Forecast Model for Electromobile Loads at Stuttgart Airport and Fair

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Forecast Model for Electromobile Loads at Stuttgart Airport and Fair

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Transcription:

Forecast Model for Electromobile Loads at Stuttgart Airport and Fair 1 st E-Mobility Power System Integration Symposium Berlin, 23 rd October 2017 M.Sc. Henriette Triebke Mobility Concepts and Infrastructure Slide No. 1

1. Motivation I Airports and Fairs as electromobile hotspots world s largest parking facilities particularly affected by EV-mass-deployment A) International Airports B) International Fairgrounds Slide No. 2

1. Motivation II Scientific questions for Stuttgart Airport and Fair (1) Which maximum loads in kw arise from passengers, employees, exhibitors and visitors from 2017-2027? (2) Which daily energy turnovers in kwh/d can be expected within this time period? (3) Are there any essential peak-times over the day? (4) How does land-sided electromobility influence the site s overall energy consumption? Slide No. 3

2. Scientific Approach I Within the MATLAB environment in two steps: I. The mobility behaviour of each user group is reconstructed for half an year by means of site-specific data. Simplified modelling procedure for passengers: a) Airport user groups: passengers & employees b) Fair user groups: employees, visitors & exhibitors II. By means of probability factors, all trips are omitted which statistically do not result in a charging event. What are those probability factors? Slide No. 4

2. Scientific Approach II How many charging events result from an arriving plane? probability factor @2027 & contra EV ~1 out of 10,000 arriving passengers ~3 out of 10,000 arriving passengers Slide No. 5

3. General Assumptions Which parameters change with time? 1. Market share of electric vehicles 2. Battery capacity 3. plug-in probability of electric vehicles (EV) 4. Proportion of PHEV and full EV Other assumptions: Consideration of 36 full EV and 33 PHEV according to 1) EV consumption 20kWh/100km Constant mobility behaviour Static charging performances of 22kWAC and 50KWDC 1) https://www.greengear.de, last accessed 26.08.2017 Slide No. 6

4. Simulation Results I Maximum loads and daily energy turnover Stuttgart Airport much energy at moderate power rates Stuttgart Fair little energy at high power rates Power in kw 0.5 MW 2 MW 50 x per day 35 x per day Energy in kwh/d Slide No. 7

4. Simulation Results II Essential peak times and load shift potentials A) Stuttgart Airport ~0,5MW @2027, pro EV continuous operation good load shift potentials: passenger : employee 1 : 1 B) Stuttgart Fair ~2MW @2027, pro EV harsh peak time event-driven occupation limited load shift potentials: visitor : employee/exhibitor 6 : 1 Slide No. 8

4. Simulation Results III Airport Load vs. Electromobile Load @2027 Even in long-term, electromobile loads from passengers and employees will have no significant influence on the Airport s overall energy consumption and generation. Slide No. 9

4. Simulation Results III Fair Load vs. Electromobile Load @2027 Building load correlates strongly with the electromobile power peaks. Existing power network is already considerably stressed by major events; EV-deployment further aggravates this situation. Slide No. 10

5. Conclusion Summary and field of application Proof of Concept: For an optimistic EV market penetration of 20% by 2027, uncontrolled EV loads up to 0.5MW for Stuttgart Airport respectively 2MW for Stuttgart Fair can be expected! BUT: model did not account for (a) air-sided EV-deployment or (b) e-mobile taxis, buses, business fleets and delivery vehicles Necessity of public transport expansion Wide range of applications: infrastructure dimensioning & evaluation of grid-strengthening development of load management strategies economic and ecological assessments need for additional power generation capacities development of new billing systems Slide No. 11

Thank you for your attention! www.muse.iao.fraunhofer.de M.Sc. Henriette Triebke CT Mobility Concepts and Infrastructure Fraunhofer IAO, Stuttgart Phone : 0711 / 970 2161 henriette.triebke@iao.fraunhofer.de Elias Siehler Flughafen Stuttgart GmbH www.stuttgart-airport.com siehler@stuttgart-airport.com Elmar Stäbler Landesmesse Stuttgart GmbH www.messe-stuttgart.de elmar.staebler@messe-stuttgart.de Slide No. 12

Back-up I: General assumptions Airport loads Slide No. 13