Analyzing and Applying SAP Market Communication Architecture for Utilities

Objective

After completing this lesson, you will be able to evaluate the roles and responsibilities of different market participants within the SAP Market Communication for Utilities system and apply this understanding to optimize the communication and business processes between SAP S/4HANA Utilities and the MaCo Cloud.

Overview

SAP Cloud for Utilities foundation is a cloud solution delivered as a software-as-a-service product.

The solution will be delivered on the SAP Business Technology Platform delivered and uses many of the services provided by this platform.

SAP Market Communication for Utilities

Note

The SAP Market Communication for Utilities offers specific processes for market roles that are specific to Germany. The following content is relevant only for Germany.
The image shows four rectangular sections, each representing different roles in the energy sector. From left to right: the first section is labeled Meter Operator and shows a gauge; the second section is labeled Distribution System Operator and displays a battery icon with a lightning bolt; the third section is labeled Supplier and features a wind turbine; the fourth section is labeled Party Responsible for Settlement and shows a balance scale.

The Meter Operator System (MOS) or Meter Operator is responsible for operating the metering devices of a metering location (MeLo).

The Distribution System Operator (DSO) or Distributor is responsible for operating the distribution grid and the network location (NeLo).

The Supplier (SUP) is responsible for the billing of energy to- and from a market location (MaLo).

The Party Responsible for Settlement (PRS) or Settlement Coordinator is responsible for energy quantity settlement and the financial compensation, when too much or too little energy is delivered.

The image presents an architectural diagram of MaCo Cloud integration with SAP solutions. At the center is a cloud labeled MaCo Cloud, which includes Market Process, Market Message, and Market Partner. At the top right, there are components labeled MMT with EDIFACT and Converter, and EMP with E-mail and AS4. At the top left, SAP Fiori is listed with Configuration, Market Partner, and Monitoring PDOC and TDOC. The bottom left features SAP S/4HANA Utilities with processes for Device Management, Meter Reading, Billing, Invoicing, and Contract Accounting, along with acronyms APE (APEU, UCOM) and US4G (GPKE, WIM). Below is SAP Analytics Cloud with Analytical Apps, and on the bottom right SAP S/4HANA includes Finance and Logistics. Arrows indicate the flow and integration between these elements.

SAP Market Communication for Utilities Architecture

The separation of business system and market communication system divides the overall process as follows:

  • The processing part runs in SAP S/4HANA Utilities.
  • The communication part runs in SAP Market Communication for Utilities called MaCo Cloud.

The SAP Market Communication for Utilities Cloud is made up of three parts.

The first part, called Market Processes, manages how market processes are set up and run automatically based on market rules.

The second part, Market Messages, handles the exchange of EDIFACT messages with external market partners using either email or AS4 format.

The third part, Market Partners, takes care of creating and updating the information about market partners.

The Application Process Engine (APE) component replaces the Common Layer and offers the technical framework needed for operations.

APE operates in both the business system and the market communication system. It tracks the progress of market message transfers in a transfer document, known as TDOC, and the progress of market process execution in a process document, called PDOC.

Within APE, the Common Utilities Layer (UCOM) helps connect SAP S/4HANA Utilities to the MaCo Cloud.

The Utilities Solution for Germany (US4G) component is the successor of IDEX and controls for example:

  • Geschäftsprozesse Kundenbelieferung Elektrizität (GPKE) with the Start-of-Supply process
  • Wechselprozesse Meßwesen (WIM) with the Start-of-Meter Operation process

SAP S/4HANA Utilities runs both in SAP GUI and SAP Fiori as it can be deployed as a private cloud (on-premise) or public cloud.

SAP Market Communication for Utilities runs only in SAP Fiori as it can only be deployed as a public cloud.

The UI for configuration, process monitoring (PDOC), message monitoring (TDOC) and market partner maintenance is provided by SAP Fiori.

The separation of business system and market communication system divides the overall process as follows:

  • The processing part runs in SAP S/4HANA Utilities.
  • The communication part runs in SAP Market Communication for Utilities called MaCo Cloud.

The MaCo Cloud does not store its own master data, like business partner or point-of-delivery information. Instead, it needs to request this data from the business system to send or receive information to or from market partners. Communication between the MaCo Cloud and the business system is handled using transfer documents, known as TDOC.

The MaCo Cloud takes care of all processes that should not be influenced by the customer. On the other hand, the business system concentrates on business data and processes, without dealing with market communication processes and data.

The figure shows the MaCo Cloud receiving a registration request from the business system of the new supplier (SUPN) and handling the communication with the external market partner, the distributor (DSO).

The data exchange concept between business process and market communication process is explained in detail in the following figures.

The image illustrates two process flows involving SAP S/4HANA Utilities, MaCo Cloud, and External Market Partners (EMP). In both diagrams, the flow begins with SAP S/4HANA Utilities and passes through several components in MaCo Cloud before reaching EMP. In the first flow, the SAP S/4HANA Utilities section shows a PDOC document, managed by APE. This transitions into a TDOC, also managed by APE, which is then converted into a business message by MMT. The business message flows into the MaCo Cloud's APE where a TDOC and PDOC are created and move through the process. In the second flow, similarly, SAP S/4HANA Utilities show PDOC and TDOC documents managed by APE, transitioning through the APE in MaCo Cloud, where a market message is created by MMT. This market message is then sent to EMP via email or AS4. The image highlights the flow and transformation of messages at various stages from the initial business process document (PDOC) to the final market communication with EMP.

The image illustrates how messages are exchanged between the business system, market communication system, and external market partners.

In the top section, it shows how business messages move between the business system and the market communication system. Since processes are divided into business and market communication parts, they need to exchange data such as master data or energy data. Whenever these two systems interact, they transfer business messages to share information.

The Application Process Engine (APE) component operates within both the business system and the market communication system. APE tracks the progress of each business or market message transfer using a transfer document, or TDOC. It also records the progress of each process execution with a process document, or PDOC.

The bottom section illustrates how market messages are transferred between the market communication system and the market partner. The Market Message Transfer (MMT) component works only in the market communication system. MMT acts as the middleware for all message transfers to and from the market communication system. It manages the exchange of market messages with external market partners and is responsible for packaging and unpacking these messages into email or AS4 formats.

The image illustrates two process flows demonstrating the exchange of business messages and their corresponding documents between SAP S/4HANA Utilities and MaCo Cloud. In the upper diagram: 1. A PDOC (process document) is created and managed by APE within the SAP S/4HANA Utilities. 2. This PDOC is converted into a TDOC (transfer document), which is then transferred using MMT to the MaCo Cloud. 3. In MaCo Cloud, the TDOC is processed by the APE. 4. This TDOC is reconstituted into a PDOC in the MaCo Cloud. In the lower diagram: The flow starts in the MaCo Cloud with a PDOC. 1. The PDOC is converted into a TDOC. 2. This TDOC is transferred using MMT to SAP S/4HANA Utilities. 3. Within SAP S/4HANA Utilities, the TDOC is processed. 4. The TDOC is then reconstituted into a PDOC. The diagrams highlight the steps of creating, transferring, and converting PDOCs and TDOCs between the business system and the MaCo Cloud.

The figure shows the business message transfer between the business system and the market communication system.

The upper part shows the business message transfer in the direction from the business system to the market communication system.

  1. A business process or a job triggers the transfer of a business message. APE creates a TDOC and adds it to the processing queue.
  2. APE picks up the TDOC from the queue and processes it. The business message leaves the business system towards MMT in the cloud.
  3. MMT receives the business message and hands it over to APE in the cloud. APE creates a TDOC and adds it to the processing queue.
  4. APE picks up the TDOC and processes it. The business message receipt is completed and the market process can start or continue.

The lower part shows the business message transfer in the other direction from the market communication system to the business system.

  1. A market process or a job triggers the transfer of a business message. APE creates a TDOC and adds it to the processing queue.
  2. APE picks up the TDOC from the queue and processes it. The business message leaves APE in the cloud towards MMT in the cloud.
  3. MMT sends the message to the business system. APE picks up the message and creates a TDOC and adds it to the processing queue.
  4. APE picks up the TDOC and processes it. The business message receipt is completed and the business process can start or continue.
The image illustrates two diagrams showing the flow of market messages between SAP S/4HANA Utilities, MaCo Cloud, and external market partners. In the upper diagram, it describes the flow from MaCo Cloud to the external market partner: 1. The PDOC (process document) is created in MaCo Cloud. 2. The PDOC is converted into a TDOC (transfer document) by the APE component. 3. The TDOC is sent as a market message via MMT, which is transmitted through a channel (email or AS4) to the external market partner (EMP). 4. The market message is then received by the external market partner. In the lower diagram, it describes the flow from the external market partner to MaCo Cloud: 1. The market message from the external market partner is received through a channel (email or AS4). 2. The message is converted into a TDOC by the MMT component in MaCo Cloud. 3. The TDOC is processed and transformed into a PDOC by the APE component in MaCo Cloud. 4. The PDOC is saved in the MaCo Cloud system.

The figure shows the market message transfer between the market communication system and the external market partner (EMP).

The upper part shows the market message transfer in the direction from the market communication system to the external market partner.

  1. A market process triggers the transfer of a market message. APE creates a TDOC and adds it to the processing queue.
  2. APE picks up the TDOC from the queue and processes it. The market message leaves the MaCo Cloud towards MMT.
  3. MMT picks up the market message, creates an EDIFACT file, packs it into e-mail or AS4 format and sends the market message to the EMP.
  4. The EMP receives the market message and responds with a positive acknowledgment (CONTRL) message.

The upper part shows the market message transfer in the other direction from the external market partner to the market communication system.

  1. The EMP sends a market message, an EDIFACT file in e-mail or AS4 format, to your own market partner's address.
  2. MMT receives the market message, unpacks and checks it, and sends a positive acknowledgment (CONTRL) back to the EMP and hands the message from the market partner and the acknowledgment (CONTRL) back to the EMP over to APE.
  3. APE creates a TDOC for the market message receipt and adds it to the processing queue.
  4. APE picks up the TDOC and processes it. The market message receipt is completed and the market process can start or continue.
The image shows a screenshot of the Monitor Transfer Documents interface in a software application. The transfer document ID is 3000000000000000011064. The transfer timestamp is July 29, 2021, at 00:07:28, and the status timestamp is July 29, 2021, at 00:07:29. The transfer status is marked as Abgeschlossen (Completed). Below the status information, there are several tabs: General, Business Objects, Linked Documents, Log, and Administrative Data. The General tab is currently selected. Under the General tab, the following information is displayed: Identification: - Reference for external transfer: 025AA29AE77A1EEBBFBE062E2FD9CBA8 - Correlation ID: AGEB1R_nwNz1lRuc6vVzpRHXLRw3 - Number of aggregation transfer: (value not provided) - Shared access reference: 025AA29AE77A1EDBBF7B447809A3FAE Communication Attributes: - Direction: Incoming - External communication type: (value not provided) Communication Partner: - Sender: 4045458000000 - Sender code list: (value not provided) - Recipient: 4045458000000 - Recipient code list: (value not provided)

Transfer Documents

The transfer document includes the common access reference. Both in MaCo Cloud and SAP S/4HANA Utilities, this process is identical in the transfer documents. Assignments are also linked to the process document in Cloud and SAP S/4HANA Utilities, making it easier to locate where the process is delayed in the other system.

Processes are handled through a process framework called APE and are represented through process documents. APE is the new version replacing the Common Layer (MPM) in SAP S/4HANA Utilities. Customizing and transactions for processing can now only be accessed via SAP Fiori Apps.

Error handling continues as before through clarification cases in SAP S/4HANA Utilities, while in the cloud, exceptions are managed using new exception documents. The data associated with processes is stored in header tables /APE/PROC_HDR and /APE/PRST_HDR and additional data tables /APE/PROC_DATA and /APE/PRST_DATA, which exhibit a significantly different data structure compared to earlier methods.

Moreover, new features for compressing and archiving completed process documents have been introduced.

The image displays a dashboard with three main sections: General, Deadlines, and Configuration. In the General section, there are three categories: 1. Prozess-Cluster definieren with the number 22. 2. Versionen definieren with the number 20. 3. Marktrollen definieren with the number 8. In the Deadlines section, there are two categories: 1. Fristen konfigurieren with the number 66. 2. Fristenarten definieren with the number 66. In the Configuration section, there are five categories: 1. Prozess-IDs definieren with the number 201. 2. Prozessschritt-IDs definieren with the number 354. 3. Prozessaktivitäten definieren with the number 34. 4. Prozesswerte definieren with the number 579. 5. Prozesse konfigurieren with the number 209.
This image shows the APE (Advanced Process Execution) Apps screen, divided into two sections: Configuration and Process Application. In the Configuration section, there are six tiles: 1. Prüfergebnisse definieren with a count of 786. 2. Aktionscodes definieren with a count of 3. 3. Aktionen konfigurieren with a count of 11. 4. Prüfungen konfigurieren with a count of 420. 5. Prüfungsgruppen konfigurieren with a count of 371. In the Process Application section, there are six tiles: 1. Prozessdokumente überwachen shows 419 faulty processes in red. 2. Einstellungen für Operations with a count of 4. 3. Archivierte Cloud-Dokumente anzeigen with a count of 0. 4. Ausnahmedokumente überwachen shows 0 overdue exceptions. 5. Übertragungsdokumente überwachen shows 108 faulty transmissions in red.
  • New report /APE/RP_TRIGGER_PDOC_MASS in SAP S/4HANA Utilities for mass triggering of process documents. Replacement for report /IDXGC/MASS
  • New report /APE/RP_TRIGGER_TRDOC_MASS in SAP S/4HANA Utilities for mass triggering of transfer documents
  • Checks can be defined in the same way as BPEM
  • For each faulty PDoc there is an exception document (Own app: Monitor exception documents)

SAP Cloud for Utilities

A vertical list of three items next to numbered icons. The items are: 1. Share. 2. Calculate Rents. 3. Plan Buildings. Next to the numbers and descriptions, there are blue icons representing each action: 1. A share icon with three connected nodes. 2. A calculator icon. 3. A house icon.

SAP Cloud for Utilities foundation, also known as Measurement Concept Management, or MCM for short, is a new SAP solution aimed mainly at the distributed generation market. The solution serves to enable customers to manage, streamline and unify processes around installations including decentralized energy resources throughout their whole lifecycle, from their creation to the final shutdown. See MCM Planet Utilities Workzone for further information.

In measurement concept management, we distinguish between three main dimensions: classes, models, and instances.

A measurement concept class outlines the technical and physical structure of the installation. On the other hand, a measurement concept model describes the commercial structure.

A measurement concept model is always built upon a measurement concept class. You can create various measurement concept models based on the same class, which we will explore later with the energy-feed-in example.

Finally, a measurement concept instance is the actual representation of a measurement concept model at a specific end-customer's location.

SAP Measurement Concept Class page for standard electricity consumption shows details for Division: Electricity and Type: Class. Description states To map models for the standard consumption of electricity. Circuit Plan section has tabs for Metering Locations and Actors. Under Metering Locations, there is a Grid Measurement(Active Energy, Direction: Demand, Metering Procedure: IR SLP, Register Codes: IR 1.29.x, SLP 1.8.x). A flow diagram connects 'Grid (Grid)' to 'Grid Measurement' and then to 'Consumer (Appartment).' Options to Edit and Delete are available in the upper right corner.

MCM Cloud App "Manage Measurement Concept Classes"

Here you can see the MC class for the standard consumption use case.

SAP Measurement Concept Model page for standard electricity consumption shows details for Measurement Concept Class: Standard_consumption, Division: Electricity, and Type: Model. The validity period is from February 29, 2024, to December 31, 9999. Description states Standard consumption with Status In Progress. Circuit Plan section has tabs for Market Locations and Formulas. Under Market Locations, there is a Consumption Market Location (Demand, Register Code: 1.29, 1.8) and the actor is Consumer Appartment. A flow diagram connects 'Grid (Grid)' to 'Grid Measurement' and then to 'Consumer (Appartment).' Options to Activate, Edit, Delete, and Copy are available in the upper right corner.

MCM Cloud App "Manage Measurement Concept Models".

Here you can see the MC model for the standard consumption use case.

SAP Measurement Concept Instance page for INST-14 (1) indicates Status as Active with Instance Version 1 and Current status as Completed. General Information includes External Code, Ordering Party, Grid: SNE956610053427, Division: Electricity, Class: Standard Consumption (B_S), and Model: Standard Consumption - Electricity (B_S_M1). Validity period is from July 12, 2022, with no end date, commercial setup completed on October 10, 2022. Primary address is Ringstrasse 90, Floor: 5, 5.Stock App 67, DE - 69190 Walldorf. Market Locations section lists Malo VB - Consumption Market Location. A flow diagram connects 'Grid (N1)' to 'Grid Measurement' with Metering Location: Z1 and Active Energy: 1.8, and then to 'Consumer (VB).' The page offers tabs for Location Structure and Details.

MCM Cloud App "Display Measurement Concept Instances".

Here you can see one instance of the MC model "Standard consumption".

As you can see on the top a MC instance is a concrete installation at one specific address.

Flow diagram showing electricity consumption from the Grid to a Consumer (Apartment). The grid supplies electricity measured by a meter labeled GridM with 1 Direction. The measured active energy values are 1.29 and 1.8. The flow moves from the electricity grid to the meter and then to the consumer's apartment. An inset in the top right corner illustrates the same flow from Grid (Grid) through a Grid Measurement to Consumer (Appartment).

Standard Consumption Scenario follows a quite common scenario in which the Consumer is plugged into the grid and uses the electricity from the grid to power its own devices. The energy taken from the grid is the one the consumer is being charged for.

Flow diagram displaying connections from the Grid to Consumer (Apartment) through Grid Measurement. The diagram highlights key terms and their relationships: Metering location, Metering tasks (Active Energy with Direction: Demand, indicating energy flow from grid to consumer), Meter, and Register Codes (depending on metering procedure). The arrows labeled Actor point to both the Grid and Consumer (Apartment), indicating their roles. The metering location GridM shows active energy values of 1.29 and 1.8.

Here you can see the first example – standard consumption in the MCM Cloud

This means that the house owner only consumes electricity from the grid for example to use his/her household devices.

So the energy is only flowing in one direction. The energy consumed is measured with one single meter "GridM". In the upper right you can see the so-called "network graph".

Let’s have a deeper look on the next slide.

Diagram illustrating electricity consumption from the grid to a consumer (apartment) within a house. The flow shows the consumer's apartment connected to a market location and then to a meter labeled GridM with one direction before the property line leading to the grid. The caption reads, The energy consumed is measured by the meter 'GridM'. Below the diagram, a table titled Circuit Plan displays market locations and formulas, indicating the consumption market location procedure and meter readings: GridMeter_1.29 for billing and grid usage, and GridMeter_1.8 for settlement.

This is the commercial model which belongs to the standard consumption use case. In addition to the measurement concept class, in the measurement concept model you define market locations.

In this example there is one market location for the consumption.

On the right bottom you can see that we have 2 formulas defined for this market location – one formula for the metering procedure "interval reading" and one formula for the metering procedure "meter reading". Here the formula is very easy : the energy amount which is assigned to the market location is the energy we measure with meter "GridMeter".

Diagram showing an integrated energy system including a solar panel producer, consumer (apartment), and grid. The house indicates flow from producer (SolarPanel) through a meter labeled SolarM (1 Direction) to the consumer. Another meter, GridM (2 Directions), connects the house to the grid. Outside the building, the grid is directly connected to grid measurement devices indicating active energy levels from GridM: 1.29, 1.8, 2.29, and 2.8. Another set of measurements for SolarM producers shows 2.29 and 2.8 active energy levels directed back to the grid.

Standard Prosumer Scenario differs from the above scenario in a sense that now, the consumer is also a producer. One example would be installing a solar panel. Now, since the consumer (now prosumer) also uses the power generated by a new installation, the billing process changes.

MCM allows to update the user's metering scenario with every change a user might want to conduct to the existing concept.

In this example we have, as before, an actor "consumer" which is the apartment.

In addition we now also have another actor of type "producer", the solar panel which produces electricity.

The energy produced by the solar panel is measured with the meter "SolarM" which belongs to the metering location "generator Measurement".

As in the standard consumption there is a metering location "Grid Measurement" but now we do not only measure the electricity which is flowing from the grid to the apartment but also the electricity which is feed into the grid.

Diagram illustrating an energy system with bidirectional flow between the grid and a consumer (apartment) and a producer (solar panel). The grid is connected to a grid measurement meter labeled GridM showing active energy readings of 1.29, 1.8, 2.29, and 2.8. The consumer (apartment) and producer (SolarPanel) are connected to this grid measurement system. The solar panel producer also has a generator measurement meter labeled SolarM showing active energy readings of 2.29 and 2.8. Green arrows and text labels indicate the actors involved and metering locations for energy demand, supply to the grid, and produced electricity measurement.

To define a commercial model based on the energy feed-in use case, we can define two market locations.

One consumption market location and one generation market location.

  • Applications request new process against cloud application.
  • Cloud application validates initial data and raises events using the SAP Event Mesh capability.
  • SAP S/4HANA and back-end systems listen to new events and read and update data in the cloud application.
Diagram illustrating the architecture of Measurement Concept Management in SAP. The central component is SAP Business Technology Platform (SAP BTP) featuring Measurement Concept Management under SAP Cloud for Utilities Foundation, composed of Application (UI applications and Services), Core logic, Persistency (SAP HANA Cloud), and SAP Event Mesh. On the left, it connects to Applications, DSO System, Technician Portal, and others. On the right, it interfaces with Back-end Systems for Device Management and Energy Data Management (EDM). At the bottom is SAP S/4 HANA, including Measurement Concept Management add-on handling Webhook via APE, REST service. It features Application processes like Transfer document, Process document, and Measurement Concept Interface. Footnote clarifies that Device Management and EDM process can also be managed in SAP S/4 HANA Utilities, SAP Cloud for Energy solution, or third-party solutions.

We see that the application is split into two parts.

At the top in the center, we see the cloud application built on the SAP BTP platform, and at the bottom we see the SAP S/4HANA backend that does all the master data changes.

This way, we have the best of both worlds. On one hand, SAP BTP gives us a flexible solution and the connectivity with the SAP event mesh, which is crucial in order to integrate third party systems.

At every major step of our standard process, an event gets sent out and that event can be used for example by one of the backend systems on the right side to react to it, get the data and start their downstream processes.

On the backend side on the application process engine side, the event creates a transfer document, which is an intermediate document that gets stored and triggers a process document.

This architecture will change based on the customer landscape, and process like Device Management or Energy Data Management could be handled in SAP S/4HANA for Utilities, SAP Cloud for Energy or third party applications.

Diagram illustrating the interaction between a Cloud App for Measurement Concept Management, SAP Event Mesh, and SAP S/4HANA Utilities. On the left, the Cloud App for Measurement Concept Management handles design, orchestration, and validation. In the center, process choreography is managed via SAP Event Mesh, showing various instance statuses such as Active, Installed, In Creation, and Initial, along with their corresponding change process statuses like Locations Installed, Devices Installed, Master Data Available, and Creation Requested. On the right, the Measurement Concept Management Add-On for SAP S/4HANA Utilities manages technical master data and process implementation. Arrows show the flow of information between these components.

Full integration between measurement concept management and the measurement concept management add-on for SAP S/4HANA Utilities

The MCM Cloud Application integrates natively with the SAP S/4HANA MCM Add-on using SAP Event Mesh to orchestrate the master data updates.

The SAP S/4HANA MCM Add-on requires configuration to properly update the data in S/4 based on the instructions coming from the MCM Cloud Application.

Process Steps:

  • Applications request new process against cloud application
  • Cloud app validates initial data and raises events via SAP Event Mesh
  • SAP S/4HANA and backend systems listen to new events and read / update data in cloud application

SAP Cloud for Energy

SAP Cloud for Energy solution is purpose-built to manage and process big metering data. It is based on the open and global CIM-industry standard and thus easily integrates to upstream head-end and mediation systems and downstream applications like rating and billing.

SAP Cloud for Energy diagram. Central element is SAP Business Technology Platform with Business Agility. It encompasses Application Development & Integration, Artificial Intelligence & ML Services, and Database & Data Management. Icons on the left represent gauges or meters. Arrows signify data flow. Icons on the right include documents, recycling, circuit connections, and balance scales. Labels: Extend on left and Build on right. Image title: SAP Cloud for Energy.

Increasing Importance of Energy and Water Data in Basic Process Components of Energy and Water Data Management Systems

  • Reliable and high availability
  • Integration and Interoperability
  • Enable intuitive and secured applications
  • Security and GDPR compliance
  • Embedded Analytics
  • One source of truth and sharing of data
  • Industry standards

E2E Smart Metering with SAP Cloud for Energy

  • SINGLE SOURCE OF TRUTH consolidation of all smart metering data in one big unlimited big data enabled energy data platform
  • SYNCRONIZE MASTER DATA Automated master data synchronization with SAP S/4HANA Utilities
  • EASILY
  • IMPORT DATA Import of time series and discrete metering data (CIM interface)
  • FULLY MANAGE DATA Validation, estimation, and further processing of metering data
  • INTELLIGENT USE CASES Identification and follow-up activities through Anomaly Detection and Event / Alert Management
  • AUTOMATION improving the overall efficiency of the metering data lifecycle process through a highly automated E2E (End-to-End) solution
  • BILLING DETERMINANTS Billing determinant calculation and integration to SAP S/4HANA Utilities
  • EMBEDDED ANALYTICS Embedded monitoring dashboards and analytics
  • DATA PROTECTION AND PRIVACY Secure, robust and certified (ISO, SOC etc.) Software as a Service
  • STRATEGIC RELEVANCE SAP Cloud for Energy as a central element for new solutions around Distributed Energy Resources
Diagram outlining the features and benefits of SAP Cloud for Energy. The image is divided into three main sections: (1) Partner Extensions / Apps, (2) SAP Cloud for Energy (center), and (3) Analytics. In the center section, a cloud labeled SAP Cloud for Energy lists key benefits: - High data consistency through reconciliation reporting. - Easy detection of meters with missing values. - Efficient and regular export of data for analytical purposes (parquet files). - Highly scalable management of large data volumes. - Out-of-the-box integration with SAP S/4HANA Utilities. - No need for archiving. - Growing number of configurable validation rules and various replacement procedures (VEE). - Process optimization through operational reporting. - Calculation of consumption time series. - Issue/anomaly detection with highly automated processing. On the left, the Partner Extensions / Apps section highlights: - Smart meter rollouts. - Growing data volume due to time series data collection for residential customers. - Data ingestion anytime, not limited to nightly batch window. On the right, the Analytics section details integration aspects: - Integration with SAP S/4HANA Utilities private cloud/on-premise. - Outsourcing big data processing of measurement values to SAP Cloud for Energy. - SAP S/4HANA Utilities is the leading system for settlement, billing, and meter master data. - Request aggregates and billing determinants from SAP Cloud for Energy. At the bottom, icons represent various advantages: - High degree of automation. - High usability and modern UI design. - Data centers in the U.S. and Europe. - Highly secure and compliant with regular ISO/SOC2 certification. - Fast go-live through high standardization. - Continuous feature delivery and timely implementation of customer input.

SAP Cloud for Energy - The Value Proposition

Capabilities
Our highly automated end-to-end (E2E) metering data solution offers robust and flexible validation, estimation, and editing (VEE) of metering data. By intelligently using central master data from SAP S/4HANA Utilities, we ensure data accuracy and reliability. This seamless integration not only enhances operational efficiency but also increases customer satisfaction through automated and flexible processes. Our solution provides a comprehensive approach to managing metering data, minimizing manual intervention and reducing errors. This means faster response times and better service for customers, ultimately leading to a more reliable and efficient utility management system.
User Interface

Our solution features intuitive and state-of-the-art user interfaces that enhance the overall user experience. With role-based apps and seamless app-to-app navigation, users can effortlessly switch between tasks, improving productivity. The configurable screens allow for customization according to individual needs, ensuring that each user has the most relevant tools at their fingertips. This flexibility and ease of use lead to increased operational efficiency, as tasks are completed more quickly and accurately. Overall, our system provides a user-centric approach that supports smooth and efficient workflows, enabling your organization to achieve higher performance levels.

Analytics

Our solution offers advanced analytical capabilities for operational monitoring straight out of the box. It supports mass data export, enabling the upload of time series data to external analytic tools such as SAP SAC. This facilitates comprehensive meter master data and time series reporting, providing detailed insights into your operations. The result is enhanced transparency and significantly reduced manual effort, allowing your team to focus on more strategic tasks. By leveraging these powerful features, you gain a clearer understanding of your data, leading to more informed decision-making and improved operational efficiency.

Cloud Quality / Security

Our solution ensures that sensitive metering data is protected and secured by SAP, adhering to high standards with security certificates such as ISO and SOC 2. This robust security framework guarantees the utmost data protection for our users. Additionally, we offer a fast time-to-market for innovations, with updates and new features being rolled out as frequently as weekly. By leveraging outsourced data storage, we not only enhance scalability but also significantly lower the total cost of ownership (TCO). This combination of security, agility, and cost-efficiency makes our solution an excellent choice for modern utility management.

Integration

Our solution complements processes in SAP S/4HANA Utilities by offering seamless integration for master data synchronization. We leverage industry standards such as IEC-61968-9 for integration with Head-End-Systems, ensuring compatibility and reliability. This standard integration simplifies the synchronization of critical data across systems, reducing both implementation and maintenance efforts. As a result, organizations can achieve greater efficiency and accuracy in their operations, with less time and resources spent on system upkeep. By streamlining these processes, our solution enhances overall productivity and operational effectiveness, making it an ideal choice for modern utility management.

Outlook

Our solution features smart alert and event management, ensuring timely responses to critical issues. It also supports distributed energy resource management, optimizing the use of decentralized energy sources. Enhanced partner enablement through our platform provides seamless integration and collaboration, empowering partners to leverage our robust ecosystem. Additionally, our solution is future-proof, crafted as a strategic SAP Industry Cloud solution. This guarantees long-term viability and scalability, allowing businesses to adapt to evolving industry demands. Together, these capabilities create a comprehensive, reliable, and forward-thinking approach to managing modern utility operations efficiently and effectively.

Diagram showing data flow between SAP Business Technology Platform (including SAP Cloud for Energy) and SAP S/4HANA Utilities, labeled Smart Water Platform. Inputs: Time Series Data (IEC), Sensor Data, LIMS Data. Data flows to SAP Business Technology Platform then to SAP S/4HANA Utilities. Outputs: Meter Master Data, Meter Reading Data. Selected Use Cases on the left, Business Benefits on the right, each with four empty numbered fields. Arrow design at bottom. Labels: Selected Use Cases, Business Benefits.

Our approach yields significant benefits, starting with a 40% reduction in development and integration costs. By co-developing Meter Data Management Software and co-designing it with SAP and Capgemini, we streamline processes. Joint IT infrastructure and maintenance, along with shared development costs, create economies of scale for licensing and maintenance expenses.

We also achieve approximately 10% direct savings on procurement costs by combining the procurement of smart metering systems. This strategy promotes market standardization and further gains economies of scale.

Additionally, we realize about 60% savings in Data as a Service costs by using electricity meters as local hubs for electricity, gas, and water data. High network performance and long battery life, coupled with local gates for client data access, enhance efficiency.

Lastly, we attain roughly 10% savings on installation costs by installing meters for electricity, gas, and water in a single visit. This leads to substantial gains in planning and transport time, economies of scale with subcontractors, and the convenience of one visit for customers.

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