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Manx Technology GroupSmart Island

Sector Deep-Dive

Precision Manufacturing & Engineering

Engineers, skilled trades, production operatives, and technicians at IoM's industrial base — Ronaldsway Aircraft Engineering, Strix, Yanmar, Swagelok, Hettich and precision component makers

Census Workers

754

Active Vacancies

18

Composite Risk

18/100

Median Salary

£41k

Occupation Breakdown

Census headcounts, AI exposure, and salary data per SOC code

SOCTitleWorkersAutomation %Augmentation %F&O ProbMedian SalaryBright OutlookVacancies
2122Mechanical engineers10841.8%33.8%1.00£51k0
2126Aerospace engineers3283.7%0.0%1.70£56k-0
5221Metal machining setters and setter-operators1844.1%38.5%0.00£35k-0
5222Tool makers, tool fitters and markers-out1840.4%36.8%84.00£39k-0
5223Metal working production and maintenance fitters26010.5%50.5%39.00£40k6
5249Electrical and electronic trades n.e.c.12213.3%57.0%10.00£48k0
8111Food, drink and tobacco process operatives18245.1%35.3%0.00£27k-1
8114Plastics process operatives1445.1%35.3%0.00£30k-0

AI Exposure Analysis

Automation vs augmentation breakdown and Frey-Osborne comparison

AI Exposure by Occupation

Task Composition

Routine: 33
Augmented: 70
Human-only: 49

Employer Concentration

Top Skills in Demand

Salary Distribution by Occupation

Cyan bar = interquartile range (p25-p75). Grey = outer deciles.

Skills & Knowledge

Most demanded skills, knowledge areas, and emerging technologies

Top Knowledge Areas

  • Health and Safety Procedures15
  • Mechanical Engineering11
  • Regulatory Compliance9
  • Reporting and Documentation8
  • Administrative Procedures7
  • Engineering and Technology6
  • Building and Construction6
  • Client Service and Relationship Management6
  • Quality Assurance and Testing6
  • Manufacturing Processes6

Hot Technologies

From O*NET (US-centric) — IoM relevance may vary

  • Microsoft PowerPoint6
  • Microsoft Outlook6
  • Microsoft Excel5
  • Dassault Systemes SolidWorks4
  • Microsoft Office software4
  • Autodesk AutoCAD3
  • The MathWorks MATLAB3
  • Apple Safari2
  • Microsoft Edge2
  • Mozilla Firefox2

Emerging Gaps

  • Writing
  • Incident Management
  • Data Analysis
  • Staff Training
  • Project Management

Task Composition

Routine, augmented, and human-only task breakdown

Routine

22%

33 tasks

  • Maintain accurate service and repair records for each lift serviced.AI/Tool: Digital record-keeping and automated reporting via field service management software or mobile apps.
  • Travel between client sites using a company vehicle.AI/Tool: Route optimization software (e.g., Google Maps, Routific) can automate navigation, but driving remains largely manual.
  • Perform routine maintenance and servicing of plant machinery and workshop equipment.AI/Tool: CMMS (Computerized Maintenance Management Systems) like Fiix or UpKeep can automate scheduling and tracking, and some tasks can be outsourced to specialized service providers.
  • Complete service reports and maintenance paperwork accurately.AI/Tool: Mobile field service apps (e.g., ServiceM8, Joblogic) can automate report generation and digital paperwork.
  • Maintain accurate shipment tracking and logistics recordsAI/Tool: RPA tools (UiPath, Blue Prism) or logistics ERP modules automate data entry and record maintenance.

Augmented

46%

70 tasks

  • Diagnose and repair faults in a variety of passenger lift systems.AI/Tool: AI diagnostic tools (e.g., Siemens MindSphere) can assist with fault detection, but human expertise is needed for complex repairs.
  • Read and interpret technical manuals, blueprints, and schematics to guide repairs.AI/Tool: AI-powered document readers (e.g., ChatGPT or Copilot) can help extract and summarize relevant information, but human understanding is necessary for application.
  • Ensure all client label attachment requirements are met prior to final inspection.AI/Tool: Barcode scanning and RFID tracking systems can assist, but human oversight ensures correct label placement and compliance.
  • Support Product Quality Planning (PQP) events, gage R&R studies, and validation for new products.AI/Tool: AI-powered project management and statistical analysis tools can assist, but human expertise is required for experiment design and validation.
  • Diagnose mechanical and electrical faults using diagnostic equipment.AI/Tool: Diagnostic software (e.g., Blue Streak Electronics Buell Diagnostic, CODA Engine Analysis System) can identify fault codes, but interpretation and action require a technician.

Human-only

32%

49 tasks

  • Ensure all work is completed to high safety standards and in compliance with regulations.AI/Tool: Safety culture enforcement and real-time judgment are inherently human; AI can monitor but not replace responsibility.
  • Test drive vehicles to verify repairs and performance.AI/Tool: Physical presence and real-time judgment required; automation limited by safety and legal constraints.
  • Install cables, racking, cleating, and clamping at sites.AI/Tool: Physical installation in varied environments demands dexterity, adaptability, and safety awareness, resisting automation.
  • Assess risks and take necessary precautions prior to setting self and/or others to work.AI/Tool: Requires real-world judgment, situational awareness, and responsibility for safety, which cannot be fully automated.
  • Liaise with landowners, businesses, and the public to communicate project plans and progress.AI/Tool: Requires in-person empathy, negotiation, and trust-building with diverse stakeholders.

Hiring Landscape

Market concentration and top hiring organisations

HHI Index

0.080

Competitive market

Top-3 Share

33%

Top Hiring Organisations

  1. 1. GMA Engineering2
  2. 2. Swagelok Limited2
  3. 3. Manx Utilities2
  4. 4. The Albion Knitting Company IOM Ltd2
  5. 5. Ocean Motor Village1

Salary Distribution

Percentile ranges by occupation and industry benchmarks

Data note: UK ONS ASHE data suppresses salary percentiles where sample sizes are too small. Values shown as £0 indicate suppressed data, not actual salaries. Only median values are reliably available for these occupations.

SIC Industry Median

£39k

SIC Industry Mean

£43k

SOCTitleMedianp10p25p75p90
2122Mechanical engineers£51ksuppressedsuppressedsuppressedsuppressed
2126Aerospace engineers£56ksuppressedsuppressedsuppressedsuppressed
5221Metal machining setters and setter-operators£35ksuppressedsuppressedsuppressedsuppressed
5222Tool makers, tool fitters and markers-out£39ksuppressedsuppressedsuppressedsuppressed
5223Metal working production and maintenance fitters£40ksuppressedsuppressedsuppressedsuppressed
5249Electrical and electronic trades n.e.c.£48ksuppressedsuppressedsuppressedsuppressed
8111Food, drink and tobacco process operatives£27ksuppressedsuppressedsuppressedsuppressed
8114Plastics process operatives£30ksuppressedsuppressedsuppressedsuppressed

AI Fluency Guide

Zapier's AI Fluency Framework applied to this sector — what 'good' looks like at every level

Based on Zapier's AI Fluency Rubric (Mindset, Strategy, Building, Accountability), these guides show what AI-fluent practice looks like for each occupation in this sector. Use them to benchmark your team, guide training, or prepare for interviews.

Aerospace engineers

O*NET 17-2011.00 / SOC 2126

How to absolutely smash it as an Aerospace Engineer

Quick Wins (this week)

  • Automate CAD model generation with Autodesk Fusion 360’s AI tools
  • Fine-tune ChatGPT for rapid requirements analysis
  • Set up anomaly detection on sensor data using Azure ML
  • Join an AI in Aerospace online community
  • Test generative design for lightweight components

Tools to Learn

Autodesk Fusion 360 Generative DesignAnsys Twin BuilderMATLAB with Deep Learning ToolboxAzure Machine LearningChatGPT (custom GPTs for engineering)

Stand-out Tip

Exceptional aerospace engineers leverage AI to rapidly prototype, simulate, and validate novel designs, accelerating innovation while maintaining rigorous safety standards.

Fluency Matrix

GenAI empowers aerospace engineers to automate design iterations, optimise simulations, and streamline documentation. It enables rapid prototyping, advanced problem-solving, and collaborative knowledge sharing, fundamentally shifting workflows from manual analysis to intelligent, exception-driven processes.

Task / AreaUnacceptableCapableAdoptiveTransformative
Designing aircraft and spacecraft components(task)Uses GenAI occasionally to generate ideas but relies on traditional CAD tools and manual design processes.Integrates GenAI to generate multiple design alternatives and optimise parameters, improving design speed and quality.Builds GenAI-powered workflows that automate iterative design and validation, sharing templates with the team.Design processes are fully automated; GenAI generates, tests, and selects optimal designs, engineers review only exceptions.
Aerodynamic analysis and simulation(task)Runs simulations manually; uses GenAI for occasional research on aerodynamic principles.Uses GenAI to set up simulations, interpret results, and suggest improvements, reducing analysis time.Creates automated GenAI-driven simulation workflows that run standard analyses and flag anomalies for review.Simulations are autonomously managed; GenAI continuously optimises designs and only escalates unusual cases.
Testing and validation of prototypes(task)Documents test plans and results manually, occasionally using GenAI to summarise findings.Employs GenAI to generate test plans, analyse data, and produce reports, improving accuracy and speed.Develops reusable GenAI systems for automated test planning, data analysis, and report generation across projects.Testing workflows are fully automated; GenAI handles planning, execution, and reporting, with engineers intervening only for exceptions.
Failure analysis and troubleshooting(task)Consults GenAI for background information but relies on manual investigation and documentation.Uses GenAI to analyse failure data, suggest root causes, and recommend corrective actions.Builds GenAI-driven troubleshooting templates and workflows that standardise analysis and share best practices.GenAI autonomously monitors systems, detects failures, and initiates troubleshooting, escalating only complex cases.
Compliance with regulations and standards(task)Uses GenAI to search regulations but manually checks compliance and updates documentation.Applies GenAI to automatically check designs against regulatory requirements and flag issues.Creates GenAI-powered compliance workflows that auto-update documentation and share compliance templates.Compliance is continuously monitored and maintained by GenAI; human review is needed only for regulatory changes or exceptions.
Technical documentation and reporting(task)Drafts documents manually, occasionally using GenAI for grammar or summarisation.Uses GenAI to generate and update technical documents, improving clarity and consistency.Develops GenAI-based templates and automated reporting workflows, enabling team-wide adoption.Documentation is auto-generated and maintained by GenAI, requiring human input only for novel or complex content.
Collaboration and project management(task)Uses GenAI for meeting notes or scheduling, but core project management remains manual.Employs GenAI to coordinate tasks, track progress, and facilitate communication, improving efficiency.Builds GenAI-powered project management systems that automate workflows and share best practices across teams.Project management runs autonomously; GenAI coordinates resources, deadlines, and communication, engineers intervene only for exceptions.
Materials science and selection(knowledge)Uses GenAI to look up material properties but relies on manual selection and analysis.Applies GenAI to recommend materials based on project requirements and constraints, improving selection speed.Creates GenAI-driven databases and selection workflows that automate material analysis and share knowledge with peers.Material selection is fully automated; GenAI continuously updates recommendations based on latest research and project needs.

Mechanical engineers

O*NET 17-2121.00 / SOC 2122

How to absolutely smash it as a Mechanical Engineer

Quick Wins (this week)

  • Experiment with Autodesk Fusion 360’s generative design tools.
  • Automate a repetitive CAD task using an AI plugin.
  • Analyse historic maintenance logs with ChatGPT for insights.
  • Draft a technical report using an AI writing assistant.
  • Set up an alert for abnormal sensor readings using Azure ML.

Tools to Learn

Autodesk Fusion 360 (Generative Design)ANSYS AI-powered SimulationChatGPT (technical documentation)Azure Machine LearningSiemens MindSphere

Stand-out Tip

Exceptional mechanical engineers use AI to uncover design solutions and automate analysis, freeing time for innovation and strategic problem-solving.

Fluency Matrix

GenAI enables mechanical engineers to automate design iterations, optimise simulations, and streamline documentation. It transforms the role by reducing manual analysis, accelerating prototyping, and facilitating knowledge sharing across teams. Engineers shift from repetitive tasks to exception handling and higher-level problem solving.

Task / AreaUnacceptableCapableAdoptiveTransformative
CAD Design and Modelling(task)Occasionally uses GenAI for quick design suggestions but relies on manual CAD work. No measurable improvement in speed or quality.Uses GenAI to generate initial CAD models, speeding up design cycles and improving accuracy. Integrates GenAI outputs into standard workflows.Builds GenAI-powered templates and workflows for common design tasks, enabling team members to rapidly iterate and customise models.Design processes are largely automated by GenAI, with engineers reviewing only complex or novel cases. Routine designs are generated and validated without manual input.
Finite Element Analysis (FEA)(task)Runs FEA manually, occasionally asking GenAI for advice but not integrating it into analysis. Results unchanged.Uses GenAI to automate setup and interpretation of FEA, reducing errors and speeding up analysis. Gains measurable improvements in throughput.Develops GenAI-driven workflows for FEA, standardising simulation parameters and reporting. Shares these systems with colleagues.FEA is fully orchestrated by GenAI, which runs simulations, interprets results, and flags only anomalies for human review.
Technical Documentation(task)Uses GenAI to draft occasional sections but edits and compiles documents manually. No reduction in workload.GenAI drafts and organises technical documentation, improving clarity and consistency. Documentation is produced faster and with fewer errors.Creates reusable GenAI templates for documentation, enabling the team to produce standardised reports and manuals.Documentation is auto-generated from design and analysis outputs. Engineers only review documents for regulatory or bespoke needs.
Design Optimisation(task)Asks GenAI for optimisation ideas but implements changes manually. No systematic improvement.Uses GenAI to suggest and evaluate design optimisations, leading to measurable performance gains.Establishes GenAI-driven optimisation workflows, allowing rapid exploration of design alternatives and sharing best practices.GenAI continuously optimises designs based on real-time feedback and constraints, with engineers overseeing only exceptional cases.
Prototyping and Testing(task)Uses GenAI for occasional test plan suggestions but relies on manual prototyping and testing processes.GenAI assists in generating prototype designs and test plans, reducing cycle times and improving test coverage.Develops GenAI-powered systems that automate prototype generation and testing workflows, enabling team-wide adoption.Prototyping and testing are largely automated by GenAI, with results analysed and actions recommended without manual intervention.
Project Management(task)Uses GenAI for sporadic task tracking advice but manages projects manually. No impact on delivery.GenAI helps schedule tasks, track progress, and flag risks, leading to more efficient project delivery.Creates GenAI-driven project management templates and dashboards, standardising workflows across the team.Project workflows are managed by GenAI, which allocates resources and tracks milestones automatically. Engineers intervene only for exceptions.
Supplier and Material Selection(task)Occasionally asks GenAI about materials but relies on manual research and supplier outreach.GenAI analyses requirements and recommends optimal suppliers and materials, improving procurement efficiency.Builds GenAI-powered selection systems, enabling the team to automate material and supplier evaluation.Material and supplier selection is fully automated by GenAI, with orders placed and tracked without manual input except for unique cases.
Regulatory Compliance(task)Uses GenAI for occasional compliance queries but manually checks regulations and standards.GenAI reviews designs for compliance, highlighting issues and suggesting fixes, reducing compliance errors.Creates GenAI-driven compliance checklists and workflows, enabling automated regulatory reviews across projects.Compliance is monitored and enforced automatically by GenAI, with engineers only involved for complex or new regulations.

AI Assessment

AI-generated analysis of the sector landscape

Executive Summary

The Isle of Man's Precision Manufacturing & Engineering sector employs 754 workers across leading firms such as Ronaldsway Aircraft Engineering, Strix, and Swagelok. The sector demonstrates moderate AI exposure, with an average automation share of 29.03% and an augmentation share of 42.46%. Key occupations such as aerospace engineers face much higher automation potential (up to 83.65% automation risk), while roles like metal working production and maintenance fitters are more likely to be augmented (automation 10.47%, augmentation 50.55%).

Analysis of 152 core tasks reveals that 21.71% can be fully automated using current AI and workflow tools-examples include digital record-keeping via field service management apps and automated logistics records using RPA. Nearly half of tasks (46.05%) are suited to AI augmentation, such as using Siemens MindSphere for diagnostics or ChatGPT for technical document analysis. The sector's critical actions are: accelerate adoption of proven AI solutions for routine tasks, invest in upskilling for AI-augmented work, and ensure human expertise remains central to safety and compliance functions.

Current Landscape

The sector comprises 754 workers (IoM Census 2021), with the largest occupational groups being metal working production and maintenance fitters (260) and food, drink and tobacco process operatives (182). Active vacancy rates are low (18 vacancies total), with most demand for maintenance fitters (6) and process operatives (1), suggesting a stable but not rapidly expanding workforce.

Employer concentration is low (HHI 0.08, competitive market), with top employers including GMA Engineering, Swagelok Limited, and Manx Utilities, each accounting for only a small share of the labour market. Median salaries are competitive: sector median is £40,684, with mechanical and aerospace engineers earning the highest medians (£50,594 and £55,817 respectively). However, percentile data are often suppressed, indicating a need for more granular, IoM-specific salary intelligence.

AI Exposure Analysis

Automation Risk

  • Aerospace engineers (SOC 2126) face the highest automation risk (83.65% automation share, Frey-Osborne score 1.7, FRS-AIOE 1.34), driven by advances in AI-driven simulation, generative design, and digital twins.
  • Metal machining setters, tool makers, and process operatives also have moderate automation exposure (automation shares ~40-45%), but with lower augmentation potential, suggesting some displacement risk for routine tasks.

Augmentation Opportunity

  • Metal working production and maintenance fitters (SOC 5223) and electrical/electronic trades (SOC 5249) are more likely to be augmented (augmentation shares 50.55% and 56.98% respectively, FRS-AIOE scores negative), indicating AI will support rather than replace these roles.
  • Mechanical engineers (SOC 2122) are in a transitional zone (automation 41.79%, augmentation 33.75%), with AI tools shifting their work from manual analysis to exception-driven problem solving.

Overall, the sector's composite risk score is low (18/100), but targeted roles-especially those with high routine task content-require upskilling and workflow redesign to mitigate displacement risk.

Skills & Tasks Analysis

Top Skills and Knowledge Areas

  • Soft skills such as Attention to Detail (17 mentions), Reliability (17), and Problem Solving (13) are most in demand, alongside domain-specific skills like Health and Safety Compliance (14) and Mechanical Fault Diagnosis (10).
  • Key knowledge areas include Health and Safety Procedures (15), Mechanical Engineering (11), and Regulatory Compliance (9).

AI/Automation Solutions in Practice

  • Routine record-keeping and reporting can be automated with field service apps (e.g., ServiceM8, Joblogic) and CMMS tools (e.g., Fiix, UpKeep), reducing paperwork and administrative burden.
  • Logistics and shipment tracking are streamlined via RPA tools (UiPath, Blue Prism), automating data entry and tracking.
  • Diagnostic and fault-finding tasks are augmented by AI tools like Siemens MindSphere and Blue Streak Electronics, supporting but not replacing technical judgement.
  • Technical documentation and blueprint interpretation are accelerated by AI-powered readers (ChatGPT, Copilot), making information retrieval faster but still requiring human application skills.

Emerging skills gaps include AI tool fluency (e.g., using Autodesk Fusion 360 Generative Design, Azure ML), data-driven decision making, and the ability to integrate AI outputs into safety-critical workflows. Human judgement, safety culture, and stakeholder communication remain resistant to automation and thus are increasingly valuable.

Transition Pathways

2-5 Year Evolution Scenarios

  • Optimistic: Widespread adoption of AI tools (e.g., automated CAD with Autodesk Fusion 360, CMMS for scheduling, RPA for logistics) frees up 20-30% of staff time, which is reinvested in process improvement and innovation. Upskilled workers leverage AI for rapid prototyping, advanced diagnostics, and exception handling, driving productivity and sector growth.
  • Baseline: Routine tasks (record-keeping, logistics, basic diagnostics) are automated using existing solutions (ServiceM8, UiPath, Siemens MindSphere), but augmentation is uneven. Most workers adapt by learning AI-assisted workflows, with some displacement in the most routine roles. Sector remains stable, with incremental productivity gains.
  • Pessimistic: Slow AI adoption leads to skills mismatches, and routine roles (machining, process operations) see gradual attrition as automation outpaces reskilling. Without investment in AI fluency, the sector risks losing competitiveness and faces recruitment challenges for high-value, augmented roles.

In all scenarios, the ability to integrate and adapt to AI solutions (named above) will be the key differentiator for both employers and workers. Human-centred tasks-safety, compliance, client engagement-will define the sector's unique value proposition on the Isle of Man.

Stakeholder Recommendations

Tailored guidance for each stakeholder group

UCM
  • Integrate AI tool training into engineering and technician programmes-specifically hands-on modules with Autodesk Fusion 360 Generative Design, Siemens MindSphere, and Azure Machine Learning.
  • Develop short courses on AI-augmented maintenance (e.g., using CMMS like Fiix/UpKeep and RPA for logistics) for upskilling mid-career professionals.
  • Partner with local employers (e.g., Swagelok, Strix) to deliver work-based learning projects focused on implementing AI in real manufacturing workflows.
  • Establish an IoM AI in Engineering skills hub to facilitate knowledge exchange, industry placements, and continuous professional development in partnership with leading tool providers.
  • Expand safety-critical and human factors training to reinforce the irreplaceable value of human judgement and compliance in augmented environments.
Schools
  • Emphasise STEM subjects (maths, physics, computing) and digital literacy as foundational for all engineering careers.
  • Introduce early exposure to AI and automation tools through workshops with platforms like Autodesk Tinkercad and simple coding for automation (e.g., Python for IoT).
  • Promote career guidance that highlights the blend of technical and soft skills (problem-solving, safety, teamwork) required in modern engineering roles.
  • Facilitate work experience placements with local manufacturers, focusing on both traditional and AI-augmented workflows.
  • Encourage participation in engineering competitions (e.g., FIRST Robotics, F1 in Schools) to build practical teamwork and innovation skills.
Government
  • Incentivise AI adoption in manufacturing SMEs via grants or tax credits for implementing tools like CMMS, RPA, and AI-driven CAD systems.
  • Fund sector-specific retraining programmes in partnership with UCM, focused on AI fluency and digital skills for displaced or at-risk workers.
  • Mandate IoM-specific salary and skills surveys to inform workforce planning and ensure competitive compensation data.
  • Support regulatory sandboxes for safe experimentation with AI in safety-critical processes, ensuring compliance without stifling innovation.
  • Promote public awareness campaigns on the evolving nature of engineering work and the opportunities in AI-augmented roles.
Employers
  • Adopt proven AI and automation tools-e.g., ServiceM8 or Joblogic for digital reporting, Fiix or UpKeep for maintenance scheduling, UiPath for logistics records-to eliminate low-value manual tasks.
  • Invest in workforce AI upskilling (e.g., Autodesk Fusion 360 Generative Design, ChatGPT for documentation analysis) to future-proof technical teams.
  • Redesign roles to focus on exception handling, safety, and process improvement, leveraging AI to augment rather than replace skilled workers.
  • Foster a culture of continuous learning and encourage staff participation in AI in Engineering communities and online courses.
  • Ensure robust human oversight in all safety-critical and compliance tasks, using AI as a support tool rather than a substitute for judgement.
Workforce
  • Learn to use AI-augmented tools such as Autodesk Fusion 360, Siemens MindSphere, and ChatGPT to automate routine design, diagnostics, and documentation tasks.
  • Develop AI fluency-experiment with RPA (UiPath), CMMS (Fiix/UpKeep), and diagnostic software to stay relevant as workflows evolve.
  • Prioritise soft skills (problem-solving, safety awareness, communication) that are resistant to automation and essential for human-centred roles.
  • Engage in continuous professional development through online courses, industry certifications, and participation in AI in Engineering communities.
  • Be proactive in career planning: Identify roles most likely to be augmented, seek out training opportunities, and be open to pivoting into higher-value, AI-augmented positions.
Methodology & Sources

This sector deep-dive combines multiple data sources to provide a comprehensive assessment:

  • Census data: IoM Census 2021 (census_soc4_summary) for worker headcounts
  • AI exposure: Anthropic FRS AI modes and AIOE direction scores
  • Automation probability: Frey & Osborne (2017) via O*NET crosswalk
  • Salaries: ONS ASHE salary percentiles (SOC & SIC level)
  • Vacancies: Live data from services.gov.im Job Centre
  • Skills & tasks: AI-enriched job postings with O*NET classification
  • AI narrative: Azure OpenAI assessment referencing computed metrics

Composite risk score (0-100) is a weighted blend: 40% automation share + 30% Frey-Osborne probability + 30% FRS-AIOE direction.

HHI (Herfindahl-Hirschman Index) measures employer market concentration: <0.15 = competitive, 0.15-0.25 = moderate, >0.25 = concentrated.

Generated: 14/04/2026

Related Pages

Precision Manufacturing & Engineering — Sector Deep-Dive | Smart Island - Smart Island | Manx Technology Group