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Guide for NRAs on International Mobile Roaming Cost analysis – Technical Paper 2.2.1 Business process modelling and MNO How do we cost the elements in the diagram above? (...) To overcome this, the concept of use cases is introduced to the analytic model. They may be seen as a sort of mini-scenario of typical basic use from the subscriber's viewpoint, not the MNO's. (...) Figure 2 – Two views of the same assets and their costs – MNO and subscriber views The basis of the cost model - USE CASES drawn from actual operational behaviour:- •To define the business processes, with staff and support infrastructure with its software / hardware •And therefore to identify the cost structures of international mobile roaming services with the elements, processes and resources concerned in each MNO Business Assets Use cases Roaming View Processes Subscriber Sales perspective Back office & Marketing Use case 4 & Finance Use case 3 Customer care Assets Use case 2 Billing required Receive call Use case 1 Network Make local ops call Costs of SCF Assets used Each activity may then be examined as to its needs, with attribution of the resources necessary, be they human resources, network elements and/or IT support systems, including the main MNO infrastructure elements such as data centres, call centres or network operations centres (NOCs).
Language:English
Score: 905122.9
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https://www.itu.int/wftp3/Publ...s/files/basic-html/page19.html
Data Source: un
Page 7 - 2016 Integrated management and disposal of electrical and electronic waste and used electrical and electronic equipment in Latin America
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Guide for NRAs on International Mobile Roaming Cost analysis – Technical Paper Executive summary At the International Mobile Roaming Workshop held at ITU on 23-24 September 2013, participants called for the ITU Telecommunication Standardization Sector (ITU-T) to take the lead in developing a coherent and transparent cost model for roaming for use by regulators. (...) Thus, today's consumer and industry context requires a cost model of mobile roaming to drive a general change in the industry's approach to the roaming question as a whole. The model attempts to answer the following question: Do the requirements for technical infrastructure necessarily cause roaming costs to be higher – and if so, by how much?
Language:English
Score: 905122.9
-
https://www.itu.int/wftp3/Publ...As/files/basic-html/page7.html
Data Source: un
イノベーションフェア 参加登録シート
2013 Annual Ministerial Review Innovation Fair
Brief Summary, Toyota City, Leading Environmental City, Japan
1 Name of the initiative; Programs by Toyota City to achieve a vibrant low-carbon society where everyone lives comfortably, without waste or laborious effort
2 Description of used methodology and strategies;
Toyota City, where the headquarters of Toyota Motor Corporation is located, was
selected by the Japanese government as an Eco-Model City in 2009, and is the site of programs conducted in collaboration among the residents, corporations, universities, and city government aimed at achieving a vibrant and sustainable low-carbon society in five areas: industry, transportation, forests, citizens, and downtown.
(...) City residents participate in these tests to ensure a consumer perspective.
Making use of the leading environmental technologies and systems that have been developed in this way, measures such as energy conservation, and peak shifts at times when power supply is strained by demand, have been enacted without placing any excessive burden on consumers.
Utilizing the 70% of the city area that is covered by forest, and with the participation of the city residents, we are constructing a model for interaction and coexistence between the city and farming and mountain villages, and are constructing an active regional society in cooperation with small and mid-sized companies in the city.
Through these programs, we are constructing next-generation energy and social systems that meet a broad range of local and national needs. (...) In addition to the use of low-carbon technologies from Toyota Motor Corporation and
other leading companies at local small and mid-sized companies, we are constructing a model for innovative development of new technologies and the application of these technologies in Japan and overseas.
4 What is innovative about this initiative; Through the use of leading environmental technologies, we are aiming for a 70%
reduction in carbon dioxide emissions from individual residences (compared to 2005 levels) without placing an excessive burden on the consumer.
We are connecting information from homes, schools, commercial facilities, and transportation in order to optimize energy use throughout the daily living environment.
In cooperation between the city and farming and mountain villages, we are constructing sustainable systems that can be applied globally not only in advanced nations but also in nations and regions where the infrastructure is growing and developing rapidly.
5 Evidence of results and impact; Already, smart devices and energy management have achieved reductions in carbon
dioxide emissions of approximately 70% and reductions in peak electrical power demand of 40% under certain conditions.
Observers from 60 countries have visited the Toyota City Low-Carbon Society Model District which serves as the showcase for the programs of the city.
6 Costs associated with the development and implementation of the activity; Expenses required for development: Approximately 25 billion yen (2010 – 2014) Steering organization: Toyota City Low-carbon Society Verification Promotion Council
(Chair: Toyota City, Vice chair: Toyota Motor Corporation, composed of 49 other organizations) (Women engineers and operators are an active part of these development and verification activities.)
7 Contact information; Model Environment City Promotion Division, Planning Department, Toyota City
TEL: +81-565-34-6982 hybrid-city@city.toyota.aichi.jp
( In cooperation between the city and farming and mountain villages, we are constructing sustainable systems that can be applied globally not only in advanced nations but also in nations and regions where the infrastructure is growing and developing r...
Language:English
Score: 905068.9
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https://www.un.org/en/ecosoc/i...vfair2013/docs/toyota_city.pdf
Data Source: un
In 1998, labels have been made mandatory for single-door models and
EGAT has expanded to include two-door models for voluntary labeling. ! (...) Rating for this applianceRating for this appliance
Type of appliance: Type of appliance: AirconAircon Size: X Size: X btubtu/hour/hour Produce name; modelProduce name; model EER EER btubtu/watt/watt Electricity price Electricity price bahtbaht/year/year Electricity use units/yearElectricity use units/year
Logos from EGAT, MEA, PEALogos from EGAT, MEA, PEA “we can work together and save energy”“we can work together and save energy”
OLD
“The label shows the efficiency of“The label shows the efficiency of the electric appliance”the electric appliance”
!" (...) 100% Market impacts for single-door models 100% Market impacts for single-door models (~80% (~80%
of total of total mktmkt)) !!
Language:English
Score: 904790.9
-
https://www.un.org/esa/sustdev...es/energy/op/clasp_egatppt.pdf
Data Source: un
Presentation UN seoul
PORTUGUESE ELECTRIC PORTUGUESE ELECTRIC
MOBILITY PROGRAM
SEOUL MARCH 17, 2010
PRESENTATION FOR UN FORUM ON CLIMATE CHANGE MITIGATION, FUEL EFFIENCY AND SUSTAINABLE URBAN TRANSPORT
TABLE OF CONTENTS
The Starting Point
Energy Strategy
Integrated Strategy Integrated Strategy
Electric Mobility Model
Conclusions
THE STARTING POINT THE NEED FOR A NEW PARADIGM
The starting point Energy: oil-based economy; increasing oil prices
(transportation accounts for 38% of final energy consumption per sector)
Environment: CO2 emissions (more than 34 % of CO2 emissions in Europe come from transport sector)(more than 34 % of CO2 emissions in Europe come from transport sector)
Productivity and quality of life: traffic congestion (10% of roads are daily congested; annual cost amounts to almost 2% GDP)
The future
New vision of mobility, new solutions and applications
Integrated systems (users–transportation–infrastructure–
territory)
THE STARTING POINT MOBILITY PROFILE IN THE MAIN URBAN AREAS IN PORTUGAL
130,000 daily courses with average 70% cars with single user and 23%
driver + 1 passenger
Greater Oporto population travels daily an average
distance of 12.5 km (one way)
37,991
42,523
12,621
46,884
826,000 vehicles enter or cross Lisbon daily
Average daily distance
travelled by car in Lisbon :
28 km (one way)
Source: Lisboa, O Desafio da Mobilidade (CM Lisboa)
Source: CMPorto
(one way) Between 7:30 a.m. and 9:30 a.m.
(...) Biomass, solar, wave,, biogas e microgeneration
Source: MEI; DGEG; REN
P o rt u g u e se e le c tr ic it y i n st a ll e d c a p a c it y p o rt fo li o ( M W )
2007
Hydro Wind Other renewables1 Fuel Coal Natural gas
7,7%7,7%
30,0%30,0%
30,1%30,1%
xx%xx% Technology share (in MW)
2020
Accounting for 60% of
the total electricity
consumption in
Portugal 34%34%
15%15%
15%15%
12%12%
20%20%
xx%xx% Technology share of renewables (in MW)
P e rc e n ta g e o f re n e w a b le e n e rg y i n t o ta l e n e rg y
d e m a n d b y 2 0 2 0 1
31%
This means that around 60% of electricity consumption will be generated from renewable
sources
ENERGY STRATEGY 2007-2020 OBJECTIVE : TO LEVEL WITH THE MOST AMBITIOUS RENEWABLES TARGET
IN THE EU27 (55% ABOVE EU27 AVERAGE)
P e rc e n ta g e o f re n e w a b le e n e rg y i n t o ta l e n e rg y
d e m a n d b y 2 0 2 0
Currently (2005) EU target by 2020
1. Including electricity consumption, fuel for transportation and different sources of primary energy used
by industrial and household heating and cooling applications
Source: MEI
EU27 average: 20%
CO2 emissions targets per capita in EU (2010)
ENERGY STRATEGY 2007-2020 OBJECTIVE :TO LEVEL WITH THE MOST AMBITIOUS CO2 TARGET PER
CAPITA IN THE EU
(24% BELOW EU15 AVERAGE)
EU15 average = 10.0
Luxemburg
Irland
Finland Germany
Belgium
Netherlands
Greece UK
Denmark
France
Italy
Sweden
Spain
Austria
Portugal
Source: European Commision; Eurostat
INTEGRATED STRATEGY RENEWABLES AND ELECTRIC CARS ARE COMPLEMENTARY MODELS
o With a modern electrical distribution infrastructure the main challenge lies
in vehicle and grid interface
o EVs widespread use will enable better dimensioning of the electricity
generation system and better accommodation of renewables production
o Focus on night-charging as well as on distributed generation based on wind o Focus on night-charging as well as on distributed generation based on wind
and PV solar power
INTEGRATED STRATEGY EV CAR PARK EVOLUTION FORECAST
100.000
120.000
140.000
160.000
180.000
E V
C a
r P
a rc
0
20.000
40.000
60.000
80.000
2010 2011 2012 2013 2014 2015 2016 2017 2018 2019 2020
E V
C a
r
Year
Year 2010 2011 2012 2013 2014 2015 2016 2017 2018 2019 2020
EV 1.000 5.000 9.000 15.000 27.500 39.000 54.000 68.500 100.000 120.000 200.000
Source: Inteli / Roland Berger Strategy Consultants
INTEGRATED STRATEGY TOWARDS SUSTAINABLE MOBILITY
CO2 EMISSIONS (MTON)
CURRENT 160 000 EV 20% PARC 50% PARC
-8 MTON/YEAR
17
9
13 11
MOBILITY INVOICE (M€)
PRIMARY ENERGY
CONSUMPTION (MTOE)
11 000
5 000
9 000 7 500
5.8
3.3
5.3 4.2
- 6 000 M€/YEAR
-2.5 MTOE/YEAR
Source: Inteli
INTEGRATED STRATEGY ECONOMIC IMPACT
R&D / ENGINEERING
TECHNOLOGICAL
DEVELOPMENT AND
QUALIFIED
EMPLOYMENT
3000 NEW JOBS
VALUE
VEHICLES
BATTERIES AND
POWERTRAINS
Target 2020
DEVELOPMENT AND
INNOVATION
STRUCTURAL
CONDITIONS
INVESTMENT
ATTRACTION
VALUE
500 M€ GVA
ECONOMIC ACTIVITY
1000 M€ BV
TECHNOLOGY AND
INNOVATION
50 M€ RD&I
INFORMATION
TECHNOLOGIES
ENERGY SYSTEMS AND
CHARGING NETOWRKS
BUSINESS AND SERVICE
MODEL€ Source: Inteli
INTEGRATED STRATEGY IMPACT ON THE ELECTRIC GRID
Driving to work
Energy
sale to
Driving
home
Energy
sale to
the grid
100%
B a
tt e
ry C
h a
rg e Power use of
an EV
3000
3500
4000
4500
5000
5500
LV P
o w
e r
(M W
)
01 02 03 04 05 06 07 08 09 10 11 12 13 14 15 16 17 18 19 21 21 22 23 00
Recharge throughout
the day, whenever the
grid is available
the grid
Recharging
at home
Source: Inteli, ERSE (2009)
0%
B a
tt e
ry C
h a
rg e
Power
consumption
during the
day in
Portugal (LV)
14000
16000
18000
20000
C o n su m p ti o n P o w e r LV
( M W )
INTEGRATED STRATEGY
IMPACT ON THE ELECTRIC GRID OF A GROWING EV PARK
• Extreme scenario: the EV park only charges simultaneously during the night
0
2000
4000
6000
8000
10000
12000
0:00 0:00 0:00 0:00 0:00 0:00 0:00 0:00 0:00 0:00 0:00
C o n su m p ti o n P o w e r LV
( M W )
Time
10-Dez-09 20% EV 50% EV Maximum Installed Capacity
• Renewables capacity targets are sufficient to accommodate EV introduction from an early stage
• Need for development of smart charging and smart grids together with Vehicle-to-Grid (V2G) for optimal grid loading
Source: Inteli, ERSE (2009)
00 01 02 03 04 05 06 07 08 09 10 11 12 13 14 15 16 17 18 19 20 21 22 23
PRODUCER X
ELECTRIC MOBILITY PROGRAM THE MANAGING ENTITY: INTEGRATION BETWEEN MULTIPLE STAKEHOLDERS
OPERATOR A OPERATOR B
PUBLIC NETWORK
PRODUCER Y
DISTRIBUTION
PRODUCER X
USER
Energy Flow
kWh
RETAILER A
RETAILER B
MANAGING
ENTITY
Consumption Integration
Services Integration
Transactions Management
Operators and Retailers intermediation and integration Financial flow Information
4
1 52
3
6
1 Prepaid packages subscription Authentication
2 Services invoicing(postpaid) Integrated invoicing
3 Electricity (to be integrated in the final invoice)
4 MANAGEMENT ENTITY system access fee
5 Consumption Metering for operators and retailers Related services accounting
EGMOBI.E system access fee
6 Charging Service payment (to be integrated in the final invoice)
OPERATOR C
FINAL MESSAGE MAIN CONCLUSIONS
This model framework ensures a unique, open and universal user centered charging network, which induces synergetic relations between the different market agents
Electric Mobility will be a complementary added value to a wide range of Electric Mobility will be a complementary added value to a wide range of
companies’ core businesses, for example : Electricity retail, Vehicle retail ,
Energy services, Parking, Financial services
Major effort lies in the mobilization of upstream and downstream companies
across the value chain for the joint optimization of resources:
1 - Business agents (retail and operation) developing innovative business solutions, which can be both profitable and achieve international recognition
2 - Companies and R&D Institutions through the development, design and production of
innovative technological solutions of high export potential
CHALLENGES
THINKING ABOUT…
CITIES ENERGY NETWORKS
TECHNOLOGY
SOLUTIONS
THANK
YOU
Language:English
Score: 903169.5
-
https://www.un.org/esa/dsd/sus...m0310/presentation_Pacheco.pdf
Data Source: un
Along with another eight schools, it will become a model for some 405 schools in the southern provinces of Helmand, Kandahar, Urozgan and Zabul.
(...) Through the UNICEF-supported Child-Friendly School model, pilot schools received solar panels and back-up batteries that have powered up their computer labs.
(...) Before launching the programme in the model schools, teachers were trained and assessed on CFS methodology and other aspects of the programme.
Language:English
Score: 902677.9
-
https://www.unicef.org/afghani...gital-divide-students-kandahar
Data Source: un
Technology Interplay under Carbon Neutrality Concept | UNECE
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Technology Interplay under Carbon Neutrality Concept
This activity builds on the Carbon Neutrality Framework and developed Technology Briefs under the scope of Carbon Neutrality project. A series of dialogues are planned with wider stakeholder community and modelling institutions to refine data and technology assumptions, assess contribution of different technologies to attain carbon neutrality and develop policy guidelines for low-carbon technologies.
(...) Launch
Presentations & Recordings
Task Force Call 1
Preliminary data from MESSAGE Model - IIASA
Life Cycle Assessment of Selected Technologies - LIST
Consultations 1
Introduction to MESSAGE Model - IIASA
Preliminary data for Central Asia
Preliminary data for Belarus, Moldova and Ukraine
Preliminary data for South East Europe
Technology deep dives
Preliminary results on Life Cycle Assessment - LIST
Task Force Call 2
Refined data - Scenarios - MESSAGE - IIASA Refined data - Life Cycle Assessment - LIST Communicating data - Technology Interplay - UNECE
Consultations 2
Preliminary final results - MESSAGE - IIASA Preliminary final results - Life Cycle Assessment - LIST
Drafts
Final Draft - Life cycle assessment of electricity generation options Advanced Draft - Technology Interplay under Carbon Neutrality Concept
ABOUT UNECE
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Contact us
Language:English
Score: 901574.3
-
https://unece.org/sustainable-...nder-carbon-neutrality-concept
Data Source: un
COMMUNITIES OPERATE ON THE FOLLOWING PRINCIPLES
• Voluntary and open membership • Democratic control by members • Economic participation of members • Independence • Education, training and information • Cooperation between communities • Community care
PROJECT PROPOSAL
Development of residential energy communities
Assessment of the existing barriers
• Legal support - Amendments to the Energy Law, Law on communities and relevant
bylaws
- Introduction of feed-in tariff and guaranteed purchase of the produced electricity
• Financial support (feed-in tarff, grants, subsidies)
• Administrative support
One-stop shop for submitting and issuance of relevant documents, (preferable online)
MODEL OF ENERGY COMMUNITY
Step 1: Minimum 10 citizens (submit their initiative to the Council of the municipality)
Step 2: Decision of the Council of the municipality
Step 3: Establishment of the energy community by public call- (possible installed capacity, expected annual electricity production, decrease of CO2, investment cost and expected income)
Step 4: Establishment of assembly of subcontractors
Step 5: Election of president of the community, supervisory board and secretary
MODEL OF ENERGY COMMUNITY (ROOFTOP PV PLANT ON RESIDENTIAL BUILDING)
Maximum installed capacity 133,33 kW
Expected annual electricity production
154,13 MWh
Total investment (500 eur/kW) 66.665,00 €
Feed in tariff 70,00 €/MWh
Expected annual income 10.789,06 €
Cost for maintenance 1.078,91 €
Reserved assets – 5% 539,45 €
Income to be shared among members
9.170,70 €
Inflation rate 3,5 %
Number of apartments 55
Share of each member 1.212,09 €
Annual income by members 166,74 €
BENEFITS
Social Environmental Economic
Creating managerial and technical skills in the local community
Decrease of the greenhouse gas emissions
division of the investment risk among the members of the community
Creating new jobs (maintenance, installation and production)
Improvement of the environment (better energy efficiency of the buildings)
Investment in project that increase the development of the community
increase the sense of belonging in the community
Savings on electricity cost
opportunity to invest profits in new energy efficiency measures
THANK YOU FOR YOUR ATTENTION
magdalena.bilbilovska@economy.gov.mk
katerina.bilbiloska@economy.gov.mk
natasa.stefanoska@ea.gov.mk
stanislava.kitanovska@ea.gov.mk
mailto:katerina.bilbiloska@economy.gov.mk
mailto:natasa.stefanoska@ea.gov.mk
Republic of North Macedonia
DIRECTIVE (EU) 2018/2001 on the promotion of the use of energy from renewable sources (recast)
Definition of the term “ renewable energy communities”
Communities operate on the following principles
Project proposal
Model of energy community
Model of Energy Community(rooftop PV plant on residential building)
Benefits
Thank you for your attention
Language:English
Score: 900049
-
https://unece.org/sites/defaul...21-12/North-Macedonia_proj.pdf
Data Source: un
Electric and Hybrid Aircraft Platform for Innovation (E-HAPI)
You may be trying to access this site from a secured browser on the server. (...) Conflict Zones Risk Information
ICAO / Environmental Protection / Electric and Hybrid Aircraft Platform for Innovation (E-HAPI)
Home
Scientific Understanding
Environmental Trends
Technology Goals & Standards
Aircraft Noise
Trends
Technology Goals
Technology Standards (Reduction of noise at source)
Land Use Planning and Management
Noise Abatement Procedures
Operating Restrictions
Noise from new aircraft concepts
Local Air Quality
Trends
Technology Goals
Technology Standards
Guidance on Airport Air Quality
Climate Change
Feasibility of a long-term global aspirational goal
Trends
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CORSIA
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ICAO-EU Project -Phase II
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Electric and Hybrid Aircraft Platform for Innovation (E-HAPI)
Resume
Page Content
A consistent increase is happening in the electrification of aircraft systems, research on electrical propulsion, and investments in electric or hybrid aircraft designs. (...) Details on these electric and hybrid aircraft projects are provided in the following dashboard.
Language:English
Score: 899200
-
https://www.icao.int/environme...n/Pages/electric-aircraft.aspx
Data Source: un
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Guide for NRAs on International Mobile Roaming Cost analysis – Technical Paper 2.2 The key principles for the roaming model For the roaming model, we are most interested in the incremental cost of carrying additional calls for roaming in and out of the home and visited country, in terms of impacts on the MNO cost base in two areas, as these are the basic cost items: a) Additional load on facilities and support infrastructure due to roaming traffic; this includes the infrastructure of at least two MNOs, and perhaps a third and/or a fixed (line) network operator (FNO), especially for long distance (LD) carriage. b) Additional load on the business processes to handle roaming – from reception of visiting subscribers to their exit, for both MNOs and for any other operators. (...) The overall cost structure for the roaming business model is illustrated below with the infrastructure's (incremental) costs over domestic operations plus the wholesale agreement charges as shown below in Figure 1.
Language:English
Score: 899094.9
-
https://www.itu.int/wftp3/Publ...s/files/basic-html/page18.html
Data Source: un