1. SEP Consulting Ltd. introduction
Dr. Polgár Balázs & Palcsó Attila

2. We provide services to domestic and international markets
Overview
We provide services to domestic and international markets
Our customers will get financially significant value in management of sw development project, from requirements specification & system design to implementation phase.
Mission
Requirement specification based on Model Based System Engineering method
Development from scratch based on client specification.
Interim & transition management for JAVA development team
Specific recruitment & evaluation process for potential developer
Developer leasing (architect, senior, junior)
Software developer junior&trainee conversion and/or JAVA workframe catch-up course,
Training course for model based system engineering
Services

3. Software Project Management
strategy
business
challenges
Information Technology
level tasks /
issues / challenges
business
IT strategy and management experience,
Enterprise software development project experience,
Enterprise software requirement specification experience,
Complex model-based thinking,
We can do complex integration projects
Collaborative work style,
Willing to do thinks,
Cost-effectiveness compared to the top layer of management consulting firms,
It is important that we understand software development context!
operation IT

4. Systems Modeling Qualification
Qualification in 2010
OMG Certified Systems Modeling Professional Dr. Polgár Balázs (OCSMP)
Model Builder Advanced level
Certified Professionals Directory

5. Project References
Chatolic World Youth Day Registration system development ( )
iBlue remote lock system req. specification and final system design ( )
EDF - Smart Metering impelementation support at EDF-DEMASZ zrt. (2012 – present )
Smart Metering complex integration project to SAP IS-U system (2015)
Smart Metering Energy Engagement Portal implementation (2014)
Smart Metering small power plan calculation model implementation (2016)
Participation in MAVIR energy optimization project for the reserve market (2015)
Safety critical system design for railway market ( )
DECOS – Dependable Components and Systems, EU FP6 IP research pr. (2004–2007)
Main partners: Audi (DE), Airbus (DE), Fiat (IT), TTTech (AT), Esterel (FR), Austrian Institute of Technology (AT) (totally 20 partners from 6 European countries)
MOGENTES – Model-based Generation of Tests for Dependable Embedded Systems (2008 – 2011), an EU FP7 STREP research project
Main partners: Ford (DE), Thales Railway (AT), Austrian Institute of Technology (AT), Prolan
R3-COP – Resilient Reasoning Robotic Co-operating Systems (2012 – 2013), ARTEMIS pr.
Main partners: Fraunhofer Institute (DE), Siemens AG (DE), Austrian Institute of Technology (AT), Elettric 80 Spa (IT) (totally 28 partners from 11 European countries)

6. Domain knowledge of the team
Energy: EDF Démász Zrt., Mátrai Erőmű, RWE, MAVIR
Railway: Prolan Zrt.
IT&Teleco: IBM Magyarországi kft. Vodafone, TATA Consulting Services
Banking: ABN AMRO, ING,
Manufacturing: Ganz Ansaldo Zrt, Transelectro, Coca Cola, IBM Storage,
Electronics: Schneider Electric, Siemens Austria,
Others:
25+ years experience in Software Development
20+ years experience IT consulting
10+ years experience in Research & Development in academia
20 years experience in software and systems modeling
UML, SysML (= UML for Systems Engineering), domain specific modeling, formal models, etc.

7. Smart Metering is key to the Smart Grid journey, bringing together the Customer, Grid and Work & Asset domains
Utilising electric vehicle storage capability
Integrating intelligent devices and appliances for demand management
Enabling increased use of intermittent energy supplies
Services beyond the meter
Operation of “virtual power plants”
Accelerate electric vehicle adoption
Enabling more micro-generation
Supporting implementation of smart grids
Improving efficiency of industry processes
Proactively managing customer debt
Improving billing accuracy
Reducing operational costs
Providing meaningful consumption information
Reducing overall and peak demand
Smart
Metering

8. Trends in Smart Metering Industry
Smart Metering is no longer just meter to cash
Premise-to-Participant end-to-end meter information network
Grid Operations vendors designing metering into their systems
Advent of Smart meter data hubs, increased multi-party access, underpinned by retail markets
Impact of Meter information on Customer.
New wave of CIS systems
Smart Metering Requirements Increase
Increased granularity of data and frequency of reading
Increase in the number and types of devices to manage
Extreme High Volume processing on the immediate horizon
Premise gateways and demand response
Smart Metering as a Service
Vendors repositioning
Major MDM vendors are all moving into analytics, operational, customer, grid
Meter communications vendors moving into Distribution automation
Security and Privacy are very important

9. Trends in Smart Metering Industry

10. EnergyIP – SAP IS-U reference integration

11. Knowledge path of the JAVA roles

12. Model Based System Development
requirements modelling ...
processes modelling
Definition of Data Model
Architecture and components
System internal Interactions & interfaces
Modelling of the state (state machine)

13. Java frameworks and directories
Gradle dependences & build
Lombok (java)
Spring console application
Log4J, Slf4J logging
Spring Data
WS & REST client development
JAX-B data link

14. Server-side Java technologies
(Servlet, Filter)
(Spring MVC)
JSF
Spring security
WS & REST services development

15. User interfaces HTML, CSS, JS JSF details & Primefaces
AngularJS (+Angular 2)
Bootstrap

16. What types of models can be used?
UML, SysML, Domain Specific Models
Typically we use
these levels
Engineering
models
Model Transformations
Levels of
verification
algorithms
Higher level formalisms:
Dataflow, Petri-net, ...
Low level mathematical
formalisms:
Automatons, SAT, ...

17. Modeling with SysML

18. Modeling Functional Requirements with SysML
What to do?
Activity:
Process/flow diagram
refines
elaborates
refines
refines
elaborates
State Machine
Use Case
Requirement
elaborates
refines
Sequence: Communication

19. Modeling Components with SysML
With what components and how?
Activity
allocates functionality
defines behavior
State Machine
Block Definition
defines usage
defines communication
Sequence
Internal Block

20. Modeling Information with SysML
What information is handled and how?
Activity
describes object flow
Block Definition
reception acts as trigger
describes information flow
State Machine
acts as message
Block Definition
Internal Block
Sequence

21. How to apply Model Driven Development?

22. Synthesis in Model Driven Development
MDD framework
Possibilities
Platform independent  platform specific
Configuration generation
Code generation
Monitor generation
Test Case generation
Documentation generation
Tool Support
Workflow Based Execution
Platform independent model (PIM)
Platform model
Platform specific model (PSM)
Test cases
Program code
Tests
Configuration
Monitor program
Application / System
Configures
Monitors
Application / HW 22

23. Three pillars are needed for model-based work?
Modeling Language
What types of elements can be used during modeling?
Defines elements and their relationship
Defines syntax and semantics
E.g. SysML
Development Methodology
How shall the model be built?
Defines the steps of analyzing and designing the system
Defines the usage of the model elements and diagrams
E.g. SYSMOD (SYStem MODeling) by Tim Weilkiens, OOSEM, Rational Harmony
Tool
E.g. MagicDraw, Enterprise Architect, IBM Rational Rhapsody