The document discusses establishing infrastructure for alternative fuels like electric vehicles. It provides current statistics on electric vehicles and chargers in Croatia and the EU. The scope of the IDACS project is described, which aims to support better information on alternative fuel availability through unique identification codes for charging infrastructure operators and mobility service providers. Objectives include establishing systems for issuing these codes at a national level and making infrastructure data available through National Access Points.
IoT-Based Electric Vehicle Charging StationIRJET Journal
The document describes an IoT-based electric vehicle charging station system designed to provide better environmental and socioeconomic conditions. The system uses QR codes to authenticate users and check parameters like available balance and charging port/time selection from an Android app. It discusses three cases: 1) A user with a new EV receives free charging, 2) A user whose free charging period has ended must pay, and 3) A user with a non-compatible EV must also pay. The system authenticates users via their unique IDs and allows/starts charging accordingly. It aims to motivate EV adoption while allowing manufacturers to offer charging networks.
IoT-Based Electric Vehicle Charging StationIRJET Journal
The document describes an IoT-based electric vehicle charging station system. The system uses QR codes, an Android app, and communication between a Raspberry Pi, Arduino board, and server to enable electric vehicle owners to charge their cars at the station. It considers three cases: 1) A user with a vehicle from Company X within the free charging period charges, 2) A user with a vehicle from Company X after the free period charges and must pay, and 3) A user with a vehicle from another company charges and must pay. The system authenticates users and vehicles via unique IDs and allows or denies charging access accordingly. It aims to help expand electric vehicle adoption and reduce environmental impacts from fuel use and emissions.
The document discusses the potential for a peer-to-peer (P2P) electric vehicle (EV) charging infrastructure using blockchain technology. It outlines the rising adoption of EVs and need for more charging stations. A P2P model could allow private owners to share surplus energy and charge other EVs directly without third parties. Blockchain would allow for decentralized management, transparency, and energy sharing through smart contracts. The document proposes a technical architecture and implementation using Hyperledger Fabric to build a trusted P2P EV charging network.
The document discusses a SaaS platform called NOW! OS that manages digital mobility services including parking, EV charging, bike sharing, and other services. It can integrate with various hardware components and provides features like payment processing, pricing rules, reporting, and customer web/mobile applications. Implementation services help set up the platform and connect it to hardware. Support and maintenance is also provided through ongoing software updates and technical support. Case studies showcase customers like Fastned and ELMO that use it for nationwide EV charging networks.
This presentation summarizes electronic toll collection (ETC) systems. ETC uses radio frequency identification (RFID) technology to automatically deduct toll payments from pre-paid accounts as vehicles pass through toll plazas without stopping. The key components of ETC systems are automated vehicle identification using RFID tags, automated vehicle classification using sensors, transaction processing, and violation enforcement. ETC provides advantages like reduced congestion, fuel savings, and transparency compared to manual toll collection systems. While start-up costs of RFID tags can be high, ETC improves traffic flow and is more efficient than traditional toll booths.
Smart Cities are emerging everywhere, each city is trying to become the first smart city in the world. A smart city is one of the many concepts of cities of tomorrow, you have other concept such as green cities or cities as a service. A smart city is a data driven city where a wide array of smart and connected infrastructure delivers sustainable and prosperous future for its citizens.
The concept of Smart City revolves around the concept of Smart mobility. “Smart mobility” can be defined as a way to move people and goods using new technology that is faster, cleaner, protected, secure, connected, intelligent, more accessible and less expensive than traditional options. Smart mobility revolves around the Electric Vehicle and is about striving toward frictionless, automated and personalized mobility.
Scientific and Economic Observers expect that electric vehicle will represent 35% of all new vehicles sales by 2022 and that it will represent 41 millions of sales per year by 2040. This evolution won’t be without consequences: A predictable outcome would be an increase in both the number and the size of Electric car batteries. However, the principal components of these batteries are projected to disappear.
To be able to have the brilliant utopian future described earlier, this problem needs to be solved.
IRJET- Automatic Toll Collection System based on Embedded System LINUXIRJET Journal
This document describes an automatic toll collection system based on embedded Linux. The system uses a Raspberry Pi board with a camera to capture images of vehicle license plates. It then uses an optical character recognition engine to extract the license plate text. This text is sent to a database to retrieve vehicle information and deduct the appropriate toll amount from the owner's registered account. A notification is sent via SMS to inform the owner of the deduction. If payment is successful, a barrier is opened to let the vehicle pass through the toll booth automatically without stopping. The system aims to make toll collection more efficient and reduce traffic congestion compared to existing manual systems.
IoT-Based Electric Vehicle Charging StationIRJET Journal
The document describes an IoT-based electric vehicle charging station system designed to provide better environmental and socioeconomic conditions. The system uses QR codes to authenticate users and check parameters like available balance and charging port/time selection from an Android app. It discusses three cases: 1) A user with a new EV receives free charging, 2) A user whose free charging period has ended must pay, and 3) A user with a non-compatible EV must also pay. The system authenticates users via their unique IDs and allows/starts charging accordingly. It aims to motivate EV adoption while allowing manufacturers to offer charging networks.
IoT-Based Electric Vehicle Charging StationIRJET Journal
The document describes an IoT-based electric vehicle charging station system. The system uses QR codes, an Android app, and communication between a Raspberry Pi, Arduino board, and server to enable electric vehicle owners to charge their cars at the station. It considers three cases: 1) A user with a vehicle from Company X within the free charging period charges, 2) A user with a vehicle from Company X after the free period charges and must pay, and 3) A user with a vehicle from another company charges and must pay. The system authenticates users and vehicles via unique IDs and allows or denies charging access accordingly. It aims to help expand electric vehicle adoption and reduce environmental impacts from fuel use and emissions.
The document discusses the potential for a peer-to-peer (P2P) electric vehicle (EV) charging infrastructure using blockchain technology. It outlines the rising adoption of EVs and need for more charging stations. A P2P model could allow private owners to share surplus energy and charge other EVs directly without third parties. Blockchain would allow for decentralized management, transparency, and energy sharing through smart contracts. The document proposes a technical architecture and implementation using Hyperledger Fabric to build a trusted P2P EV charging network.
The document discusses a SaaS platform called NOW! OS that manages digital mobility services including parking, EV charging, bike sharing, and other services. It can integrate with various hardware components and provides features like payment processing, pricing rules, reporting, and customer web/mobile applications. Implementation services help set up the platform and connect it to hardware. Support and maintenance is also provided through ongoing software updates and technical support. Case studies showcase customers like Fastned and ELMO that use it for nationwide EV charging networks.
This presentation summarizes electronic toll collection (ETC) systems. ETC uses radio frequency identification (RFID) technology to automatically deduct toll payments from pre-paid accounts as vehicles pass through toll plazas without stopping. The key components of ETC systems are automated vehicle identification using RFID tags, automated vehicle classification using sensors, transaction processing, and violation enforcement. ETC provides advantages like reduced congestion, fuel savings, and transparency compared to manual toll collection systems. While start-up costs of RFID tags can be high, ETC improves traffic flow and is more efficient than traditional toll booths.
Smart Cities are emerging everywhere, each city is trying to become the first smart city in the world. A smart city is one of the many concepts of cities of tomorrow, you have other concept such as green cities or cities as a service. A smart city is a data driven city where a wide array of smart and connected infrastructure delivers sustainable and prosperous future for its citizens.
The concept of Smart City revolves around the concept of Smart mobility. “Smart mobility” can be defined as a way to move people and goods using new technology that is faster, cleaner, protected, secure, connected, intelligent, more accessible and less expensive than traditional options. Smart mobility revolves around the Electric Vehicle and is about striving toward frictionless, automated and personalized mobility.
Scientific and Economic Observers expect that electric vehicle will represent 35% of all new vehicles sales by 2022 and that it will represent 41 millions of sales per year by 2040. This evolution won’t be without consequences: A predictable outcome would be an increase in both the number and the size of Electric car batteries. However, the principal components of these batteries are projected to disappear.
To be able to have the brilliant utopian future described earlier, this problem needs to be solved.
IRJET- Automatic Toll Collection System based on Embedded System LINUXIRJET Journal
This document describes an automatic toll collection system based on embedded Linux. The system uses a Raspberry Pi board with a camera to capture images of vehicle license plates. It then uses an optical character recognition engine to extract the license plate text. This text is sent to a database to retrieve vehicle information and deduct the appropriate toll amount from the owner's registered account. A notification is sent via SMS to inform the owner of the deduction. If payment is successful, a barrier is opened to let the vehicle pass through the toll booth automatically without stopping. The system aims to make toll collection more efficient and reduce traffic congestion compared to existing manual systems.
The document describes a project to model a toll system that handles charges for vehicles entering and exiting motorways. The toll system includes check-in and check-out lanes for vehicles using single tickets or toll tags, reports for station and enterprise managers, and adjusting toll rates. The key components are toll lanes with hardware like computers and card readers, toll stations consisting of multiple lanes, and an enterprise system connecting multiple stations. The toll system functionality includes check-in/out processes for tickets and tags, buying tags, generating reports, changing rates, and administration. The project task is to design the system by selecting 4-6 use cases and documenting requirements, design, and tests to allow a programmer to implement the selected functionality.
The document summarizes an assessment of electric vehicle charging platforms conducted by Accenture. Key findings include:
- Accenture interviewed 8 major EV charging platform vendors and assessed their capabilities across areas like fleet charging, managed charging, and technical services.
- Two vendors emerged as clear market leaders based on their more advanced capabilities compared to industry standards.
- Trends in platform development include a focus on scalability, smart charging capabilities, customized user portals, and integrated payment systems.
- Capabilities around billing, managed charging, core functions, and technical performance were particularly strong amongst vendors.
Odoo OpenERP 7 Fleet and Route Managementpragmatic123
A comprehensive web-based Fleet Management System module for Odoo OpenERP (FMS) is developed for fulfilling the business management needs of the Fleet & Transport industry. Its well Integrated & Modular architecture makes it apt for effective running of the Fleet & Transport business.
Odoo OpenERP's Fleet Management System integrates different functions in a transport company such as accounts, inventory, payroll, invoicing, insurance, asset management, vehicle maintainence, driver details, etc. Further, the system has a scope for customization according to client specific needs.
This document proposes an automated system for vehicle registration and traffic management using QR codes. The system has mobile applications for drivers, traffic police, and an admin website. Drivers can generate QR codes containing their license and vehicle details to show police instead of physical documents. Police can scan QR codes to retrieve information or search by vehicle number. The admin manages user and police registration and lost vehicle records. The system aims to simplify document checking for police and carrying documents for drivers.
IRJET- Smart Toll and Penalty Collection SystemIRJET Journal
This document proposes a smart toll and penalty collection system using QR codes. Currently, toll collection faces problems like long queues and traffic jams. The proposed system generates a unique QR code for each registered vehicle containing owner and vehicle details. Toll collectors can then quickly scan the QR code to automatically identify the vehicle and deduct toll fees. The system can also identify if a vehicle is stolen by checking a stolen vehicle database. The system further proposes that traffic police can scan QR codes using their mobile phones to easily collect penalties without additional hardware. This integrated system aims to make toll collection and penalty collection more efficient and reduce delays.
IRJET - IRCTC-Railway Ticket Generation using QR Code in AndroidIRJET Journal
The document proposes a system for generating railway tickets using QR codes on Android. It aims to allow passengers to obtain unreserved tickets without queuing by scanning QR codes on trains. The system would have a central database accessed via an API. Passengers could search for trains, scan QR codes to select ones, and pay to generate mobile tickets on their phones. This would reduce queues and paperwork compared to the existing manual process. The document outlines modules for administration, passenger management, train details, QR scanning, ticket booking and payment, and reports. It claims the new system would provide a more convenient ticketing process for both passengers and operators.
Everything that you need to know about an ELD Mandate.pptxCargaison express
The ELD Mandate has pushed forward a trend where Electronic tracking has become the standard of the trucking Industry. Although it might not have any alteration based on the work patterns that the commercial drivers follow, it does make the HOS laws easier to follow.
Thus it facilitates a stricter environment in the logistics industry. It is important to remember the ELD devices for trucks have been designed to protect the driver from any work abuse although it may seem tough at first to fully adopt.
NOW! ELMO case study: IT solution for the EV charging network of Estonia fro...Jarmo Tuisk
The document describes the requirements and features needed for an IT solution to manage electric vehicle charging services. It outlines the key steps in a customer's journey when using EV charging stations, including finding chargers, signing up for an account, starting and stopping charging sessions, paying for charging, and accessing usage history. It then provides details on the types of features an EV charging platform would need, such as asset management, customer relationship management, business logic for billing and pricing, and a user interface.
International Journal of Computational Engineering Research (IJCER) is dedicated to protecting personal information and will make every reasonable effort to handle collected information appropriately. All information collected, as well as related requests, will be handled as carefully and efficiently as possible in accordance with IJCER standards for integrity and objectivity
Smart Charging & the ChargeTO Pilot Slides from WebinarFleetCarma
Matt Stevens from FleetCarma presents the interim results from the ChargeTO pilot project.
This project includes active curtailment (smart-charging) of 30 EV owners’ vehicles in the city of Toronto.
The presentation will be followed by a Q&A.
Workplace Charging Best Practices (CALSTART) Detroit June 18 2013CALSTART
Dr Jasna Tomic gave this presentation at the Workplace Charging Workshop, an event co-hosted by CALSTART and NextEnergy in Detroit, MI June 18, 2013. For more information on workplace charging visit www.evworkplace.org
CALSTART Clean Transportation Technologies and Solutions
Optitax's updated sop on e way bill 30 jan 2018Nilesh Mahajan
Optitax's has prepared SOP on e-Way Bill implementation to help taxpayers to generate the eway bill. Further, we have explained legal provision also for ease of reference.
Hope this is helpful
IRJET- Efficient IoT based Automated Toll Collection SystemIRJET Journal
This document describes a proposed automated toll collection system using Internet of Things (IoT) technology. The system uses RFID tags attached to each vehicle to identify it as it passes through the toll plaza. An RFID reader scans the tag and verifies payment details stored in a database. If payment is verified, the toll amount is automatically deducted from the owner's account. Transaction details are sent via SMS to the owner's phone. The system aims to reduce traffic congestion and waiting times at toll plazas compared to manual systems. It allows for tracking of stolen vehicles and monitoring of vehicle movements.
This application allows users to access electronic versions of their driver's license and vehicle documents, and to pay traffic fines online. Police officers can use the app to look up vehicle details and register instances when rules are violated. It assumes both police and violators have smartphones with internet access. Benefits include not needing physical license/documents, viewing violation history, and making instant online payments without cash. Future enhancements could track stolen vehicles and integrate PUC certification, allowing the app to be used across states.
This document describes a portable electric vehicle charging station that is designed to be low-cost and compact to provide alternative charging options for electric vehicles. It can be easily plugged in anywhere and used by small shop owners to start an electric vehicle charging business. The portable charging station works with a solar power system to reduce dependence on the electric grid for charging electric vehicles. It aims to increase the number of charging stations available for electric vehicles.
The document describes a project to model a toll system that handles charges for vehicles entering and exiting motorways. The toll system includes check-in and check-out lanes for vehicles using single tickets or toll tags, reports for station and enterprise managers, and adjusting toll rates. The key components are toll lanes with hardware like computers and card readers, toll stations consisting of multiple lanes, and an enterprise system connecting multiple stations. The toll system functionality includes check-in/out processes for tickets and tags, buying tags, generating reports, changing rates, and administration. The project task is to design the system by selecting 4-6 use cases and documenting requirements, design, and tests to allow a programmer to implement the selected functionality.
The document summarizes an assessment of electric vehicle charging platforms conducted by Accenture. Key findings include:
- Accenture interviewed 8 major EV charging platform vendors and assessed their capabilities across areas like fleet charging, managed charging, and technical services.
- Two vendors emerged as clear market leaders based on their more advanced capabilities compared to industry standards.
- Trends in platform development include a focus on scalability, smart charging capabilities, customized user portals, and integrated payment systems.
- Capabilities around billing, managed charging, core functions, and technical performance were particularly strong amongst vendors.
Odoo OpenERP 7 Fleet and Route Managementpragmatic123
A comprehensive web-based Fleet Management System module for Odoo OpenERP (FMS) is developed for fulfilling the business management needs of the Fleet & Transport industry. Its well Integrated & Modular architecture makes it apt for effective running of the Fleet & Transport business.
Odoo OpenERP's Fleet Management System integrates different functions in a transport company such as accounts, inventory, payroll, invoicing, insurance, asset management, vehicle maintainence, driver details, etc. Further, the system has a scope for customization according to client specific needs.
This document proposes an automated system for vehicle registration and traffic management using QR codes. The system has mobile applications for drivers, traffic police, and an admin website. Drivers can generate QR codes containing their license and vehicle details to show police instead of physical documents. Police can scan QR codes to retrieve information or search by vehicle number. The admin manages user and police registration and lost vehicle records. The system aims to simplify document checking for police and carrying documents for drivers.
IRJET- Smart Toll and Penalty Collection SystemIRJET Journal
This document proposes a smart toll and penalty collection system using QR codes. Currently, toll collection faces problems like long queues and traffic jams. The proposed system generates a unique QR code for each registered vehicle containing owner and vehicle details. Toll collectors can then quickly scan the QR code to automatically identify the vehicle and deduct toll fees. The system can also identify if a vehicle is stolen by checking a stolen vehicle database. The system further proposes that traffic police can scan QR codes using their mobile phones to easily collect penalties without additional hardware. This integrated system aims to make toll collection and penalty collection more efficient and reduce delays.
IRJET - IRCTC-Railway Ticket Generation using QR Code in AndroidIRJET Journal
The document proposes a system for generating railway tickets using QR codes on Android. It aims to allow passengers to obtain unreserved tickets without queuing by scanning QR codes on trains. The system would have a central database accessed via an API. Passengers could search for trains, scan QR codes to select ones, and pay to generate mobile tickets on their phones. This would reduce queues and paperwork compared to the existing manual process. The document outlines modules for administration, passenger management, train details, QR scanning, ticket booking and payment, and reports. It claims the new system would provide a more convenient ticketing process for both passengers and operators.
Everything that you need to know about an ELD Mandate.pptxCargaison express
The ELD Mandate has pushed forward a trend where Electronic tracking has become the standard of the trucking Industry. Although it might not have any alteration based on the work patterns that the commercial drivers follow, it does make the HOS laws easier to follow.
Thus it facilitates a stricter environment in the logistics industry. It is important to remember the ELD devices for trucks have been designed to protect the driver from any work abuse although it may seem tough at first to fully adopt.
NOW! ELMO case study: IT solution for the EV charging network of Estonia fro...Jarmo Tuisk
The document describes the requirements and features needed for an IT solution to manage electric vehicle charging services. It outlines the key steps in a customer's journey when using EV charging stations, including finding chargers, signing up for an account, starting and stopping charging sessions, paying for charging, and accessing usage history. It then provides details on the types of features an EV charging platform would need, such as asset management, customer relationship management, business logic for billing and pricing, and a user interface.
International Journal of Computational Engineering Research (IJCER) is dedicated to protecting personal information and will make every reasonable effort to handle collected information appropriately. All information collected, as well as related requests, will be handled as carefully and efficiently as possible in accordance with IJCER standards for integrity and objectivity
Smart Charging & the ChargeTO Pilot Slides from WebinarFleetCarma
Matt Stevens from FleetCarma presents the interim results from the ChargeTO pilot project.
This project includes active curtailment (smart-charging) of 30 EV owners’ vehicles in the city of Toronto.
The presentation will be followed by a Q&A.
Workplace Charging Best Practices (CALSTART) Detroit June 18 2013CALSTART
Dr Jasna Tomic gave this presentation at the Workplace Charging Workshop, an event co-hosted by CALSTART and NextEnergy in Detroit, MI June 18, 2013. For more information on workplace charging visit www.evworkplace.org
CALSTART Clean Transportation Technologies and Solutions
Optitax's updated sop on e way bill 30 jan 2018Nilesh Mahajan
Optitax's has prepared SOP on e-Way Bill implementation to help taxpayers to generate the eway bill. Further, we have explained legal provision also for ease of reference.
Hope this is helpful
IRJET- Efficient IoT based Automated Toll Collection SystemIRJET Journal
This document describes a proposed automated toll collection system using Internet of Things (IoT) technology. The system uses RFID tags attached to each vehicle to identify it as it passes through the toll plaza. An RFID reader scans the tag and verifies payment details stored in a database. If payment is verified, the toll amount is automatically deducted from the owner's account. Transaction details are sent via SMS to the owner's phone. The system aims to reduce traffic congestion and waiting times at toll plazas compared to manual systems. It allows for tracking of stolen vehicles and monitoring of vehicle movements.
This application allows users to access electronic versions of their driver's license and vehicle documents, and to pay traffic fines online. Police officers can use the app to look up vehicle details and register instances when rules are violated. It assumes both police and violators have smartphones with internet access. Benefits include not needing physical license/documents, viewing violation history, and making instant online payments without cash. Future enhancements could track stolen vehicles and integrate PUC certification, allowing the app to be used across states.
This document describes a portable electric vehicle charging station that is designed to be low-cost and compact to provide alternative charging options for electric vehicles. It can be easily plugged in anywhere and used by small shop owners to start an electric vehicle charging business. The portable charging station works with a solar power system to reduce dependence on the electric grid for charging electric vehicles. It aims to increase the number of charging stations available for electric vehicles.
Automotive Engine Valve Manufacturing Plant Project Report.pptxSmith Anderson
The report provides a complete roadmap for setting up an Automotive Engine Valve. It covers a comprehensive market overview to micro-level information such as unit operations involved, raw material requirements, utility requirements, infrastructure requirements, machinery and technology requirements, manpower requirements, packaging requirements, transportation requirements, etc.
2. By setting new goals related to the framework of
climate and energy policy and reducing CO2 emissions,
the need arose:
- to accelerate the introduction of infrastructure for alternative fuels
- for identification of alternative fuels infrastructure
- for providing information on the availability of such infrastructure in real-
time
- for making static and dynamic data available through Internet platforms
3. Current situation – number of electric vehicles and
chargers for EVs, growth rate
Croatia – 3.027 BEV cars and vans
EU – 2.100.532 BEV cars and vans
Croatia – 1.076 PHEV cars and vans
EU – 2.007.500 PHEV cars and vans
6. Scope of the IDACS project
• The Project Support Action „IDACS” has been set up by the European Commission to support Member States in setting up data
collecting for alternative fuels and making the data available through the National Access Points (NAP). Also, the goal was to
develop an effective EU-wide coordination mechanism to assign unique identification codes to charge point operators (CPOs) and
e-mobility service providers (EMSPs).
• The PSA had a duration of three and a half years (2019-2022), and its Consortium consisted of 15 Member States: Austria, Belgium,
Czech Republic, Croatia, France, Germany, Greece, Hungary, Lithuania, Luxembourg, The Netherlands, Poland, Portugal, Slovenia
and Spain.
7. Objectives and aim of IDACS Project
The objectives of PSA IDACS:
• to support better consumer awareness and buy-in to the use of alternative fuels through better information about the
location/availability of alternative fuel infrastructure;
• to support a structured market development through an EU-wide approach for the assignments of ID codes to e-mobility
actors
The aim was achieved in two phases:
Phase 1:
• establishment of a unique format and system for introducing ID codes for participants in the process of filling/supplying
alternative fuels in traffic
• establishment of IDRO, assignment and registration of ID codes for charging infrastructure operators (CPO ID codes) and
charging service providers (MSP ID codes) by IDRO, and establishment of a national register (repository) of issued ID codes;
• exchange of data (CPO ID codes and MSP ID codes) between the national registry and IDRR;
• registration procedure of EVSE ID codes and EMA ID codes through the IT system, which will be input data for NAP.
Phase 2:
• Establishment of a NAP, i.e. an accessible portal (platform) with high-quality and comprehensive static and dynamic data on
the filling/supply infrastructure for alternative fuels in real time (protocol/format translation, metadata preparation,
connection to a digital map, establishment of B2B, integration in NAP with static and dynamic traffic data in real time).
8. E-mobility Identification Codes (ID codes)
PURPUSE AND USAGE
• E-mobility ID codes are IDs with a national country code for Mobility Service Providers (MSP) and Charge Station Owners
(CSO) or Charge Point Operators (CPO).
• These unique IDs for organizations that manage charge stations or offer charge services to EV drivers are needed to identify
these organizations for international billing and data exchange.
• Issuing and managing codes for EV driver contracts and charging stations ensures that charging stations can be found
throughout Europe and that transactions for access and payment are reliable.
• The ID code consist of two parts: the first part to identify the CSO/CPO and MSP and the second part to identify the
individual recharging point and contract within these organizations.
• The IDRO (ID Registration Office) issues only the first 5 digits of - IDs for CSO/CPOs and MSPs, and the CSO/CPO and MSP
issue the second part to identify respectively the specific charge point (EVSE) or contract (EMA).
• The role of IDRO in the Republic of Croatia is performed by the CRO IDRO - unit within the Ministry of the Sea, Transport and
Infrastructure.
• For the CSO/CPO this total ID of part one and two is called EVSE-ID (Electric Vehicle Supply Equipment) and for the MSP this
is called the EMA-ID (Electric Mobility Account).They are conceived by CSO/CPOs and MSPs purely as identifiers.
Consequently, they are not meant to contain other information and should not be considered as marketing tools.
9. Example of EVSE ID
• Part one is the CPO code, issued by IDRO, which consists of the designation of the
country in which the code was issued and the indication of the CPO
• Part two consists of the character type identifier and charge point ID
10. Example of EMA ID
• Part one is the MSP code, issued by IDRO, which consists of the designation of the
country in which the code was issued and the indication of the MSP
• Part two consists of the character type identifier, contract ID and and check digit
11. IDRO and general rules
PURPOSE:
• The purpose of an ID Registration Office (IDRO) is to supply IDs with a national country code for
Mobility Service Providers (MSP) and Charge Point Operators (CPO).
• According to ISO 15118, each ID starts with a country code. Therefore, the countries are always
responsible for issuing these codes. However, it is possible that multiple countries outsource the
execution of the IDRO to a common organisation, whilst at the same time keeping the countries
responsible and accountable for their (own or outsourced) national IDROs.
• Issuing and managing codes for EV driver contracts and charging stations ensures that charging
stations can be found throughout Europe.
12. GENERAL RULES
For submitting and managing IDs there are several general rules that must be taken into account:
• MSPs and CPOs and/or location owners can request an ID when they have a proven legal entity. A legal entity is defined as a
natural or legal person. A location owner is defined as the entity who owns the charge points to be identified with the ID.
• A natural or legal person shall request its first ID in the country where they are legally based.
• A natural or legal person that requests an ID may be legally based in a different country than where the ID is requested.
• EVSE IDs (IDs for charge points) can be used in other countries, as it is only an identifier. Any laws or regulations that might be
applicable can be based on the country location of an EVSE and should not be based on the country code.
• A natural or legal person can request several IDs.
• Companies that are both MSP and CPO need 2 IDs: a provider ID for the MSP role and the identification of EV Driver contracts
and an operator ID for the CPO role to identify charge points. This can be the same string of characters, as the different purpose
of the code is specified via the ‘Type character’ in the codes. That string of characters must remain unique to the company. An
identical ID cannot be given to one EMP and another CPO belonging to different organizations.
• An ID Registration Organization may ask a cost covering fee to supply and maintain the codes; this can be a one-time fee and/or
yearly fee. ID Registration Organizations are free to do this as long as it is clearly mentioned to the applicant of an ID.
• Provider ID and Operator ID are only valid when published on the website of the ID Registration Organization website. Other IDs
may not be used.
• An ID code cannot be sold or transferred to third parties.
14. Recharging Pool
A recharging pool consists of one or
multiple recharging stations and the
accommodating parking lots. The
recharging pool is operated by one
charge point operator (CPO) at one
location/address and GPS coordinates.
Recharging Station
A Recharging Station is a physical
object with one or more recharging
points, sharing a common user
identification interface. All the
physical“human-machine” interfaces
are located at the recharging station.
Some recharging stations have a
badge/RFID reader, buttons,
displays, LEDs.
15. Recharging Point/Electric Vehicle Supply Equipment (EVSE)
The electric energy is delivered through a recharging point. A recharging point may have one or several connectors (outlets or
plugs) to accommodate different connector types. Only one can be used at the same time. A recharging point is defined by:
Recharging one vehicle at a time. In other words: per recharging station the number of recharging points and (dedicated)
parking spots are equal.
Connector
A connector is the physical interface between the recharging station and the electric vehicle through which the electric energy is
delivered:
• A plug on a cable (one side consists of a ‘male’ plug and the other side of the ‘female version’). The plug of one side of
the cable fits into the outlet of the recharging point and the plug on the other side of the cable fits into the inlet on the
vehicle.
• A plug attached on an inseparable cable of the recharging station (common for fast recharging stations). This plug fits
in the inlet of the vehicle.
• An induction plate.
• A pantograph.
17. National Acces Point (NAP)
Definition of NAP
In several delegated acts from the EU the National Access Points are defined in
different ways, but with the following common parts:
• a mechanism for accessing, exchanging and reusing transport-related data
• to establish a digital layer interlinking all of the elements of transport. Building
up this digital architecture involves open and common interfaces and an
efficient, but secure data eco-system
The establishment of NAP is essential; to facilitate access, easy exchange and reuse
of transport related data, in order to help support the provision of EU-wide
interoperable travel and traffic services to end users
18. Data sharing via NAP
The following data elements are shared with the electric charge point NAP :
• Static data:
– Location
• GNSS coordinates
• Address (street name, zip code, city,…)
– List of available charge-solutions (Power, Modes)
– List of available connectors (plugs, sockets, induction plate...)
– Opening hours, identification and payment methods,
– Contact info for owner/operator
– Full e-mobility code of the charging point (EVSE ID)
• Dynamic data:
– Availability (if the station is operational/ non-operational) and
– Occupation status (free, occupied)
– Price for ad-hoc charging
Slajd 3, 4 i 5 prikazuju trenutno stanje (broj) električnih vozila i broj punionica za električna vozila u Republici Hrvatskoj i EU.
Republika Hrvatska nema nacionalni sustav za prikupljanje podataka o infrastrukturi za alternativna goriva. Iz tog razloga je podnijela zahtjev za sudjelovanje u IDACS projektu.
Ovdje su pojašnjeni ciljevi projekta i faze u kojima su ti ciljevi ostvareni.
„IDRO” je nacionalno tijelo koje izdaje identifikacije kodove (u Republici Hrvatskoj to je CRO IDRO, jedinica unutar Ministarstva mora, prometa i infrastrukture).
„CPO” eng. Charging Point Operator odnosno operator mjesta za punjenje je subjekt odgovoran za upravljanje i rad mjesta za punjenje koji pruža uslugu punjenja krajnjim korisnicima, među ostalim u ime i za račun pružatelja usluga mobilnosti.
„MSP” eng. Mobility Service Provider odnosno pružatelj usluga mobilnosti je subjekt koji pruža usluge krajnjem korisniku u zamjenu za naknadu, uključujući prodaju usluge punjenja ili opskrbe.
„NAP” eng. National Acces Point odnosno Nacionalna pristupna točka je digitalno sučelje u kojemu su statički i dinamički podaci o infrastrukturi za alternativna goriva dostupni korisnicima za ponovnu uporabu.
„EVSE” eng. Electric Vehicle Supply Equipment odnosno mjesto za punjenje je fiksno ili mobilno sučelje koje omogućuje prijenos električne energije na električno vozilo koje može imati jedan ili više različitih priključaka te može puniti samo jedno električno vozilo istodobno, te isključuje uređaje izlazne snage manje od ili jednake 3,7 kW, uređaje koji su instalirani u privatnim kućanstvima i uređaje čija primarna svrha nije punjenje električnih vozila odnosno sučelje putem kojeg je moguće zamijeniti bateriju jednog električnog vozila.
„EMA” eng. E-Mobility Account” je pojedinačni ugovor o pružanju usluge e-punjenja koji specificira i identificira pojedinačni ugovor o usluzi e-punjenja.
„ID kod“ znači identifikacijski kod.
Ovo je primjer EVSE ID koda koji se sastoji od peteroznamenkastog CPO koda (koji izdaje CRO IDRO) i drugog dijela koji je u biti ID samog mjesta za punjenje.
Ovisno o tome što želimo identificirati, može se izdati kod za mjesto za punjenje (označava se slovom „E”), kod za punionicu (označava se slovom”S”) i kod za skup punionica (označava se slovom „P”).
Ovo je primjer EMA ID koda koji se sastoji od peteroznamenkastog MSP koda (koji izdaje CRO IDRO) i drugog dijela koji je u biti ID pojedinačnog ugovora o usluzi e-punjenja.
Ugovor vozača električnog vozila jasno pokazuje njihov eMA-ID koji je poput broja bankovnog računa. MSP će vozaču električnog vozila dodijeliti karticu za naplatu/token za naplatu koje će on koristiti na punionici. Kada se skenira na punionici prije punjenja, CPO može identificirati tko je kupac i s kojim MSP-om ima ugovor. Ugovor s kupcem vozača EV-a može biti povezan s nekoliko pojedinačnih kartica za naplatu/tokena za naplatu.
IDRO je jedinica unutar Ministarstva mora, prometa i infrastrukture koja je odgovorna za izdavanje ID kodova za CPO i MSP.
Ovo su opći uvjeti kojima moraju udovoljavati CPO i MSP, ako žele da im CRO IDRO izda CPO ili MSP ID kod. Dakle, oni se registriraju na web stranici CRO IDRO-a, bude im uručeno korisničko ime i lozinka, te nakon toga podnose zahtjev za izdavanje koda. Podnošenje zahtjeva i izdavanje kodova u RH je trenutno besplatno.
Za EU, Direktiva o infrastrukturi alternativnih goriva 2019/94/EU (AFID) trenutačno zahtijeva da sva mjesta za punjenje, u svrhu interoperabilnosti budu opremljena barem utičnicama ili konektorima za vozila Tip 2, Mennekes (za AC normalne i velike snage) i konektorima kombiniranog sustava punjenja, CCS/Combo 2 (za DC točke za punjenje velike snage).
Na slici gore su prikazani minimalni uvjeti opremljenosti konektorima sukladno Direktivi AFID.
Slika dolje prikazuje raspoložive konektore u različitim geografskim zonama.
NAP je u RH uspostavljen unutar Ministarstva mora, prometa i infrastrukture. Nakon što svaka punionica dobije svoj ID kod, može započeti proces slanja i primanja statičkih i dinamičkih podataka.
Oni moraju biti u Datex II formatu radi unifikacije unutar EU.
IDACS projektom je zadan minimum podataka koje je potrebno prikupljati i slati u NAP.
Ovo je primjer kako funkcionira sustav razmjene podataka putem NAP-a.