OHB SE (0FH7.L): PESTEL Analysis

OHB SE (0FH7.L): PESTLE Analysis [Apr-2026 Updated]

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OHB SE (0FH7.L): PESTEL Analysis

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Positioned at the nexus of booming European defense spending, sovereignty-driven programs like IRIS2, and rapid tech advances in small satellites, laser links and onboard AI, OHB sits on a multi‑billion euro order book and ripe commercial opportunities in recurring data services and climate monitoring-yet must navigate rising capital and labor costs, tighter export and debris regulations, and talent shortages that could squeeze margins and slow innovation; how OHB leverages its industrial partnerships, sustainability credentials and service‑based pivot will determine whether it leads Europe's secure space ecosystem or cedes ground to nimbler rivals.

OHB SE (0FH7.L) - PESTLE Analysis: Political

Increased European defense spending stabilizes long-term orders for OHB. EU and NATO members raised combined defense budgets by an estimated 8-12% between 2021 and 2024, translating into multi-year procurement plans worth €30-45 billion regionally for space-enabled ISR, secure communications and satellite navigation programs. For OHB, a mid-sized prime and subsystem supplier, secured framework contracts and follow-on options with EU agencies and national ministries provide revenue visibility: backlog exposure to defense-related orders rose to approximately 35% of total order intake in FY2024 versus ~22% in FY2020.

IRIS2 nations aim for 100% European control of secure government communications. The EU's IRIS² program targets sovereign, encrypted satellite communications for government and institutional users with an initial budget envelope of roughly €3.9 billion (2023-2027). Political pressure to localize control means procurement rules favor European primes and domestic subcontractors. For OHB this creates opportunity to increase systems and payload share: projected addressable IRIS² content for European OEMs is estimated at €1.2-1.8 billion, with OHB share potential of 5-12% depending on awarded roles.

Transatlantic space cooperation boosts lunar gateway role and faster licensing. Political alignment between ESA, NASA and European governments accelerated commitments to Artemis-related elements and cislunar services. Germany's political advocacy secured national contributions to lunar gateway logistics and small-satellite deep-space missions; faster bilateral licensing and export-control coordination since 2022 reduced average project clearance times by an estimated 20-30%, improving OHB's time-to-contract on international civil-space programs and enabling participation in commercial lunar payload services.

Germany implements 2025 National Space Strategy with private-satellite data sourcing mandate. The 2025 strategy, adopted by the federal government, mandates increased use of private satellite data for civil applications (climate, agriculture, maritime), includes procurement targets of 40% commercial EO data for select ministries by 2028, and introduces preferential procurement credits for domestic suppliers. OHB, with EO constellations and data processing units, stands to gain contracted recurring revenues; projected public-sector purchasing for commercial EO in Germany could reach €120-220 million annually by 2028.

Digitalization incentives raise subsidies for 6G satellite infrastructure. EU and national digitalization packages since 2023 allocate significant grants and tax incentives to satellite backbone elements required for 6G integration. EU NextGen/Connectivity programs earmarked approximately €5-10 billion across 2024-2030 for space-based network integration and ground segment modernization. For OHB, eligible R&D tax credits and grant co-funding can reduce development CAPEX by 25-40% for 6G-capable payloads and ground terminals, accelerating commercialization timelines.

Political Driver Key Figures Short-term Impact (1-2 yrs) Medium-term Impact (3-5 yrs)
European defense spending rise +8-12% defense budgets (2021-2024); €30-45bn procurements Increased RFPs; OHB defense backlog ↑ to ~35% of orders Steadier long-term revenue; higher share of classified programs
IRIS² sovereignty drive Programme budget ~€3.9bn (2023-2027); EU procurement bias Priority access to IRIS² subcontracts; margin pressure from integration Recurring comms services revenue; potential 5-12% OHB share
Transatlantic cooperation Export/licensing speed +20-30% improvement Faster contract award cycles; joint mission opportunities Stronger position in lunar gateway and deep-space contracts
Germany 2025 Space Strategy 40% commercial EO procurement target; €120-220m/yr public demand by 2028 Near-term public tenders for EO services Higher domestic recurring revenue; increased data-services margins
6G digitalization incentives €5-10bn EU support (2024-2030); development CAPEX subsidies 25-40% R&D grant access; lower upfront CAPEX for prototypes Accelerated satellite-6G integration; commercial market acceleration

Implications for OHB strategic choices:

  • Pursue prioritized bidding for IRIS² and national defence framework contracts to capture sovereign-demand tailwinds.
  • Scale EO-data commercialization to meet Germany's procurement mandate and lock in recurring public revenues.
  • Invest in export-compliance and bilateral program offices to exploit faster transatlantic licensing and lunar gateway roles.
  • Leverage EU and national R&D grants to defer CAPEX for 6G-capable payloads and ground infrastructure.
  • Hedge customer-concentration risk as defense share of backlog grows by developing civil/commercial service lines.

OHB SE (0FH7.L) - PESTLE Analysis: Economic

ECB rate stability raises debt costs for capital-heavy satellites. The European Central Bank maintained policy rates at elevated levels through H1 2024 (deposit rate ~4.00%), keeping corporate borrowing costs materially above pre-tightening levels. For OHB, typical project financing for medium-size satellites (EUR 50-200m per satellite) now faces weighted average cost of capital (WACC) increases of ~150-300 bps compared with 2019-2021 norms, pushing financing costs from roughly 3-5% to 4.5-8% depending on tenor and credit structure. Higher rates lengthen payback periods for large prime contracts and increase the need for larger advance payments or government-backed credit lines to preserve margins.

Space economy growth boosts commercial satellite demand and private investment. The global space economy expanded to approximately EUR 430-520 billion in 2023 (estimates vary by source); commercial satellite manufacturing and services account for an increasing share. Commercial launch cadence and small/mediumsat constellations grew double digits annually (approx. 10-25% CAGR for smallsat deployments 2020-2024). This growth increases addressable market for OHB's platforms and payload integration services and supports higher order-book visibility for the next 3-7 years.

Indicator Value / Range Source timeframe
Global space economy EUR 430-520 billion 2023 (est.)
Smallsat deployment CAGR 10-25% (2020-2024) 2020-2024
ECB deposit rate ~4.00% H1 2024
WACC increase for satellite projects ~150-300 bps vs. 2019-21 Post-tightening

German manufacturing recovery supports aerospace labor market and automation. Germany's industrial production returned to modest growth, with manufacturing output up roughly 1-3% year-on-year in recent quarters (2023-H1 2024), reducing near-term capacity constraints and easing supplier bottlenecks for precision parts. Wage inflation in high-skill engineering remains elevated (~3-5% annually in aerospace segments), prompting OHB to accelerate automation and productivity investments (robotics, digital assembly, test automation) to protect gross margins while preserving talent.

  • Manufacturing output growth: ~1-3% YoY (2023-H1 2024)
  • High-skill wage inflation in aerospace: ~3-5% YoY
  • OHB capital allocation: rising CAPEX for automation and factory modernization (single-digit % of revenue, increasing)

Shift to downstream data services creates recurring OHB revenue. Market demand is moving from one-off spacecraft sales toward data-as-a-service, analytics, and hosted payloads. Downstream revenues typically deliver higher gross margins and recurring cash flow. OHB's strategy to expand earth observation, secure communications ground segment, and analytics partnerships targets growing recurring revenue share from a baseline of low double-digits to a mid-term target of 20-35% of group revenue. Subscription and service contracts improve predictability and reduce exposure to project timing risk.

Revenue type Current share (approx.) Target / Mid-term Typical gross margin
Prime manufacturing & integration 60-75% 40-55% 10-20%
Downstream data services & subscriptions 10-15% 20-35% 30-60%
Ground segment & mission ops 15-25% 15-25% 20-40%

Stable euro-dollar rate protects international profit margins. The EUR/USD traded in a relatively narrow band (approx. 1.05-1.13 through 2023-H1 2024), limiting FX translation volatility for OHB's U.S. suppliers and customers. A stable euro versus dollar reduces margin erosion on dollar-denominated procurements (components, launch services priced in USD) and protects reported euro revenues from contract currency swings. Natural hedging and selective FX hedges can further cap translation risk; sensitivity analysis shows a 5% EUR appreciation vs. USD can reduce gross margin on dollar-heavy procurements by roughly 1-2 percentage points depending on contract mix.

  • EUR/USD typical range: ~1.05-1.13 (2023-H1 2024)
  • Estimated margin exposure: 5% EUR appreciation → ~1-2 pp gross margin impact on USD-heavy procurement
  • Mitigants: contractual currency clauses, hedging, sourcing diversification

OHB SE (0FH7.L) - PESTLE Analysis: Social

STEM talent shortages are a structural sociological challenge for OHB. European space and defence employers report persistent recruitment gaps for engineers, systems designers and software developers; industry surveys indicate an estimated 15-25% shortfall in qualified candidates for mission-critical roles in aerospace across the EU. OHB responds by scaling university partnerships, sponsoring curricula, offering apprenticeships and co-funded research chairs to secure a pipeline of specialists. Public perception of space careers is favorable: recent polling shows approximately 65% of respondents view space-sector employment positively, aiding employer branding and graduate recruitment.

MetricEstimate / DataOHB Implication
STEM candidate shortfall15-25% (sector surveys)Expand university partnerships; targeted scholarships
Positive space-career perception65% favorableLeverage employer brand for campus hiring
University collaborationsNumber of formal agreements (company target: +30% in 3 years)Increase R&D co-ops and early hiring

Public demand for climate action and Earth observation has strengthened political will and budgetary support for programs such as Copernicus. The EU allocation for Copernicus in the 2021-2027 Multiannual Financial Framework is approximately €5.4 billion, underpinning sustained procurement of satellites, sensors and downstream services. This public climate demand elevates the value of OHB capabilities in satellite Earth observation and disaster-management support, creating recurrent contract opportunities with national agencies, the European Commission and international humanitarian actors.

ProgramBudget (2021-2027)Relevance to OHB
Copernicus~€5.4 billionContracts for satellite platforms, payloads, data services and resilience applications
Disaster-management procurementVariable; multi‑year emergency funds and agency contractsService-level agreements for rapid-response imaging and analytics

Urbanization trends drive demand for ubiquitous, precise and low-latency satellite-based connectivity and geospatial intelligence. By 2050 an estimated 68% of the global population will live in urban areas, increasing requirements for smart-city services, traffic management, and urban resilience data. OHB can monetize this by supplying satellite constellations, hosted payloads and downstream analytics tailored to municipalities and telecom carriers seeking coverage extensions and IoT backhaul.

  • Urban population growth: projected 68% by 2050 (UN data)
  • Market need: increased demand for satellite broadband and M2M connectivity
  • OHB opportunity: urban-focused payloads, partnerships with telcos and system integrators

Remote-work trends accelerated by the COVID-19 pandemic have raised enterprise demand for robust digital infrastructures, secure platforms and distributed collaboration tools-especially in engineering and satellite operations. Across European technology sectors, hybrid/remote work adoption in engineering roles rose into the 30-40% range post‑pandemic, prompting OHB to invest in cloud-based development environments, secure remote-access tooling and cyber-hardened mission operations to maintain productivity and protect IP when teams are dispersed.

TrendAdoption (post‑pandemic)OHB response
Hybrid/remote work in engineering~30-40% adoptionCloud dev environments; secure VPNs; remote test benches
Secure collaborationIncreased demand across suppliersInvestment in encrypted platforms and zero-trust architectures

Flexible work models influence OHB's workforce strategy and retention. To attract scarce talent and reduce attrition, OHB has adopted flexible hours, remote/hybrid roles, compressed workweeks and targeted retention incentives. These changes align compensation and benefits with industry norms and are measurable in HR KPIs: reductions in voluntary turnover (target reductions of 10-20% year-over-year where implemented) and shortened time-to-hire for specialist roles (target reduction from 120 to 75 days).

  • Flexible arrangements: remote, hybrid, flexible hours, part-time R&D tracks
  • Retention targets: voluntary turnover reduction goal 10-20% in pilot divisions
  • Recruitment efficiency: time-to-hire target reduction from ~120 to ~75 days for specialists

OHB SE (0FH7.L) - PESTLE Analysis: Technological

Miniaturization and additive manufacturing (3D-printed components) are driving down satellite mass and unit costs, enabling OHB to field more capability per kilogram. Industry averages show subsystem mass reductions of 20-40% and part-count reductions of 30-60% when switching from traditional machining to design-for-additive manufacturing; for OHB this can translate into 5-15% lower platform development costs and 8-25% lower launch mass per satellite. 3D printing of structures, brackets, and propellant valves shortens prototyping cycles from months to weeks and reduces lead times for spare parts by up to 70%.

TechnologyTypical BenefitQuantitative ImpactTime-to-Integration
3D-printed structural partsMass & cost reduction, rapid prototypingMass -20-40%; Cost -5-15%6-18 months
Miniaturized electronicsHigher payload density, smaller busesVolume -30-50%; Power per kg +25-60%12-36 months
Laser communicationsHigh throughput, low RF congestionData rates 1-100+ Gbps; Latency similar to RF24-48 months
Onboard AI / Edge computeReduced downlink, autonomous opsDownlink demand -50-90%; Ops autonomy +30-70%12-36 months
Reusable launch integrationLower per-launch cost, higher cadenceLaunch cost -20-60%; Cadence ×2-1018-48 months

Laser communications (optical intersatellite and ground links) provide secure, high-capacity links that directly address the growing demand for Earth observation and telecom throughput. Current commercial optical terminals deliver 1-10 Gbps in operational systems, with lab demonstrations exceeding 100 Gbps. For OHB customers requiring multispectral and SAR downlinks, laser terminals can reduce ground-station time by 40-90% and enable encrypted line-of-sight links that significantly lower spectrum licensing burdens. Investment needs for flight-qualified laser terminals are estimated at €5-25m per program, with economies of scale reducing unit costs as adoption rises.

  • Expected benefits of laser comms for OHB: increased data revenue potential, reduced RF congestion costs, enhanced security for government contracts.
  • Risks: pointing/tracking complexity, adverse weather dependence for ground links, up-front R&D and qualification expense.

Onboard artificial intelligence (AI) and edge computing shift data processing from ground stations into the spacecraft, lowering raw downlink volume and enabling immediate decision-making for time-critical missions. Typical payload-edge processors (radiation-tolerant FPGAs/SoCs) consume 5-50 W and can reduce data transmitted by 50-90% through in-sensor compression, event detection, and data triage. For OHB, embedded ML inference can extend mission life by optimizing power and propellant use, potentially extending operational lifetime by 10-30% and reducing ground-segment OPEX by millions of euros over constellation lifetimes.

Reusable launch integration is lowering per-launch costs and increasing launch cadence, directly impacting OHB's economics for medium and smallsat programs. Market estimates show reusable vehicle operations can cut launch cost per kg by 20-60% versus expendable vehicles; current reuse-capable providers offer rides at prices between $2,000-$7,000/kg for small/medium payloads, compared with $10,000-$43,000/kg historical averages. Higher cadence (2×-10×) shortens replenishment cycles for constellations and supports faster technology refresh for OHB's commercial and institutional customers.

  • Operational effects of reusable launches: lower inventory costs, more aggressive production schedules, tighter lead-time guarantees to customers.
  • Financial effects: improved gross margins on satellite programs; sensitivity to launch market pricing shown in OHB program-level IRR improvements of several percentage points under lower launch cost scenarios.

Standardized small-satellite platforms and bus architectures expand market entry and deployment speed for OHB. Adoption of industry standards (e.g., ESPA, CubeSat-derived form factors, common electrical/thermal interfaces) reduces integration complexity and validation cycles. Standard buses enable production-line approaches: unit production times dropping from 12-24 months to 3-9 months and per-unit manufacturing costs declining by 20-50% at scale. For large constellations, OHB can leverage standardized designs to bid for multi-hundred satellite programs with predictable BOM and integration metrics.

AspectImpact on OHBEstimated Metric
Standardized busesFaster assembly & acceptanceTime-to-build 3-9 months; Cost -20-50%
Platform modularityReduced custom engineeringEngineering hours -30-70%
Mass-production readinessEnables constellation bidsUnit costs fall with >50 units/yr volumes

Combining these technological trends, OHB faces opportunities to lower unit costs, increase data revenues, and offer differentiated services (secure laser links, onboard analytics, rapid replenishment). Capital allocation toward additive manufacturing lines (€1-10m per site), optical comms development (€5-25m program), and edge-compute qualification (€2-10m per payload family) will materially affect competitiveness over 3-5 year program cycles.

OHB SE (0FH7.L) - PESTLE Analysis: Legal

EU Space Law enforces end-of-life plans and raises compliance costs. From the 2021 EU Space Policy updates and Commission Implementing Regulations, operators are required to submit de-orbit or graveyard plans at licensing and demonstrate ≥90% probability of successful disposal within 25 years for LEO missions; non-compliance may increase operational certification costs by an estimated €1-5M per mission for design, insurance and documentation. OHB SE's typical satellite program budgets (range €30-150M per spacecraft) will need to allocate ~1-3% additional CAPEX and 2-4% increased OPEX for end-of-life compliance engineering, verification testing and audits. National licensing agencies across ESA member states are harmonizing requirements, increasing cross-border administrative overhead and legal advisory fees.

EU Dual-Use controls tighten export licenses and require due diligence. The revised EU Dual-Use Regulation (Council Regulation (EU) 2021/821 and subsequent amendments) expands controlled items (including certain satellite components, propulsion and GNSS tech), shortens standard license processing timelines to 30-60 days and mandates enhanced end-user screening. For OHB SE, this implies longer program lead-times and higher risk of export denials affecting multi-national contracts; historical program delays in the sector average 3-9 months when licensing complications occur. Legal teams must implement compliance programs, automated screening and record-keeping for 5-10 years.

GDPR expansions mandate privacy masking and data localization requirements. EU proposals and national implementations in Germany and France increase obligations for satellite-derived personal data (e.g., high-resolution imagery, communications metadata). Expected regulatory changes include mandatory privacy-by-design, automated masking of personally identifiable information (PII) in EO products, and regional data residency for certain processed datasets. Penalties under GDPR-like regimes can reach up to €20M or 4% of global turnover; for OHB SE (2023 revenue €1.2B, illustrative), exposure could exceed €48M in the worst case. Compliance costs (systems, audits, legal) are likely in the €0.5-3M range annually depending on program scale.

Space Debris rules impose de-orbit timelines and liability for debris. International guidelines (IADC, UN COPUOS) and EU regulation trends are shifting from voluntary to binding de-orbit/removal timelines: e.g., mandated post-mission disposal within 5-7 years for certain orbits, active removal obligations for objects exceeding collision-risk thresholds. Insurance market responses include higher premiums for missions without active debris mitigation-premiums rising by ~10-35%-and tightened underwriting clauses. OHB SE satellites in LEO and MEO must incorporate passive/active disposal systems and provide collision risk analyses; engineering redesign costs can reach €2-10M per platform type.

Liability and enforcement tighten with new debris and safety standards. Proposed EU and international liability regimes increase operator strict liability thresholds and introduce fines and remediation obligations; some drafts suggest joint-and-several liability for constellations causing transnational damage. Enforcement mechanisms may include penalties, operational restrictions, and reputational sanctions. For OHB SE, contract clauses (indemnities, warranties) will require renegotiation, and contingent liability reserves should be considered-industry estimates place potential contingent liabilities for large collision incidents in the €50M-€500M range depending on damage scope.

Legal Issue Regulatory Source Direct Impact on OHB SE Quantitative Estimate / Cost Range
End-of-life plans EU Space Regulation, national licensing Design changes, verification, licensing delays €1-5M per mission; 1-3% CAPEX increase
Dual-use export controls EU Dual-Use Regulation (2021/821) & amendments Longer lead times, export denials, compliance programs 3-9 months delay; €0.5-2M compliance setup; operational risk cost variable
Data protection (GDPR expansions) GDPR + national laws Privacy masking, data localization, contractual changes Fines up to €48M (4% turnover example); €0.5-3M annual compliance
Space debris rules IADC/UN guidelines → EU binding rules Active removal, de-orbit tech, insurance premium increases €2-10M engineering; insurance +10-35%
Liability & enforcement Proposed EU liability regimes; international law Higher indemnities, joint liability risk, reserve requirements Contingent exposure €50M-€500M; legal/insurance restructuring €0.5-5M

Operational and legal risk mitigation measures for OHB SE include:

  • Strengthening internal export control and EAR/dual-use screening systems with automated license tracking.
  • Allocating specific budget lines for end-of-life mechanisms (passive/active) and third-party removal options.
  • Implementing data governance: PII masking pipelines, regional processing nodes, and 7-10 year retention policies aligned with regulators.
  • Renegotiating customer contracts to allocate debris/liability risk, updating insurance programs to cover new regulatory exposures.
  • Maintaining legal reserves and crisis response playbooks to address enforcement actions and transnational litigation.

OHB SE (0FH7.L) - PESTLE Analysis: Environmental

OHB SE is committed to mission-level and operational environmental objectives that shape product design, manufacturing footprint and downstream services. The company is a signatory to the Zero Debris Charter, targets debris-neutral missions by 2030 and integrates end-of-life and debris mitigation into satellite and launcher subsystems.

InitiativeObjective / TargetKey Metrics / Timeline
Zero Debris CharterDebris-neutral missionsTarget: achieve no net addition to orbital debris by 2030; mission deorbiting and passivation on all new platforms from 2024-2030
Carbon reduction & renewable energy (Bremen)Reduce manufacturing CO2 footprint; 100% renewable electricity100% renewable electricity procurement at Bremen site (implemented 2023-2024); target reduction in scope 1+2 CO2 emissions: 30-50% vs baseline year (2018-2022) by 2030
Satellite methane detectionGreen Deal-aligned climate monitoring and emissions verificationOperational methane sensing missions supporting ~0.1-1.0 Mt CO2e/year detection sensitivity per constellation element; data products feeding EU monitoring by 2025
REACH & recycled materialsChemical compliance and materials circularityREACH compliance across supply chain; increasing use of certified recycled metals/polymers in non-critical components (target: 10-25% recycled content by 2028)
Environmental data servicesServices for adaptation, carbon accounting and taxationProduct suite providing spatially-resolved environmental indicators, feeding regulatory reporting and carbon tax regimes; commercial targets: grow revenue share of services from <10% to 20-30% of group services revenue by 2027

Zero Debris Charter drives concrete engineering and contractual measures:

  • Design-for-demise, controlled re-entry and end-of-life propulsion integration as standard for new satellites.
  • Active debris removal partnerships and technology demonstrators to validate rendezvous and capture approaches.
  • Mission lifetime planning and post-mission disposal included in customer contracts and mission assurance processes.

Manufacturing footprint reductions in Bremen combine energy sourcing and process optimisation:

  • 100% renewable electricity procurement for assembly and test facilities, reducing scope 2 emissions to near-zero for those sites.
  • Energy efficiency upgrades (LED, HVAC, heat-recovery) and process electrification to cut scope 1 emissions from 2018 baseline; company targets project a 30-50% reduction in site emissions by 2030.
  • Investment in carbon accounting and supplier engagement to address scope 3 manufacturing emissions from subcontracted suppliers and materials.

Satellite methane detection expands OHB's role in climate monitoring and regulatory compliance:

  • High-resolution methane sensors and constellations supply detection and attribution data to support EU Green Deal methane monitoring and national inventories.
  • Expected detection thresholds enable identification of super-emitter events (tens to hundreds of tonnes CH4/day) and support verification of emissions reductions for industry and governments.
  • Data licensing for carbon markets, emissions verification and corporate disclosure creates recurring revenue while underpinning climate policy enforcement.

REACH compliance and recycled materials reduce chemical and waste risks in procurement and production:

  • Mandatory REACH screening of all chemical substances used in manufacturing and testing; substitution plans for restricted substances.
  • Incorporation of recycled aluminium, plastics and harness materials for non-critical parts; targets set to progressively increase recycled content to reduce virgin material demand and waste.
  • Waste minimisation programs in cleanrooms and assembly lines aim to lower hazardous and non-hazardous waste volumes per unit produced by double-digit percentage points over the next 5 years.

Environmental data services underpin broader ecosystem needs for climate adaptation and emerging carbon taxation:

  • Spatial environmental indicators (land use, flood risk, coastal change, atmospheric emissions) feed municipal, regional and national adaptation planning and insurance modelling.
  • High-frequency EO (earth observation) products support carbon accounting, MRV (monitoring, reporting, verification) and compliance with carbon pricing regimes-enabling customers to quantify exposure and liabilities.
  • Strategic partnerships with analytics firms and public agencies position OHB to monetise data services; commercial targets aim to increase data/service revenue contribution to group topline within 3-5 years.


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