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Blockchain in Supply Chains – A Systematic Review of Impacts, Benefits, and ChallengesBlockchain in Supply Chains – A Systematic Review of Impacts, Benefits, and Challenges">

Blockchain in Supply Chains – A Systematic Review of Impacts, Benefits, and Challenges

Alexandra Blake
av 
Alexandra Blake
10 minutes read
Trender inom logistik
Oktober 24, 2025

In practice, interoperability across cross‑functional hubs reduces manual reconciliation; third-party networks show measurable velocity gains. They yield traceable provenance, faster recalls, risk signals that inform decision processes. Yet obstacles persist: regulatory gaps, data privacy concerns, legacy IT landscapes require alignment with governance grounds; a call for standardised data models, shared verifications plus reusable APIs grows stronger. gunasekaran notes friction from fragmented standards, which cause delays, cost escalation. This capacity helps detect anomalies earlier.

To maximize success, a phased adoption with a clear governance skeleton is right. Establish a cross-organizational body focusing on data obligations, approvals workflows, role-based access. A third-party risk assessment proves prudent before scaling; continuous detection of anomalies should trigger automatic alerts. Workforce development becomes a prerequisite: hands-on training, role rotations, dedicated data stewards sworn to protect sensitive details; which reduces leakage risks, improves compliance, raises overall readiness.

From a macro view, arguably the approach promises measurable gains in efficiency, resilience, transparency across value ecosystems; gunasekaran notes this aligns with a shifting economy toward data-driven logistics. The call centers on interoperable data contracts, verifiable credentials, plus shared testbeds to validate concepts quickly; mid-scale players should be prioritized, which supports urgent detection of fraud, better demand planning across the economy.

Practical implications for practitioners and decision-makers in supply chains

Recommendation: Provided governance blueprint should be piloted in two sectors with critical flow lines for emergency response, such as hurricane logistics; government authorities must lead the shared investments; start with a methodology that harmonizes eligibility criteria across suppliers, shippers, buyers; making governance more predictable; initiatives exist to guide rollout.

Action plan includes mapping existing lines of data capture; select a subset of suppliers to test; provide a cham-driven governance body with monthly reviews.

Use this approach to quantify shifting risk variables such as demand volatility, weather disruption including hurricane, regulatory changes; medicaid eligibility constraints in public programs; pfoa exposure risks in supplier networks.

Strategic decisions by decision-makers prioritize investments in digital governance platforms, select pilot partners based on capability ratings, ensure data privacy controls; each figure captures results to inform subsequent lines.

Describe success criteria: measurable improvements in traceability, quicker eligibility checks, lower carrying costs, closer collaboration across partners; provide a single shared dashboard to track variables and results.

Practical recommendation: adopt modular data contracts; leverage cham collaborations, medicaid-friendly programs to test eligibility models; use a figure to illustrate the investment path; pursue innovative prototypes.

Conclusion: cross-sector harmonization enables scalable results; shifting policies drive faster adoption; leadership commitment to shared initiatives yields tangible improvements.

consequently, this framework supports making data-driven decisions across sectors; visibility exists in real-time; guiding investments accordingly.

This approach continues to scale as more partners join.

Real-time traceability: enabling end-to-end provenance across networks

Adopt a real-time provenance layer linking partner networks via a shared data schema; enforce immutable logging, event-driven updates, clearinghouse coordination, cross-network visibility.

Define a minimal, fundamental data model covering production, transport, storage, quality checks, consumer-facing traceability; align with interoperable technologies to support global operations, driving improvement.

Target latency for updates: deviations surfaced within minutes; emit structured events to a distributed clearinghouse allowing participants to subscribe, filter, react.

Use-cases include nutrition-related products, clinical-trial data, medical devices; the system captures produced lot numbers, origin geolocation, supplier certifications.

Governance reduces negotiations friction via standardized data requests; enforce role-based access, tamper-proof logs, privacy controls.

issues observed include data gaps, mislabeling, delays during reconciliation; add automated exception handling, structured audit trails, robust verification routines.

dont rely on a single node; instead cultivate reuse across partners to lift ecosystem robustness, driving most improvements, reduction in waste.

Case references include hampshire datasets; beck insights; these illustrate robust provenance across category partners.

Technologies span distributed ledgers, cryptographic proofs, trusted hardware, data tokenization; robust interfaces, cross-domain vocabularies, giving decision-makers clearer insight.

Outcomes include improvement in trace accuracy, quicker recalls, reduced discrepancies, lower costs, stronger consumer trust.

Interoperability challenges: standards, data schemas, and cross-network compatibility

Interoperability challenges: standards, data schemas, and cross-network compatibility

Recommendation: Implement a modular interoperability stack anchored in open standards; conduct an assessment of existing schemas, publish a manifest of required fields, deploy bridging adapters that translate payloads across networks; establish a public progress webpage to track milestones.

Steps to accelerate progress include mapping data lines across systems; identifying whether schemas align; create a shared dictionary; locating data from origin, lifespan, accuracy, sources; pilots deploying bridges to demonstrate cross-network flow; outcomes feed executive decisions.

Key formats include JSON Schema for payload structure; RDF/OWL for semantics; GS1 identifiers for parties, vehicles, locations; adopt a single manifest listing required fields, data types, validation rules; establish mapping tables to translate payloads across networks; poet precision in naming conventions reduces ambiguity.

Governance should define roles for publishers, stewards, evaluators; publish regular analytic reports to measure accuracy, outcomes, reliability; avoid vendor lock in by sourcing multiple commercial providers; embed a best-in-class risk assessment with a living bias countermeasures plan.

Metrics include data accuracy at the origin; lifespan of deployed bridges; published outcomes; NASA-like reliability benchmarks; teams experiencing latency will be flagged; track lines-of-sight progress via a dedicated analytic webpage; use a pilot showing real-world value for 12 months; measure how many sources are integrated; ensure reproducibility.

Implementation should show tangible outcomes within 3 quarters; teams located at the origin of data streams begin identifying gaps in lines, fields; if schemas conflict, publish a revised manifest; fleets haven’t experienced disruption; a fair, staged rollout keeps vehicles moving; steps align with aggressive milestones supposed to be met; published analytic dashboards track progress; a bess assessment demonstrates that the approach is practical for commercial ecosystems; NASA-grade quality can be approached via rigorous testing, independent audits; a transparent webpage gathers sources, shows outcomes, explains the lifespan of deployed adapters; show metrics to support executive decisions.

Smart contracts and automated workflows: from promises to enforceable actions

Recommendation: initiate a phased pilot positioned to prove enforceability in high‑risk domains; especially where data fidelity is critical, configure a contract layer triggering shipments, payments, or access rights upon verified data, upon machine‑readable rules.

Architecture blueprint: adopt a modular stack with on‑chain enforcement; off‑chain verifications via trusted oracles; automated workflows hosted in installations across sites; operators manage throughput, monitors, exceptions with auditable logs; analytics intelligence supports anomaly detection.

Data governance: define business terms clearly; deploy cryptographic proofs; articulate measured efficacy across workflows; minimize opaque stages; provide a scenario table showing a match; observed outcomes; differences captured; data gaps unable to be filled identified.

Risk management: appoint host organizations; set access permissions for operators; limit role escalation; schedule extended monitoring windows; define lifespan of configurations; build incentives for compliance; craft response playbooks for patterns such as late deliveries or mismatched certificates.

Case note: in americas, chemotherapy materials including blood products; controlled substances require precise traceability; these installations show notable reductions in cycle durations; auditors asked for transparent traceability proofs; opaque data views minimized by design; the situation positions hosts against a spectrum range of risk.

Practical steps: start with a small extended scope across areas such as order release, quality checks, payment execution; measure lifespan of deployed flows; iterate based upon feedback from users; include a feedback loop; also incorporate user training.

Conclusions: the spectrum of use cases suggests incremental gains; by aligning incentives; matching terms; ensuring robust host governance; expected outcomes include reductions in manual effort; improved data integrity; extended lifespan of automated workflows; past lessons havent revealed universal feasibility; practical paths exist; a pragmatic assessment of feasibility in diverse areas.

Aspekt Guidance KPIs
Data integrity Use verifiable data feeds; cryptographic proofs; oracle diversification Data availability rate; mismatch rate
Governance Define host roles; publish terms; separate duties Audit findings; incident response time
Lifecycle Track lifespan of installations; decommission criteria Uptime; replacement latency
Hälsovårdsfall Spårbarhet för ämnen, blodprodukter; regelefterlevnad; dessa installationer uppvisar märkbara minskningar av cykeltider; ogenomskinliga datavyer minimerade genom design; situationen positionerar värdar mot ett spektrum av risk. Anmärkningsvärda minskningar; överensstämmande status

Integritet, säkerhet och styrning: att balansera öppenhet med kontroll i delade liggare

Integritet, säkerhet och styrning: att balansera öppenhet med kontroll i delade liggare

Gör integritet till ett designkriterium från grunden; implementera en modell för nivåbaserad styrning med tydlig tilldelning av behörigheter, dataminimering, granskningsbara spår; balansera öppenhet med kontroll. Forma ett partnerskap mellan flera sektorer med ovan nämnda styrningsavsnitt för säkerhet, integritet, program, informationsstyrning. NSTC-anpassade policyer formaliserade, med tydliga gränser för dataexponering; åtkomsträttigheter ses över var 90:e dag.

Integritetskontroller: kryptering i vila; kryptering under överföring; datamaskering; selektivt avslöjande med hjälp av nollkunskapsbevis där det är möjligt. Dataminimeringsregler; rollbaserad åtkomstkontroll; nyckelhantering via hårdvarusäkerhetsmoduler. För information som överförs via blockkedjebaserade nätverk anpassas applikationer i olika scenarier till lagring utanför kedjan på säker mark; strukturerade återställningsprocedurer förberedda i förväg för intrångsscenarier. Liknande tekniker i distribuerade liggare kräver enhetliga integritetsgrunder.

Säkerhetsstyrning: kontinuerliga riskbedömningar; anomalidetektering; incidenthanteringsplaner; händelseloggar arkiverades; intrångssimuleringar; efterlevnad av ovannämnda fördrag; likvärdig tillgång över sektioner; ramverk som stöds av sektorsövergripande fördrag; riktmärken minskar risken avsevärt.

Kapacitetsuppbyggnad: program för personal inom olika sektorer; utbyten mellan flera sektorer; strukturerade bordsövningar; återkopplingsslingor med partner; rättvis fördelning av deltagande; nstc-anpassat utbildningsmaterial publiceras i de ovannämnda sektionerna. Stresstest för integritetskontroller inkluderar svarstid; antal dataexponeringar; återhämtningsberedskap. Budgetstyrning spårar utgifter för piloter; riktmärken för prestationsförmåga styr expansionen.

ROI, kostnadsmodeller och stegvisa driftsättningsstrategier för piloter att skala

Rekommendation: starta en 6-månaders testperiod i en enda nod med fokus på en produktfamilj; mät ROI genom besparingar i tid uttryckt i kronor; spåra minskningen av förfalskningar; övervaka förbättringen av leveranser i tid; säkra ledningens stöd via en tvärfunktionell ledare från inköp, drift, IT; upprätthåll ett lean business case som uppdateras varje vecka. Detta gör modellen motståndskraftig under press.

Det finns lite utrymme för onödiga åtgärder; situationen kräver tydliga mätetal; alla gynnas av snabba vinster; vågor av adoption stiger när resultat blir observerbara; begränsningar finns i datakvaliteten; tryck från kostnadsnedskärningar; tiden till värde minskar; Ozonöverväganden driver på grönare vägar; inträde på nya marknadssegment är fortsatt känsligt; impopulära val kan dyka upp, vilket kräver disciplinerad styrning; MCLS-arkitektur stöder utökad driftsättning på flera platser; även om marginalerna är fortsatt snäva, är optimering fortsatt kritisk. Vems styrning säkerställer samordning mellan teamen; upphandling, drift, IT.

  • ROI-riktmärken: återbetalningstid typiskt inom 12–18 månader; direkta besparingar per nod 50k–200k årligen; förfalskningar minskade med 100k–350k; totalt värde 150k–550k; anmärkningsvärda ROI-händelser hos mellanstora kunder; vågor av adoption accelererar; tid till fullt värde förkortas med stegvis utrullning.
  • Kostnadsmodeller: CapEx för sensorer; enheter; gatewayhårdvara; OpEx för molnhosting; datalagring; löpande underhåll; dataintegrationskostnader; personaltid för styrning; utbildning; säkerhet; mcls-arkitektur stöder utökad driftsättning på flera platser.

Vars styrning säkerställer samordning mellan team, upphandling, drift och IT?.

  1. Fas 1: Pilot i en enda cell; omfattning: en produktfamilj; varaktighet: 8–12 veckor; krav: ren data; stabil styrning; ledare: operativ chef; resultat: märkbara minskningar av ledtider; förbättrad verifiering av förfalskningar; noterbar ökning av leverans i tid; begränsad introduktion av nya leverantörstyper för att minska risk; pilotprojekt för ozonvänliga förpackningar.
  2. Fas 2: Utökad pilot; omfattningen utökas till två till tre anläggningar; produkterna utökas; varaktighet: 4–6 månader; krav: dataöverensstämmelse mellan anläggningar; åtkomstkontroller; ansvarig: logistikchef; resultat: mätbara effektivitetsvinster; förbättrad spårbarhet; minskad kollisionsrisk tack vare synkroniserade tidsstämplar; samhällsstödskanaler kartlagda för mindre leverantörer vid behov.
  3. Fas 3: Företagsutrullning; multinationell omfattning; varaktighet: 9–12 månader; krav: skalbara mcls; styrmodell; förändringsledning; ansvarig: chief information officer; resultat: systemisk effektivitet; ROI förstärks; inträde på nya marknader blir rutin; riskhantering adresserar säkerhetsstandarder av militär kvalitet; ozonvänliga transportalternativ; förlängd tillförsel av finansiering säkerställer långsiktig motståndskraft.