BAG Grüne visiting H2M,

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Transcription:

BAG Grüne visiting H2M, 27.10.2017

Welcome, HSSE, Intro NW Delivery & Operations Wer ist H2 MOBILITY? Was ist der Platz von H2 in der Energiewende? Was sind die Kosten der Infrastruktur? Vergleich FCEV und BEV Diskussion

Welcome, HSSE, Intro NW Delivery & Operations Wer ist H2 MOBILITY? Was ist der Platz von H2 in der Energiewende? Was sind die Kosten der Infrastruktur? Vergleich FCEV und BEV Diskussion

THE FUTURE OF OUR ENERGY SYSTEM WILL BE SUNNY AND WINDY! 7 Working assumptions about the energy of the future The electrification of the energy system in Germany and the growth in renewable energy is an irreversible trend for decades to come. It will lead to at least 80% green electricity. The renewable electricity generation will be dominated by wind and solar. The electricity supply will become increasingly volatile!

AT 80% RENEWABLE ELECTRICITY THERE WILL BE A SIGNIFICANT RESIDUAL ENERGY OF AROUND 270 TWH Electricity surplus set to increase High residual energy generation thanks mainly to onshore (N-E) and offshore (N-W) wind At 80% green electricity, annual surplus can reach 270 TWh Note: 90 TWh will be enough to power half of the fleet in Germany with H2 (or 20 million FCEV) Residual energy MWh/km2 8 Source: Robinius, 2015

... AND EVEN THE PERFECT GRID WON T HELP The grid will not solve the problem! Even a perfect grid will reduce surplus by only 50 TWh from 270 to 220 TWh The wind doesn t (always) blow and the sun doesn t (always) shine when demand requires it Curtailment of renewable energy 9

Welcome, HSSE, Intro NW Delivery & Operations Wer ist H2 MOBILITY? Was ist der Platz von H2 in der Energiewende? Was sind die Kosten der Infrastruktur? Vergleich FCEV und BEV Diskussion

WHAT IS THE INVESTMENT REQUIRED TO FUEL OR CHARGE 20 MILLION EV S? We want to provide a solid foundation on which to discuss the cost of infrastructure! 11 Is the infrastructure for FCEVs expensive? What about BEVs? Available literature does not give us the answers we need! Comprehensive analysis of 79 existing studies with focus on Germany Assumptions behind the studies are mostly not provided or transparent General tendency: H2 infrastructure is seen to be expensive, no results for higher numbers of BEV so far

FIRST DOMINATED BY HOME CHARGING, WITH INCREASING NUMBERS OF CARS MOST INVESTMENT GOES TO GRID EXPANSION AND FAST CHARGERS x100,000 x2.8 mill x6,000 1,800 km x6,100* x81,000 28,000 km x55,000 x6,5 mill x175,000 183,000 km x187,000 x11 mill x245,000 12 *Transformer; the number in km is the necessary length of cable for expanding the distribution grid

FIRST DOMINATED BY REFUELLING INFRASTRACTURE, AT 3 MIO FCEV S AND BEYOND THE INVESTMENT IS DRIVEN BY PRODUCTION AND STORAGE 13 x42 x400 2 TWh* 3 GW x730 12,000 km x1,500 5 TWh 10 GW x1,500 12,000 km x3,800 10 TWh 19 GW x3,000 12,000 km x7,000 *in TWh: the required storage capacity in GW: the required size of electrolyzers

IN THE LONG RUN THE INVESTMENT IN CHARGING INFRASTRUCTURE WILL BE 11 BILLION HIGHER 14 billion 0.1 1 3 5 10 15 20 million EVs Sensitivity: Top // larger batteries with 100 kwh dominate in the long run (base case +100 kwh) Bottom // no fast charging at 350 kw in cities Top // base case +20% investment in stations Bottom // base case -20% investment in stations

THE COST FOR REFUELLING STATIONS IS LOWER THAN FOR CHARGERS ALREADY ABOVE 100.000 VEHICLES 100,000 EVs The cost of infrastructure is equivalent. 15 billion 1 million EVs No investment in electrolyser and storage yet (using existing methane steam reforming assets). The refuelling stations are cheaper than fast chargers and cables for 1 mill BEVs. 0.1 1 3 5 10 15 20 million EVs

THE INVESTMENT IN PRODUCTION AND STORAGE OF 100% GREEN HYDROGEN DRIVES THE INVESTMENT IN THE H2 INFRASTRCUTRE AT 3 MIO VEHICLES billion 3-10 million EVs Investment in 100% green hydrogen production from surplus electricity and storage. Relatively high investment due to low level of utilisation of assets. 16 0.1 1 3 5 10 15 20 Million EVs

THE SPEED OF THE REFUELLING PROCESS DRIVES THE ECONOMIES OF SCALE FOR HYDROGEN 17 The ultra-fast refuelling process drives the efficient use of the asset: ü ü Time efficiency: more efficient use of production and refuelling assets Economics: greater turnover per time unit

Welcome, HSSE, Intro NW Delivery & Operations Wer ist H2 MOBILITY? Was ist der Platz von H2 in der Energiewende? Was sind die Kosten der Infrastruktur? Vergleich FCEV und BEV Diskussion

FCEV BEV TIME TO REFILL 1 x10 W2W EFFICIECY 1 x2 WEIGHT 1 x100 INFRA COST SHORT TERM COST VALUE CREATION RESOURCE NEED CUSTOMER USABILITY ENERGY TRANSITION A FCEV is refueled at 3.000 kw, future fast chargers will have up to 350 kw. Energy efficiency of a BEV drivetrain including the battery is around twice as energy efficient as for FCEVs. However, this is under ideal conditions. In winter range of a BEV can be reduced by 40%, not for a FCEV. The energy content of 5 kg of hydrogen is 150 kwh. A battery pack with 100 kwh weighs 100 times more. Not considered here: tank, structures. Better economies of scale, slower increase of investment with number of vehicles (FCEV). Production and storage included, H2 infrastructure is 11 bn EUR lower than for BEV. Both affordable at 40-50 bn EUR for Germany. Batteries are affordable due to economies of scale (used in many applications like smartphones). FCs are still manufactured at much smaller scale. Hurdle to introduce high numbers of cars is lower for BEV. The number of parts manufactured in EU for FCEV is similar to ICE; for BEV more than 50% of value is the battery (automated, specialized, mostly from Asia). Current Lithium-Ion batteries need Kobalt (65% of reserves in Kongo, difficult conditions); FCEV need Platinum, not more than ICE drivetrain in next gen. Needs further investigation. Worldwide standard for refuelling (FCEV) vs. different global standards for charging and regional differences for handling/payment. H2 is a proven and affordable technology to store large amounts of energy; batteries can not store the surplus electricity in a 80%+ RE world. H2 can can help ensure supply security as well (today: natural gas as storage medium).

Welcome, HSSE, Intro NW Delivery & Operations Wer ist H2 MOBILITY? Was ist der Platz von H2 in der Energiewende? Was sind die Kosten der Infrastruktur? Vergleich FCEV vs. BEV Diskussion