Comparative overview of ERP and S-ERP
| Criteria | Conventional ERP | S-ERP |
|---|---|---|
| Objective | Optimize operational and financial efficiency | Integrate sustainability into all business operations, balancing economic performance with ecological objectives (e.g. ceramic plants targeting both cost reduction and 20–30% lower CO2 per m2 of tiles) |
| Sustainability capabilities | Limited or absent; sustainability handled via separate/add-on tools | Embedded sustainability management: CO2 tracking, energy consumption monitoring, waste management, Circular Economy principles (e.g. SAP S/4HANA Sustainability Control Tower) |
| Environmental management | No active management of resources or emissions; retrospective focus | Proactive green practices: green supply chain, e-waste management, eco-design integration, alignment with ISO 14001 (e.g. real-time kiln emission control in ceramic firing lines) |
| Stakeholder integration | Minimal engagement on sustainability issues; limited transparency | Enhanced collaboration with employees, suppliers, customers; real-time sustainability reporting (e.g. shared supplier carbon dashboards in Bosch or Saint-Gobain ceramic supply chains) |
| Energy and resources efficiency | Not a primary concern; efficiency driven mainly by cost savings | Digitalized systems optimize energy use, reduce server load and waste, minimize resource consumption, and support renewable energy adoption (e.g. IoT sensors on tile drying and firing kilns automatically shifting to off-peak renewable tariffs) |
| Data handling | Retrospective and periodic (e.g. manual Excel uploads once per shift or day) | Real-time and dynamic; automated streaming from shop-floor sensors (e.g. MES captures energy kWh every 10 s during tile pressing and feeds directly into ERP) |
| Integration with MES and LCA | Basic or manual data exchange; often siloed (e.g. CSV export/import between systems) | Seamless automated bidirectional flow: MES → ERP → LCA via APIs and middleware (e.g. Siemens Opcenter MES + SAP S/4HANA + SimaPro/OpenLCA calculating live carbon footprint per batch of ceramic tiles) |
| Decision-making support | Primarily economic/financial-driven (e.g. production scheduling based only on cost and delivery date) | Balanced triple bottom line with predictive analytics (e.g. AI in ERP flags “high-emission batch” and suggests alternative raw materials or slower firing curve to cut CO2 by 12% without missing deadlines) |
| Technology enablers | Traditional on-premise databases, limited IoT/AI connectivity | Full Industry 4.0 stack: IoT sensors, edge computing, AI analytics, cloud platforms (e.g. Microsoft Azure IoT Hub + Power BI dashboards integrated with Dynamics 365 and LCA tools) |
| Advanced circularity support | Absent; no lifecycle simulation or immutable traceability | Digital Twins simulate EoL/remanufacturing scenarios; Blockchain ensures provenance, traceability, and trust in closed-loop chains (e.g. secured DT data for verifiable recycled content) |
| Regulatory compliance and reporting | Static annual reports (e.g. Excel-based CSR or basic carbon inventory) | Automated, real-time ESG and CSRD-compliant reporting (e.g. live Scope 1–3 emissions dashboard in SAP that feeds directly into EU CSRD filings or ISO 14064 certification) |
| Criteria | Conventional ERP | S-ERP |
|---|---|---|
| Objective | Optimize operational and financial efficiency | Integrate sustainability into all business operations, balancing economic performance with ecological objectives (e.g. ceramic plants targeting both cost reduction and 20–30% lower CO2 per m2 of tiles) |
| Sustainability capabilities | Limited or absent; sustainability handled via separate/add-on tools | Embedded sustainability management: CO2 tracking, energy consumption monitoring, waste management, Circular Economy principles (e.g. SAP S/4HANA Sustainability Control Tower) |
| Environmental management | No active management of resources or emissions; retrospective focus | Proactive green practices: green supply chain, e-waste management, eco-design integration, alignment with ISO 14001 (e.g. real-time kiln emission control in ceramic firing lines) |
| Stakeholder integration | Minimal engagement on sustainability issues; limited transparency | Enhanced collaboration with employees, suppliers, customers; real-time sustainability reporting (e.g. shared supplier carbon dashboards in Bosch or Saint-Gobain ceramic supply chains) |
| Energy and resources efficiency | Not a primary concern; efficiency driven mainly by cost savings | Digitalized systems optimize energy use, reduce server load and waste, minimize resource consumption, and support renewable energy adoption (e.g. IoT sensors on tile drying and firing kilns automatically shifting to off-peak renewable tariffs) |
| Data handling | Retrospective and periodic (e.g. manual Excel uploads once per shift or day) | Real-time and dynamic; automated streaming from shop-floor sensors (e.g. MES captures energy kWh every 10 s during tile pressing and feeds directly into ERP) |
| Integration with MES and LCA | Basic or manual data exchange; often siloed (e.g. CSV export/import between systems) | Seamless automated bidirectional flow: MES → ERP → LCA via APIs and middleware (e.g. Siemens Opcenter MES + SAP S/4HANA + SimaPro/OpenLCA calculating live carbon footprint per batch of ceramic tiles) |
| Decision-making support | Primarily economic/financial-driven (e.g. production scheduling based only on cost and delivery date) | Balanced triple bottom line with predictive analytics (e.g. AI in ERP flags “high-emission batch” and suggests alternative raw materials or slower firing curve to cut CO2 by 12% without missing deadlines) |
| Technology enablers | Traditional on-premise databases, limited IoT/AI connectivity | Full Industry 4.0 stack: IoT sensors, edge computing, AI analytics, cloud platforms (e.g. Microsoft Azure IoT Hub + Power BI dashboards integrated with Dynamics 365 and LCA tools) |
| Advanced circularity support | Absent; no lifecycle simulation or immutable traceability | Digital Twins simulate EoL/remanufacturing scenarios; Blockchain ensures provenance, traceability, and trust in closed-loop chains (e.g. secured DT data for verifiable recycled content) |
| Regulatory compliance and reporting | Static annual reports (e.g. Excel-based CSR or basic carbon inventory) | Automated, real-time ESG and CSRD-compliant reporting (e.g. live Scope 1–3 emissions dashboard in SAP that feeds directly into EU CSRD filings or ISO 14064 certification) |
Sharing content requires targeting cookies to be enabled. Please update your cookie preferences to use this feature.