Safety and Insurance Checklist for Computer & Electronics Repair

PPE requirements

Computer & Electronics Repair should arrive with PPE selected for computer, phone, and electronics repair. Expect ANSI-rated eye protection, material-specific gloves, durable boots, hearing protection when saws, grinders, compressors, pumps, or impact tools are used, and head protection where overhead work or suspended materials are present. For this trade, the higher-signal gear is ESD controls and eye protection for soldering and battery work, cut-resistant gloves for cracked screens and sharp metal cases, and respiratory or local exhaust controls when solder fumes or battery damage are present. Crews should keep respirators fit-tested when work can create dust, mold, lead, asbestos, solvent mist, refrigerant vapor, sewage aerosol, pesticide exposure, or other airborne hazards; a loose disposable mask is not a substitute for an assigned respirator. PPE should match the task on that day: lithium battery replacement, soldering, data equipment, wall-mounted devices, and in-home electronics service. Ask how the supervisor decides when to upgrade from ordinary gloves and glasses to face shields, arc-rated clothing, fall arrest, chemical cartridges, or mechanical ventilation.

OSHA standards

The main OSHA references for computer & electronics repair are 29 CFR 1910.1200 (hazard communication); 29 CFR 1910.147 (control of hazardous energy); 29 CFR 1910 Subpart S, including 1910.303 and 1910.334; 29 CFR 1910.132 and 1910.133 (PPE and eye/face protection). Hazard communication under 29 CFR 1910.1200 matters when cleaners, coatings, adhesives, refrigerants, pesticides, fuels, silica-containing dust, or other chemicals are used. Respirator use should connect to 29 CFR 1910.134 or 29 CFR 1926.103 when required. Tech repair is usually general-industry service. The OSHA emphasis is chemical communication for cleaners, flux, and batteries; safe electrical work practices; lockout or unplugging before service; and eye protection around solder, fragments, and compressed air. Work 6 feet or more above lower levels brings 29 CFR 1926.501 through 1926.503 into fall planning; ladders and scaffolds can add 29 CFR 1926 Subpart X or Subpart L. A credible computer & electronics repair should be able to name the competent person or qualified worker for the risky part of the job, describe training, identify written plans or permits, and explain how hazards are isolated before work starts.

Insurance minimums

Do not treat any number here as a legal minimum. Insurance and bonding minimums vary by state, city, license classification, contract, payroll, subcontractor use, and whether the pro has employees. For computer & electronics repair, many residential customers and general contractors commonly ask for commercial general liability around the $1M per occurrence / $2M aggregate range; higher-risk roof, tree, structural, utility, fire-protection, solar, pool, well, septic, or environmental work may be underwritten at $2M to $5M or more. Small repair trades may sit at the lower end of the range, while trades that alter structure, building envelope, water, gas, power, or environmental conditions are commonly reviewed more strictly by underwriters. Ask for a current certificate that names the actual trade operations and does not exclude the work you are hiring. Workers' compensation is normally required when state law and worker status trigger it; owners, LLC members, family businesses, and subcontractors may be treated differently by state. Verify active status with the state workers' comp agency when possible. Bonding is separate: license, permit, right-of-way, performance, or payment bonds may be required by a state board, municipality, utility, or prime contract. For state-specific licensing and bonding context, use /license/tech-repair-license-in-{state}; replace {state} with the two-letter code, such as /license/tech-repair-license-in-oh.

State example: Computer & Electronics Repair license and bonding context in Ohio. Replace the state code in the URL for another state.

Hazard awareness

Computer & Electronics Repair can create hazards that are easy to miss because the work often happens in familiar rooms, yards, garages, roofs, attics, crawlspaces, or driveways. Hazards include lithium battery fire, swollen cells, solder fumes, glass cuts, data-rack tipover, low-voltage shorts, trip hazards from temporary cords, and privacy-sensitive devices left in unsafe work areas. Older homes add special concerns: pre-1978 paint can trigger lead controls, legacy materials can be asbestos suspect, and plaster, concrete, brick, mortar, stone, or fiber-cement cutting can trigger respirable crystalline silica controls. Noise, heat, poor lighting, awkward access, sharp debris, temporary cords, weather, and occupant traffic can turn a routine job into a high-risk setup. Good contractors perform a short job-hazard review before tools are unloaded, isolate the work area, preserve emergency shutoffs and exits, use ventilation or wet methods when exposure could spread, and document surprises.

Verification questions

Before approving the estimate, ask direct questions. Who is the safety lead, competent person, or qualified worker for this job? Which OSHA standards or company procedures govern the highest-risk task? What PPE, containment, ventilation, fall protection, lockout, traffic control, or excavation protection will be used at my property? Can you send current insurance, workers' compensation proof or exemption, and any required bond? What conditions will make the crew stop work and call me before continuing? For computer & electronics repair, add: How are swollen lithium batteries isolated, stored, and transported?, What ventilation is used for soldering or solvent cleaning?, and How will cords, tools, and customer data devices be secured in the home?. Listen for task-specific answers, not slogans. A contractor who explains limits, exclusions, and stop-work triggers is usually safer than one who says every job is routine. Keep the answers with the signed estimate.