observation
Decision value
Observed condition is connected to the requirement it must satisfy
03Verify
Incoming evidence
Inspection records / results / deviations
Control applied
QA/QC review, status logic and action closure
Decision value
Conformance, deviation and unresolved risk remain distinguishable
04Coordinate
Incoming evidence
Verified field record + engineering information
Control applied
Drawing / BIM / model reconciliation and interface control
Decision value
Engineering information stays connected to field reality
05Reconcile
Incoming evidence
Models / drawings / records / approved changes
Control applied
As-built verification and discrepancy resolution
Decision value
The final technical record reflects what was actually delivered
06Decide
Incoming evidence
Verified technical record + project / asset context
Control applied
Engineering judgement, risk, priority and decision criteria
Decision value
Information becomes an actionable technical decision
Engagement models

Deploy the capability the way the project needs it.

Once the technical need is clear, the delivery relationship can be configured around independence, duration, project integration and the level of specialist capacity required.

Technical requirement

Turn the technicalcontext into anactionablerequirement.

The enquiry interface can retain the capability, category, lifecycle, sector and engagement context explored above—so the discussion begins with more useful information.

FORMĚS CONTEXT / OPEN BRIEF

Build as much context as is useful. Every row can take you directly back to the chapter where that decision is made.

Capability
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Category
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Project need
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Lifecycle
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Sector
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Engagement
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Context is optional. Complete the fields that help define the requirement, or continue with a partial brief.

Discuss a Requirement