Machine repairing refers to the work involved in diagnosing, maintaining, restoring, and fixing machines to keep them operating efficiently and safely. Machines in this context may include industrial machinery, manufacturing tools, motors, mechanical systems, and consumer‐durables with mechanical components.
Machine repairing exists because machines wear out, break down, or degrade over time. Components can fail by fatigue, corrosion, mechanical stress, lubrication issues, misalignment, or improper operation. Without repair, such failures can lead to downtime, safety risks, wasted energy, or complete loss of function.
Why it matters today
Industrial productivity & manufacturing: Industries depend on machines to produce goods. A breakdown in a critical machine can halt production lines, reduce output, increase costs.
Safety & reliability: Malfunctioning machines may pose hazards—mechanical failures, electrical faults, unsafe operation. Repair maintains safe operation.
Sustainability & resource conservation: Repairing machines instead of replacing them helps reduce waste, conserve materials, reduce carbon footprint.
Cost efficiency over time: Even though repairs require investment, regular maintenance and timely repair can prevent more expensive failures, extend useful life.
Who it affects
Manufacturers and industrial firms (automotive, heavy engineering, electronics, etc.)
Maintenance technicians & engineers
Small and medium enterprises (SMEs) who may lack large maintenance resources
Consumers, especially owners of durable equipment, who benefit from higher reliability and longer life
What problems it solves
Minimizes unexpected downtime
Improves machine performance and precision
Reduces waste and the need for frequent full replacement
Enhances safety
Helps meet regulatory/safety compliance
The global industrial machinery repair service market was estimated at about USD 34.10 billion in 2024, and is projected to grow to around USD 57.23 billion by 2034 at a CAGR of ~5.31%.
In India, the machine tools market was valued at approx USD 1.7 billion in 2024, with forecasts suggesting growth to USD 3.4 billion by 2033, driven by rising automation, demand for precision, and increasing end‐use needs (automotive, aerospace, electronics).
The growing adoption of predictive maintenance and condition monitoring: using sensors, data analytics, IoT for forecasting failure rather than just fixing after breakdown.
Remote diagnostics and digital tools are more frequently used to assist in troubleshooting and to reduce time to repair.
Sustainability and repairability are getting more attention. For example, in India, a “Repairability Index” framework has been proposed (in May 2025) for the mobile and electronics sector (smartphones, tablets) to help consumers assess ease of repair.
Regulatory changes: In India, the Omnibus Technical Regulation (OTR) Order, 2024 mandates safety rules and BIS (Bureau of Indian Standards) certification for a wide range of machinery and electrical equipment. Effective from August 28, 2025.
The Right to Repair India initiative: set up by the Department of Consumer Affairs, under the Ministry of Corporate Affairs. It aims to ensure greater sustainability of products by facilitating repair and reuse. Sectors included are farming equipment; mobile phones & tablets; consumer durables; and automobiles & automobile equipment. OEMs (Original Equipment Manufacturers) are urged to share product/component details, warranty and post‐sale information.
The Repairability Index (RI) for mobile & electronics sector: As of May 3, 2025, a framework was submitted that would require OEMs to self‐declare RI for smartphones and tablets.
OTR 2024 (Omnibus Technical Regulation Order): From August 28, 2025, many machines/equipment must comply with BIS certification under this regulation, covering over 400 products grouped under 90 Indian Standards.
These laws/policies affect how repairs are done (e.g. availability of parts, required safety standards, whether users/third parties can access repair information), who is responsible, and what minimum safety or repairability features are required.
Below are some helpful tools, apps, standards, websites, or services relevant to machine repairing:
Condition monitoring tools & sensors: vibration sensors, temperature sensors, sound sensors, oil analysis kits. These help detect early signs of wear or failure.
Diagnostic software / IoT platforms: software that collects and analyzes machine performance data to predict faults (e.g. using machine learning). Some are cloud‐based, some local.
Standards & guidelines:
BIS (Bureau of Indian Standards) specifications for machine safety under OTR 2024.
IS (Indian Standards) for machinery safety, electrical safety, etc.
Training and certification programs: technical institutes or courses for maintenance engineering, industrial instrumentation, reliability engineering.
Repairability Index (RI) framework documents (once published) for mobile/electronic sector in India.
Academic research: e.g. papers on predictive models for machine health prognosis (for example, Transformer-based frameworks for failure prediction)
Repair & spare part databases: catalogues from OEMs or third‐party providers for spare parts, service manuals, exploded views etc.
Regulatory portals and government websites: Department of Consumer Affairs, BIS Manakonline portal for certification, Right to Repair India portal.
What is the difference between preventive, corrective, and predictive maintenance?
Preventive maintenance means servicing machines at scheduled intervals regardless of whether they show failure signs, to prevent breakdowns.
Corrective maintenance is repairing machines after a failure or fault has occurred.
Predictive maintenance uses monitoring and data to forecast when machine parts are likely to fail, so repair can be done just before failure (neither too early nor too late).
Can third‐party repairers access parts and information from manufacturers?
It depends on the jurisdiction and product. Under India’s Right to Repair initiative, OEMs may be required (or encouraged) to share parts/component details and post‐sale information. Also, in past legal rulings (e.g. by the Competition Commission of India), restrictions by manufacturers on spare parts access have been considered anti‐competitive.
How do laws like OTR 2024 affect machine repairing?
They generally require machines or components to meet safety standards; require certification. That means machines must be built or repaired so that they comply with defined safety norms; spare parts, modifications, or repairs may need to conform. Also, importing or manufacturing machinery that doesn’t meet BIS safety under OTR may be prohibited.
What challenges do repairers or firms face in modern machine repairing?
Shortage of skilled technicians familiar with modern diagnostics, electronics, software.
High cost and sometimes low availability of spare parts, especially for niche or imported machines.
Complexity of machines that combine mechanical, electrical, electronic, and software parts.
Need to comply with evolving regulation/safety/repairability standards.
Ensuring safety during repair, and ensuring repairs do not degrade performance or violate warranties.
How is technology changing machine repairing practices?
Increased use of IoT and sensors for real-time monitoring.
Machine learning and data analytics to predict failures (predictive maintenance).
Remote diagnostics—experts can guide or troubleshoot from afar.
Use of augmented reality (AR) or virtual assistance to support repair technicians.
Emphasis on design for repairability (making machines/components easier to disassemble, standardising parts).
Machine repairing remains a vital function in keeping industries, infrastructure, and consumer machinery running safely, efficiently, and sustainably. With growing emphasis on automation, digital tools, repairability, sustainability, and regulation, the field is evolving. For operators, technicians, manufacturers and consumers alike, staying informed about maintenance strategies, safety standards, access to repair information, and recent laws is important. The future will likely see more intelligent monitoring, stricter safety and repairability requirements, and a shift toward more sustainable, lifecycle‐aware machine design and maintenance.