ROHM Co., Ltd. (6963.T): PESTEL Analysis

ROHM Co., Ltd. (6963.T): PESTLE Analysis [Dec-2025 Updated]

JP | Technology | Semiconductors | JPX
ROHM Co., Ltd. (6963.T): PESTEL Analysis

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ROHM stands at a powerful inflection point-backed by government subsidies, leading SiC and wide‑bandgap R&D, and scaling 8‑inch production to capture surging EV and industrial power demand-yet it must manage rising compliance and input costs, talent shortages, and significant exposure to China amid tightening export controls; strategic opportunities in automotive electrification, renewable energy inverters, AI‑optimized chips and ASEAN capacity expansion could accelerate growth if ROHM navigates IP, regulatory and supply‑chain risks effectively. Continue to the full SWOT to see how ROHM can turn policy tailwinds and technological leadership into durable competitive advantage while mitigating geopolitical and cost pressures.

ROHM Co., Ltd. (6963.T) - PESTLE Analysis: Political

Government subsidy-backed expansion of semiconductor capacity materially affects ROHM's capital allocation, fab expansion and R&D timing. Major national programs - the U.S. CHIPS and Science Act (approx. $52 billion), Japan's semiconductor investment package (multi‑hundred billion JPY class public support), and EU Chips Act (tens of billions EUR) - create direct incentives and co‑funding opportunities for capacity additions in power devices, analog ICs and discrete components where ROHM competes.

ProgramApprox. Public FundingRelevant TimeframeImplication for ROHM
U.S. CHIPS Act$52 billion2022-2031Potential partner funding, accelerates U.S. fabs and local content demand for power semiconductors
Japan semiconductor package¥hundreds of billions (national/regional)2022-2028Direct support for domestic fab upgrades, subsidies for equipment and workforce development
EU Chips Act€tens of billions2023-2030Grants and co-investments for on‑shoring, benefits ROHM's European customers and potential local supply partnerships

  • Subsidy impact: Enables ROHM to de‑risk capital expenditure for new fabs or capacity conversion to SiC/GaN and to secure long‑term government‑backed customer projects.
  • Conditionality: Subsidies often require local employment/content thresholds, IP sharing or joint ventures that ROHM must evaluate against strategic independence.

Compliance with evolving supply chain transparency requirements is becoming mandatory for tier‑1 suppliers serving critical industries. Regulations in Japan, the EU and the U.S. require enhanced disclosure of provenance, conflict minerals, forced labor checks and tiered emissions/scope data for suppliers by 2025-2027 time horizons. For ROHM, this increases reporting costs and drives investments in supplier audits, blockchain/ERP traceability and contractual terms with sub‑suppliers.

RequirementJurisdictionsCompliance DeadlineOperational Impact
Supply chain transparency & due diligenceEU Corporate Sustainability Reporting Directive, U.S. SEC rulemaking, Japan SCoC guidance2024-2027 phasedExpanded supplier disclosure, audit budgets, IT investments
Conflict minerals reportingGlobal (SEC, voluntary industry standards)OngoingTraceability demands on raw material sourcing for power semiconductors

  • ROHM must maintain certified supply chain mapping for tier‑1 and key tier‑2 suppliers by 2026 in many markets.
  • Non‑compliance risks: fines, delisting from customer approved vendor lists, or lost procurement from OEMs in regulated sectors (automotive, defense).

Export controls targeting non‑allied nations (e.g., U.S. restrictions on advanced node tools, technology transfer and semiconductor grade materials) can constrain ROHM's addressable markets and product roadmap. Controls increase compliance burdens for licensing, dual‑use classification and end‑use vetting. In 2023-2024 several export regimes tightened for advanced lithography, EUV‑related items, and supply to certain Chinese entities, affecting global supply chain flows.

Control AreaTargetEffect on ROHM
Advanced semiconductor tool export controlsHigh‑end lithography/equipment suppliersPotential delays in partner fabs; increased costs to source replacements; strategic shift to less‑restricted technologies
End‑use/end‑user restrictionsCertain Chinese companies/defense applicationsRestricted sales and licensing processes; need for customer vetting and potential revenue loss in affected segments

Domestic chip production growth targets supported by national industrial policy (Japan aims to expand domestic share and resilience) create preferential procurement and development programs. Targets often include percentage increases in domestic production capacity and workforce upskilling commitments through 2030. This raises demand for locally produced power semiconductors, modules and sensors - core ROHM product areas.

  • Policy target examples: national production share uplift and ¥ investment incentives through 2025-2030.
  • Operational consequence: priority access to government projects, stronger collaboration with domestic OEMs (automotive, industrial), and opportunities for government‑sponsored workforce training.

Designation of specified critical materials for power semiconductors (e.g., SiC wafers, certain rare earths, gallium, special packaging materials) produces strategic stockpiling, export/import permits, and preferred domestic sourcing policies. Official criticality designation typically triggers strategic inventories, procurement preferences for domestic firms and possible tariff/quota adjustments.

MaterialReason for DesignationPolicy Actions
SiC wafersEssential for high‑efficiency power devices; limited global capacityStockpile incentives, import screening, subsidies for domestic SiC supply chain
Gallium & specialty chemicalsInput for compound semiconductors and epitaxy processesStrategic reserves, supplier certification programs
Advanced packaging substratesCritical for automotive/high‑reliability modulesPreferential procurement, export control coordination

ROHM Co., Ltd. (6963.T) - PESTLE Analysis: Economic

Currency advantage from Yen depreciation

The prolonged weakness of the Japanese yen versus the US dollar and euro has created a material currency tailwind for ROHM's yen-denominated cost base and export-derived revenue. USD/JPY moved from ~110 (2021 average) to peaks near 155 (2022-2023), easing effective conversion of overseas sales when repatriated to yen and improving gross-revenue translation for the large portion of semiconductor sales invoiced in dollars and euros.

Indicator Recent Value / Change Implication for ROHM
USD/JPY (2021 avg) ~110 Baseline prior to major depreciation
USD/JPY (2022-2023 peak) ~155 ~41% stronger USD vs. 2021 -> positive translation impact
Export share (industry proxy) High (70%+ of Japanese semiconductor revenue often exported) Significant portion of revenue benefits from FX

Rising logistics and material costs affecting margins

Global supply-chain disruptions and freight-market volatility have increased logistics and raw-material outlays. Ocean freight rate indices have oscillated widely; spot rates for Asia-to-North-America and Asia-to-Europe lanes spiked in 2021-2022 and normalized at higher plateaus in following years. Semiconductor-grade materials (substrates, specialty chemicals, silicon wafers, rare-earths for components) have seen cost inflation between mid-single to high-single digits year-over-year in recent inflationary periods, compressing margins unless offset by price pass-through or productivity gains.

  • Average freight cost change (peak vs pre‑pandemic): +200% to +300% on some lanes (2020-2022 peak)
  • Typical materials cost inflation observed: +3% to +12% YoY for specialty inputs (varies by item)
  • ROHM mitigation levers: supplier long‑term contracts, vertical integration, price adjustments

EV growth driving higher IC content in vehicles

Electrification of vehicles is structurally increasing semiconductor content per vehicle. Industry forecasts indicate average semiconductor content per EV rising from ~USD 500-600 in early 2020s to USD 1,000-1,500+ by late‑2020s for BEVs and PHEVs, driven by power ICs, battery-management ICs, sensors, LED drivers, and motor-control devices. ROHM's product portfolio (power modules, analog ICs, discrete semiconductors) aligns with this trend, offering potential volume and ASP upside as ICE-to-EV conversion accelerates.

Metric Estimated Value / Trend
Average semiconductor content per ICE vehicle (early 2020s) ~USD 200-500
Average semiconductor content per EV (projected late 2020s) ~USD 1,000-1,500+
Projected EV global share by 2030 (consensus) ~30%-40% of new vehicle sales

Global inflation pressuring manufacturing input costs

Broad-based inflation since 2021 has elevated energy, wages, and capital-equipment costs for semiconductor manufacturers. Manufacturing input cost pressure manifests in higher utility bills for fabs (electricity/gas), increased employee compensation, and more expensive CAPEX for tool purchases. Central-bank tightening cycles in major markets have raised borrowing costs, impacting financing for plant expansions and working-capital needs.

  • Global headline CPI recent range: ~2%-8% depending on region and year
  • Electricity/energy cost inflation for manufacturers: often +5%-25% year-over-year in peak periods
  • Interest-rate environment: higher real rates increase weighted average cost of capital for capex

Stable, healthy semiconductor demand indicators

Despite cyclical segments, underlying semiconductor demand remains robust driven by computing, automotive electrification, industrial automation, and IoT. Industry growth rates for the semiconductor market have tracked mid-single-digit to double-digit CAGR depending on the forecast horizon and segment. Inventory normalization after excesses in certain end markets has improved order visibility and manufacturing utilization for suppliers like ROHM.

Demand Indicator Data / Trend
Global semiconductor market growth (recent forecasts) ~5%-10% CAGR (varies by source and time horizon)
Automotive semiconductor growth Projected CAGR: ~8%-12% through 2026-2030
Fab utilization Returned to healthy levels after 2020-2022 disruptions; tight for specialty analog/power segments

ROHM Co., Ltd. (6963.T) - PESTLE Analysis: Social

The sociological dimension for ROHM centers on demographic change, shifting consumption preferences toward sustainability, urban infrastructure evolution, corporate social responsibility expectations, and demand for transparent lifecycle emissions data. These forces materially affect talent availability, product development priorities, market growth rates, and stakeholder relations.

Labor market tightness amid aging population

Japan's demographic shift compresses the available domestic workforce and raises labor costs. Key indicators:

  • Population aged 65+ in Japan: 29.1% (2023).
  • Working-age population (15-64) decline: down ~9% since 2010.
  • Unemployment rate: ~2.6% (2024); job-offers-to-applicants ratio: 1.20 (2024).
  • ROHM's domestic manufacturing headcount pressure: reported annual wage growth in electronics manufacturing sector ~2.5-3.5% (2023-2024).

Implications for ROHM:

  • Higher recruitment and retention costs; greater reliance on labor automation and semiconductor production process automation (investment in robotics and MES systems).
  • Need for diversified talent sourcing: international hiring, local training programs, partnerships with technical schools and universities.
  • Potential shift of some labor-intensive assembly to lower-cost regions while keeping R&D and high-value production in Japan.

Demand for energy-efficient and eco-friendly technologies

Consumer and industrial demand increasingly favors low-power, high-efficiency semiconductors for automotive, power management, and consumer electronics. Market metrics:

Metric Value Timeframe
Global power semiconductor market ~USD 36.5 billion 2024
Projected CAGR for power management ICs ~6.2% CAGR 2024-2030
Automotive electrification unit growth (EVs) ~20% YoY global vehicle EV sales growth 2023-2024
ROHM product focus SiC, GaN power devices, low-power analog ICs Ongoing R&D investment

Implications for ROHM:

  • Accelerated R&D allocation to SiC/GaN and high-efficiency power ICs to capture growing TAM estimated in multiple tens of billions USD.
  • Marketing and product certification emphasis for energy-efficient claims to meet OEM procurement requirements.

Urbanization driving smart infrastructure demand

Global urban population reached ~56% of world population in 2024, increasing demand for smart-grid, building automation, EV charging infrastructure, and IoT-enabled services-areas reliant on ROHM's sensors, power modules, and connectivity ICs.

Urbanization Metric Value Relevance to ROHM
Global urban population 56% of world population (2024) Higher installations of smart infrastructure
Smart city market size ~USD 820 billion Procurement opportunities for sensors and power electronics
EV charging station installations ~1.2 million global public chargers (2024) Demand for power modules, SiC inverters

Workplace diversity and CSR influencing stakeholder decisions

Investors, customers, and employees increasingly evaluate corporate behavior beyond financials. Relevant indicators and ROHM positioning:

  • ESG-focused funds assets under management: >USD 35 trillion globally (2024).
  • ROHM sustainability disclosures: published annual CSR report with targets for CO2 reduction across Scope 1-3.
  • Gender diversity in Japanese electronics: female representation in technical roles historically low (~15-20%); pressure to improve through hiring and development programs.

Implications for ROHM:

  • Enhanced CSR programs, diversity targets, and transparent governance practices necessary to attract institutional investors and talent.
  • Supplier diversity and human-rights due diligence increasingly integrated into procurement and risk assessments.

Public emphasis on lifecycle emissions transparency

End-users and B2B customers demand product carbon footprint disclosure. Market expectations and data:

Requirement Market/Regulatory Trend Impact on ROHM
Scope 3 reporting prevalence 70%+ of large OEMs request supplier GHG data (2024) ROHM must quantify upstream emissions
Carbon footprint labeling Increasing adoption in EU and Japan procurement policies (2023-2025) Need for LCA tools, ECAs, product-level data
Customer procurement sensitivity High: procurement decisions tied to emissions reductions targets Price premium or selection bias toward low-carbon components

Operational responses for ROHM include scaling lifecycle assessment capabilities, certifying low-carbon product variants, and integrating supplier decarbonization programs to retain OEM contracts and access sustainability-driven market segments.

ROHM Co., Ltd. (6963.T) - PESTLE Analysis: Technological

Wide bandgap adoption (SiC and GaN) is a strategic enabler for ROHM's power device portfolio, driving unit-cost reductions and system-level performance gains for electric vehicles (EVs). SiC adoption in traction inverters can improve inverter efficiency by 1-3 percentage points and increase EV range by ~5-10% versus silicon IGBTs; GaN in onboard chargers and DC-DC converters can reduce heat-sink size by 30-60% and cut system cost through higher switching frequencies. Global SiC power device revenue was ~USD 1.2B in 2024 (CAGR ~26% since 2019) and GaN power devices reached ~USD 0.45B (CAGR ~35%). ROHM's capital investments in wafer fabs and epitaxy for SiC and GaN target 20-40% YoY capacity growth to capture this demand.

AI-driven design, fabrication, and predictive maintenance are transforming ROHM's R&D and manufacturing stacks. Use of AI/ML in EDA and device optimization shortens design cycles by 20-40% and improves first-pass yield by 5-15%. In fabs, predictive maintenance models reduce unplanned downtime by 30-50%, translating into OEE (overall equipment effectiveness) improvements of ~5-10% and potential EBITDA margin uplift. ROHM's internal targets include deploying ML-based process control across 100% of critical process steps by 2027 and cutting wafer scrap rates by >10% via anomaly detection.

Miniaturization and high-density packaging trends place premium value on ROHM's advanced packages and analog integration. The market shift to SiP, fan-out, and TSV enables footprint reductions of 40-70% for multi-function modules. High-density packaging supports package-level integration of power, analog, and logic for mobile and automotive applications-reducing BOM and board area. Typical package pitch reductions move from 0.8mm to 0.5mm and below, while multi-die stacking increases thermal and electrical design complexity, driving demand for ROHM's thermal vias, embedded capacitors, and high-reliability substrates.

TrendTechnical ImpactQuantitative Metric
SiC adoptionHigher inverter efficiency, smaller cooling systemsRange +5-10%; SiC market ~USD 1.2B (2024), CAGR 26%
GaN in powerHigher Fsw, smaller magneticsCharger size -30-60%; GaN market ~USD 0.45B (2024), CAGR 35%
AI/ML in fabsPredictive maintenance, yield optimizationDowntime -30-50%; yield +5-15%
MiniaturizationSiP, TSV, fine-pitchPackage area -40-70%; pitch down to <0.5mm
Automotive sensing & SerDesHigh-bandwidth, robust interfacesPer-vehicle sensors 10-20+; SerDes 6-25 Gbps links
LiDAR & laser diodesHigh-power lasers, photonics integrationLiDAR market CAGR ~20-30% to 2030; laser diode revenue growth 15-25% p.a.

Automotive sensing and ADAS accelerate demand for ROHM's sensors, amplifiers, and SerDes transceivers. Modern ADAS vehicles deploy 10-20+ sensors (cameras, radar, ultrasonic, LiDAR) and bandwidth requirements are increasing: camera links moved from 1-2 Gbps to 6-12 Gbps and SerDes for domain controllers are scaling to 25-50 Gbps in high-end architectures. Functional safety (ISO 26262) and AEC-Q100 qualifications raise development and test costs by an estimated 10-20% per product line but justify premium ASPs. ROHM's investments in automotive-grade process controls and redundancy architectures target a 15-25% share increase in automotive analog components by 2028.

  • Key implications for ROHM: accelerate SiC/GaN capacity (target +20-40% YoY), prioritize AI/ML deployment across R&D and fab operations to improve yield and reduce downtime, and expand SiP and high-density packaging capabilities.
  • Product roadmap focus: automotive-qualified SerDes (6-50 Gbps), integrated sensor front-ends with embedded power management, and high-power laser diode modules for LiDAR (peak power 20-100W per emitter for solid-state LiDAR).
  • Revenue and margin drivers: premium pricing on automotive-grade parts (+10-30% ASP), system-level savings enabling broader adoption of wide bandgap devices, and cost reduction from predictive fab automation improving gross margins by 1-3 percentage points.

Rapid LiDAR and high-power laser diode growth present a high-margin opportunity; the global LiDAR module market was ~USD 1.5B in 2024 with projected CAGR 20-30% to 2030. ROHM can leverage compound semiconductor competency to supply driver ICs, photodiode receivers, and laser-diode subassemblies. Cost-per-channel reductions via integration and scale can move LiDAR from premium ADAS systems (~USD 1,000-4,000 per car) toward mass-market price points (~USD 200-800) over the next 5-7 years, expanding addressable market substantially.

ROHM Co., Ltd. (6963.T) - PESTLE Analysis: Legal

Stringent data privacy and cross-border transfer rules are increasing legal exposure for ROHM as it handles design data, customer specifications and IoT-related telemetry from semiconductors and modules. Key regimes include the EU GDPR (maximum fine up to €20 million or 4% of global annual turnover), Japan's Act on the Protection of Personal Information (APPI) with strengthened cross-border transfer safeguards introduced in 2022, China's Personal Information Protection Law (PIPL) with fines up to RMB 50 million (~USD 7-8M) and business suspension risks, and multiple sectoral privacy rules in the U.S. and APAC. Estimated incremental compliance investment for multinational electronics manufacturers can range from USD 1-10 million annually depending on scope; internal ROHM IT/legal workloads and vendor audits are rising accordingly.

Patent and IP landscape intensifying litigation and cross-licensing is a material legal factor. Semiconductor and power-device technologies are subject to dense patent thickets; global semiconductor patent litigation filings involving chip design and power ICs rose in the prior decade. ROHM's IP strategy must balance defensive patenting, cross-licensing and F/RAND negotiations for standards-related patents. Typical cross-license settlements in the industry can exceed USD 10-100 million for significant disputes; smaller portfolios commonly resolve for low millions. The need to maintain freedom-to-operate opinions, monitor ~thousands of competitor patents and budget for potential litigation drives legal spend and affects product roadmaps.

Labor reform enforcement and wage transparency requirements are altering employment compliance costs across ROHM's global operations. Japan's 2019 workstyle reforms (equal pay for equal work, limits on overtime) and enforcement intensification have increased payroll, overtime recordkeeping and contractor classification scrutiny. In the EU, pay-transparency directives and strengthened collective bargaining in several countries require additional HR disclosures. Estimated administrative and payroll system adaptation costs for medium-large manufacturing sites commonly run USD 0.5-3M per multinational employer in initial implementation, with continuing annual HR compliance costs of 1-3% of payroll.

Environmental and chemical substance regulations tightening directly affect ROHM's materials, manufacturing and product stewardship. Key frameworks: EU REACH (registration, SVHC restrictions), RoHS/CE directives (hazardous substance limits), Japan's Chemical Substances Control Law and California's Proposition 65. Non-compliance exposure includes product bans, recall costs and fines; REACH non-compliance penalties in some EU states can be up to several million euros. Lifecycle reporting and Scope 3 requirements (linked to EU corporate sustainability reporting and CSRD obligations) also necessitate enhanced supplier data collection-supply-chain testing and material-substitution projects typically cost USD 0.1-5M per major product family.

Compliance costs from global regulatory regimes are cumulative and measurable across legal, operational and capital budgets. Examples of cost categories and rough magnitudes:

Regulatory Area Typical Legal/Compliance Actions Estimated One-time Cost (USD) Estimated Annual Cost (USD) Business Impact
Data Privacy (GDPR, PIPL, APPI) DPAs, vendor audits, data-mapping, SCCs, DPIAs 200,000 - 3,000,000 100,000 - 2,000,000 Product deployment delays; contractual constraints
IP & Litigation Freedom-to-operate studies, patent filings, defense budgets 500,000 - 20,000,000 200,000 - 5,000,000 Licensing fees; potential injunctions; R&D redirection
Labor & Employment Payroll system upgrades, compliance training, audits 100,000 - 2,000,000 50,000 - 1,000,000 Increased wage costs; hiring/retention pressures
Environmental / Chemical (REACH, RoHS) Substance testing, registration, alternative materials 100,000 - 5,000,000 50,000 - 1,500,000 Product redesign; supply-chain restructuring
Global Regulatory Compliance Center-led compliance teams, external counsel, audits 300,000 - 10,000,000 200,000 - 4,000,000 Ongoing governance overhead; margin pressure

Practical legal mitigation measures and operational priorities include:

  • Centralized compliance governance covering APAC, EU and North America with regional legal leads and annual risk audits
  • Standardized data-processing agreements, adoption of SCCs or equivalent transfer mechanisms, and privacy-by-design in product development
  • Proactive patent landscaping, targeted filing in core markets, and negotiation-ready cross-license strategies with budgeted escrow for potential settlements
  • Investment in chemical-testing labs and supplier disclosure platforms to ensure REACH/RoHS adherence and expedite product declarations
  • HR system modernization to capture worktime data, transparent pay reporting and automated statutory filings across jurisdictions

Key metrics to track legally-driven risk and cost exposure: number of active patent disputes, annual legal spend as percentage of revenue, percentage of global suppliers with compliant chemical declarations, number of data breach incidents and average time-to-remediation, and percentage of payroll jurisdictions compliant with new labor transparency rules.

ROHM Co., Ltd. (6963.T) - PESTLE Analysis: Environmental

ROHM has institutionalized ambitious carbon reduction policies, positioning greenhouse gas (GHG) mitigation as a core operational KPI. The company publicly commits to achieving carbon neutrality by 2050 and has set interim reduction milestones designed to drive rapid near‑term decarbonization across production and offices. Internal carbon pricing and investment screening are integrated into capital allocation to prioritize low‑carbon projects.

  • Net‑zero commitment: target year 2050
  • Interim GHG reduction target: 2030 target applied to Scope 1 & 2 (company metric)
  • Internal carbon price: applied to CAPEX and technology selection to accelerate electrification and efficiency investments

A formal internal carbon pricing mechanism assigns an economic value to CO2e and influences decision thresholds for new fabs, equipment upgrades and renewable PPAs. The mechanism has increased the internal hurdle rate for high‑emission projects and funded energy efficiency retrofits in existing sites.

Renewable energy transition is governed by staged, near‑term interim targets to reduce reliance on grid fossil power. ROHM combines on‑site generation, direct power purchase agreements (PPAs) and renewable energy certificates (RECs) to meet short‑term needs while negotiating long‑term supply contracts to secure lower‑carbon electricity for manufacturing.

MetricBaselineInterim TargetLong‑term Target
Scope 1 & 2 GHG emissionsBaseline year (company)-40% to -50% by 2030 vs baselineNet‑zero by 2050
Renewable electricity shareCurrent ~20-30% (varies by site)~50% by 2030~100% by 2040-2050
Energy intensity (kWh/unit)Measured per fabAnnual improvement targets (single digit %)Continuous reduction via electrification & efficiency
Internal carbon priceN/A (prior)Operationalized for CAPEXEmbedded across group financial planning

Water conservation and waste reduction are prioritized in ROHM's fabrication processes, where ultra‑pure water and chemical consumption drive environmental footprint. The company implements closed‑loop water systems, advanced wastewater treatment and chemical recycling to reduce freshwater withdrawal and effluent loads. Continuous monitoring and target setting are applied at each wafer fab.

  • Water withdrawal reduction targets per fab with real‑time monitoring
  • Wastewater reuse: percentage reuse targets for process water streams
  • Hazardous waste minimization programs and substitution of high‑impact chemicals

Circular economy initiatives focus on recovery and reuse of precious metals and high‑value components from end‑of‑life products and manufacturing scraps. ROHM has invested in closed‑loop material flows, supplier take‑back schemes and partnerships with specialized recyclers to recover gold, silver, palladium and rare earths used in advanced packaging and components.

InitiativeScopeKey KPIStatus / Target
Precious metals recoveryManufacturing scrap & take‑back% recovery rateScaling programs to increase recovery >90% for select streams
Component take‑backEnd‑of‑life productsUnits returned / yearPilot programs in key markets with supplier partners
Supplier material circularityRaw material sourcing% recycled contentTargets to increase recycled content across BOM

Green packaging and lifecycle assessment (LCA) integration are embedded into product design and logistics. ROHM applies LCA to major product families to quantify cradle‑to‑grave impacts, feed environmental cost into design trade‑offs, and systematically reduce packaging weight, use recycled/biobased materials, and optimize transport to lower Scope 3 emissions.

  • Lifecycle assessment coverage: prioritized for high‑volume and high‑impact product lines
  • Packaging reductions: weight and volume reduction targets, switch to recyclable materials
  • Scope 3 engagement: supplier CO2 reporting requirements and collaboration on logistics efficiency

Key environmental performance indicators tracked across the group include annual CO2e emissions (Scope 1, 2 and expanding Scope 3 coverage), renewable electricity share (percentage of total electricity), water withdrawal (m3/year), wastewater reuse rate (%), hazardous waste generated (tons/year), and material recovery rates for precious metals (%). These KPIs are tied to executive remuneration and capital planning to ensure measurable progress.


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