the power of charging staons: smart systems for the future

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The Power of Charging Sta1ons: Smart Systems for the Future April 19, 2016 Hosted by Charlo(e Argue, Program Manager, Climate Change & Air Quality [email protected]

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Page 1: The Power of Charging Staons: Smart Systems for the Future

ThePowerofChargingSta1ons:SmartSystemsfortheFuture

April19,2016

Hostedby

Charlo(eArgue,ProgramManager,ClimateChange&[email protected]

Page 2: The Power of Charging Staons: Smart Systems for the Future

2

Today’sSpeakers

•  JeffTurner,EngineerElectricVehicles,PowerTechLabs•  ClayHowey,ResearchHead,SmartMicro-gridApplied

ResearchTeam,BCInsMtuteofTechnology

Page 3: The Power of Charging Staons: Smart Systems for the Future

3

WhatisWestCoastElectricFleets?

Page 4: The Power of Charging Staons: Smart Systems for the Future

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WestCoastElectricFleetsimplementstheZeroEmissionVehicle(ZEV)commitmentinthePacificCoastAc1onPlanonClimateandEnergy

Page 5: The Power of Charging Staons: Smart Systems for the Future

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ProvinceofBC,BCCityofVancouver,BCDistrictofSaanich,BCBCHydro,BCCityofSurrey,BCCurrentTaxi,BCComoxValleyRegionalDistrict,BCFraserValleyRegionalDistrict,BCGeaZone,BCOnsiteEquipment,BCWADeptCommerceWADeptTransportaMonWADeptEnterpriseSvcsCityofOlympia,WACityofSea(le,WAPugetSoundCleanAirAgency,WAKingCounty,WA

StateofORFleetsCityofPortland,ORLaneCounty,ORCityofAshland,ORLaneRegionalAirProtecMonAgency,ORCMTSLLC,ORStateofCaliforniaPublicFleets,CACityofSantaAna,CALADWP,CACityofSanDiego,CACityofSanFrancisco,CACityofLosAngeles,CAOaklandPublicWorks,CAPasadenaWaterandPower,CACityofSacramento,CAAntelopeValleyTrans,CA

30+PartnerFleets!

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Three-TieredCommitment•  On-Ramp:CommittoevaluateZEVs

aspartofeveryfleetpurchaseandrevisitcommitmentannually

•  Highway:Committoprocuringat

least3%ofZEVsforallnewfleetpurchasesbytheendof2016andrevisitthepledgeannually

•  ExpressLane:Committo

procuringatleast10%ZEVsforallnewfleetvehiclepurchasesbytheendof2016

BecomeaFleetPartner

Page 7: The Power of Charging Staons: Smart Systems for the Future

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TheToolkit•  TargetAudience

•  Fleetmanagers,sustainabilityofficers,etc.•  Privatecompaniesalongwithmunicipalandstategovernments

•  SiteNeeds•  CollectandorganizeinformaMononZEVsfromacrosstheinternet

•  Buildaone-stop-shopforZEVstargetedatpublicandprivatefleets

•  A(racMve,moderninterface•  AccommodatevisitorshavingvariedexperiencewithZEVs•  EnablevisitorstofindtheirinformaMonveryquickly

www.Westcoastelectricfleets.com

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WestCoastElectricFleetsPartnerFleetProfiles

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WestCoastElectricFleetsPeerNetworkandWebinarSeries

FeaturedfleetsinpastwebinarsincludedtheCityofSea(le;WSDOT;CityofSurrey,BC;FoothillTransit;AntelopeValleyTransit;CaliforniaDGS;LADWP;andtheEnergySecureCiMesCoaliMon

EVs:BarriersandSoluMons

IntegraMngZEVsintoFleets

CompleteFleetConversions

ZEVBusesinTransitFleets

2015WebinarThemes 2016WebinarThemesBusinessCaseforPublicFleets

ChargingInfrastructure

…STAYTUNED!

Page 10: The Power of Charging Staons: Smart Systems for the Future

10

JoinUs!

SignthePledge!ExploretheToolkit!www.westcoastelectricfleets.comQues1ons?ContactCharlo`[email protected]

Page 11: The Power of Charging Staons: Smart Systems for the Future

BCEVSmartInfrastructureProject:SmartChargingSoluMons

•  JeffTurner,ElectricVehiclesandEnergySystems•  April2016

Page 12: The Power of Charging Staons: Smart Systems for the Future

We offer a one-stop-shop approach for businesses that require technical engineering expertise, standards and code testing, as well as quality testing and failure analysis services. Powertech is a subsidiary of BC Hydro. We provide specialized testing and investigation services to support BC Hydro's capital assets: generation, transmission and distribution

Powertech Labs Inc. is a multidisciplinary testing, research and development facility.

Page 13: The Power of Charging Staons: Smart Systems for the Future

Powertech combines an expert, responsive team of 120 engineers, scientists and technologists & 21 advanced labs

Page 14: The Power of Charging Staons: Smart Systems for the Future

Smart Utility Technologies

Pole Yard DA/DO Test Facility

WAN technologies IED and Control System

Page 15: The Power of Charging Staons: Smart Systems for the Future

Smart Utility Technologies

Critical Infrastructure Comms

Connected Devices

Multi-service Mesh and FAN

Page 16: The Power of Charging Staons: Smart Systems for the Future

Electric Vehicles and Energy Systems

WesupporttherapidlyexpandingEVmarketbyprovidingengineeringandconsulMngservicestobothlocalandglobalclientele.WeareleadingexpertsinallaspectsofEVtechnologies,frominfrastructureandsmartgridintegraMon,throughtofleetdeploymentsandcomponenttesMng.

Page 17: The Power of Charging Staons: Smart Systems for the Future

PowertechEVServices

Grid-Interoperability/SmartGridGrid-Interoperability/SmartGrid

EVandInfrastructureConsul1ng

Grid-Interoperability/SmartGrid

EVFleetSupport

DCFCCri1calInfrastructure

Commercial/RetailEVSEProjects

Community/MunicipalityEVSEProjects

Page 18: The Power of Charging Staons: Smart Systems for the Future

Types of vehicles GraphicfromElectricPowerResearchInsMtute:et.epri.com

or“PureElectricVehicle”,or“Ba(eryElectricVehicle”(BEV)

SomeMmescalled“Plug-inElectricVehicles”(PEVs),orsimplyElectricVehicles(EVs)

SomeMmescalled“ElectrifiedVehicles”

Page 19: The Power of Charging Staons: Smart Systems for the Future

ElectrifiedVehicles

HEVs(≠EVs) EVs(orPEVs)

BEVs(orEVs) PHEVs

EREVs

FCEVs

Categoriza1onofelectrifiedvehicles;electricvehiclesarehighlightedinred.

Types of vehicles

Page 20: The Power of Charging Staons: Smart Systems for the Future

Example BEVs NissanLEAF-US$29,860Type:BEVBa`ery:24-30kWhElectricRange:117km–170kmChargingPower:6.6kWAC,50kWDCChargingTime:4hAC,30minDCTeslaModelS–US$71,200–$106,200Type:BEVBa`ery:70kWhor90kWhElectricRange:335kmor426kmChargingPower:10kWor20kWAC,120kWDCChargingTime:4-8hAC,1-2hDC

Volkswagene-Golf-US$29,815Type:BEVBa`ery:24.2kWhElectricRange:134kmChargingPower:7.2kW,50kWDCChargingTime:4h,30minDC

Examples of BEVs

Page 21: The Power of Charging Staons: Smart Systems for the Future

Example PHEVs ChevroletVolt-US$33,995Type:PHEVor“EREV”–“ExtendedRange”EVBa`ery:17kWhElectricRange:80kmGasmode:5.5L/100km,610kmtotalrangeChargingPower:3.6kWChargingTime:4hBMWi3–US$43,395Type:BEV,“BEVx”withopMonalrangeextenderBa`ery:18.8kWhElectricRange:130kmGasmode:6L/100km,240kmtotalrangeChargingPower:7.4kW,50kWDCChargingTime:3h,30minDCToyotaPriusPHV-$35,700(updatedPriusPrimecomingsoon…)Type:PHEVBa`ery:4.4kWhElectricRange:18km(blended–burnssomegas!)Gasmode:4.7L/100km,870kmtotalrangeChargingPower:3.3kWChargingTime:1.5h

Examples of PHEVs

Page 22: The Power of Charging Staons: Smart Systems for the Future

Example PHEVs Upcoming trend: Affordable 200-mile range EVs

•  ChevyBolt(Pictured,late2016):200miles,$37,500US•  TeslaModel3(late2017):200miles,$35,000US•  2ndGenNissanLeaf(late2017):150-200miles,nopricingannounced

Page 23: The Power of Charging Staons: Smart Systems for the Future

Example PHEVs Upcoming trend: Larger plug-in vehicles

MitsubishiOutlanderPHEV

MercedesGLEPHEV

ChryslerPacificaPHEV

TeslaModelXBEV

PorscheCayenneeHybridPHEV

VolvoXC90T8PHEV

Page 24: The Power of Charging Staons: Smart Systems for the Future

Commercial EVs

EVIBEVStepVanNissane-NV200BEVVanVIAMotorsVTRUXPHEVs

SmithElectricBEVTruck

NOVAbusBEVBus

ProterraBEVBus

OdynePHEVBucketTruck

Page 25: The Power of Charging Staons: Smart Systems for the Future

ACLevel1(120V):1-1.9kW~7.5km/hour12+hoursACLevel2(240V):3.3kWto20kW15–100km/hour~4-8hoursDCFastCharging25kWto150kW125–500+km/hour~20-45minutesto80%

Chargingratesdependonthecapabili1esofboththechargingsta1onandtheEV

Charging equipment

Page 26: The Power of Charging Staons: Smart Systems for the Future

BC Electric Vehicle Smart Infrastructure Project

970Level2EVSEs•  240V,3.3kW–18kW•  200SingleFamilyDwellings•  200MulMUnitBuildings•  570PublicSpaces

At-HomeandOn-the-Go

Page 27: The Power of Charging Staons: Smart Systems for the Future

BC Electric Vehicle Smart Infrastructure Project

970Level2EVSEs•  240V,3.3kW–18kW•  200SingleFamilyDwellings•  200MulMUnitBuildings•  570PublicSpaces

30DCFCSta1ons•  50kW,30mincharge•  PacificCoastCollaboraMve•  Planningframework•  BusinessmodelsevaluaMon

DCFastChargeCriMcalInfrastructure

At-HomeandOn-the-Go

Page 28: The Power of Charging Staons: Smart Systems for the Future

BC Public Charging Stations

www.chargehub.com

Page 29: The Power of Charging Staons: Smart Systems for the Future

Example DCFC Station Surrey Museum

Page 30: The Power of Charging Staons: Smart Systems for the Future

Powertech EV Technology Park

Page 31: The Power of Charging Staons: Smart Systems for the Future

BC DC Fast Charge Stations

Page 32: The Power of Charging Staons: Smart Systems for the Future

BC Electric Vehicle Smart Infrastructure Project

970Level2EVSEs•  240V,3.3kW–18kW•  200SingleFamilyDwellings•  200MulMUnitBuildings•  570PublicSpaces

Ini1a1ves•  evCloud•  Grid-Aware•  Smart-Charging•  DemonstraMons•  UMlityroadmaps

30DCFCSta1ons•  25-50kW,30mincharge•  PacificCoastCollaboraMve•  Planningframework•  BusinessmodelsevaluaMon

SmartGridDCFastCharge

CriMcalInfrastructureAt-HomeandOn-the-Go

EV EVSE

FieldAreaNetwork

UtilityConnectivity

Utility

ServiceInterfaceInternet

Page 33: The Power of Charging Staons: Smart Systems for the Future
Page 34: The Power of Charging Staons: Smart Systems for the Future

ImpactsofEVchargingonelectricalinfrastructure

SOURCE: BC Hydro Distribution Planning; Energy Planning; EPRI; team analysis

Residential charging•  6 kW charging increases residential peak by 155%•  High adoption areas will have 5% adoption in 2015,

50% in 2030

Distribution transformers•  Aging assets – ~70% over 20 years old•  22% already experience peak loads over rated

capacity •  Will have 5-10 kW sustained additional load in 2015

(1-2 EVs), 40 kW in 2030 (6-8 EVs) per transformer •  Substantial risk of increased failures•  Larger equipment sizing required

Generation and transmission•  Additional 60 MW peak load by 2015, 890 MW by

2030•  4,000 GWh of additional energy load by 2030•  Peak mitigation planning required•  Longer term need for additional peak and energy

capacity or DSM

Substations•  26% of substations currently experience

peak loads over 90% of firm capacity, including many in high adoption areas

•  Sustained peak EV charging load per substation of 2-10 MW by 2015, 20+ MW by 2030

•  Accelerates requirement for load transfers and capacity expansions

Page 35: The Power of Charging Staons: Smart Systems for the Future

BC EVSI Smart Charging

Communications Options

Page 36: The Power of Charging Staons: Smart Systems for the Future

BC EVSI Smart Charging

Communications Options

UtilityInterface

Transport

UtilityBack-Office

NetworkDevice

Back-OfficeApplications

SMIHead-EndCollectionEngine

UtilityWebServer

MultipleCommunicationsPathways

Internet

HAN

EVCloud(dataportal)

EVCloudWebPortal

DirectB2BUtilityEnterpriseServiceBus(ESB

EVSPTelematics

SMI

Page 37: The Power of Charging Staons: Smart Systems for the Future

The Powertech EV Tech Park provides an environment for testing new EV charging technologies, supporting communications through both internet-based pathways as well as direct pathways through utility-owned Smart Metering Infrastructure

Smart Utility Lab EV Technology Park

Page 38: The Power of Charging Staons: Smart Systems for the Future

SmartCharging–MinimizingGridImpacts

0

1

2

3

4

5

6

7

3:30:00PM 5:30:00PM 7:30:00PM 9:30:00PM 11:30:00PM 1:30:00AM 3:30:00AM 5:30:00AM 7:30:00AM

ChargingPow

er(k

W)

NissanLeaf-OvernightChargewithmul1pleDLCevents

Startofcharge

Loadcontrol:0kW Loadcontrol:1.5kW

Unrestricted

Loadcontrol:0kW

Fullcharge

Unrestricted

Page 39: The Power of Charging Staons: Smart Systems for the Future

SOURCE: BC Hydro Distribution Planning; Energy Planning; EPRI; team analysis

Customer-side electrical constraints:Not all smart charging use cases require bi-directional utility communications.

•  Maximize use of available electrical capacity

•  Minimize utility demand charges based on peak demand

ImpactsofEVchargingonelectricalinfrastructure

Page 40: The Power of Charging Staons: Smart Systems for the Future

BC EVSI Smart Charging

Communications Options

UtilityInterface

Transport

UtilityBack-Office

NetworkDevice

Back-OfficeApplications

SMIHead-EndCollectionEngine

UtilityWebServer

MultipleCommunicationsPathways

Internet

HAN

EVCloud(dataportal)

EVCloudWebPortal

DirectB2BUtilityEnterpriseServiceBus(ESB

EVSPTelematics

SMI

Page 41: The Power of Charging Staons: Smart Systems for the Future

BC EVSI Smart Grid Initiatives

Page 42: The Power of Charging Staons: Smart Systems for the Future

BC EVSI Smart Grid Initiatives

Page 43: The Power of Charging Staons: Smart Systems for the Future

EVSI Demo Site: BC Hydro’s Edmonds Complex

Page 44: The Power of Charging Staons: Smart Systems for the Future

CoRe+EVSI Demo Site: BC Hydro’s Edmonds Complex

Page 45: The Power of Charging Staons: Smart Systems for the Future

500.00

550.00

600.00

650.00

700.00

750.00

800.00

850.00

900.00

Sunday00:00 Monday00:00 Tuesday00:00 Wednesday00:00 Thursday00:00 Friday00:00 Saturday00:00 Sunday00:00

OverallbuildingloadinkW

EVSI Demo Site: BC Hydro’s Edmonds Complex

Page 46: The Power of Charging Staons: Smart Systems for the Future

EVSI Demo Site: BC Hydro’s Edmonds Facility

PowerSharing•  Shareslimitedelectricalcapacity

acrossagreaternumberofchargingstaMons

PowerLimiMng•  Limitschargingpoweraccordingto

MmeofdayorinrealMmebasedonavailablecapacity

•  Minimizesdemandcharges

CoRe+

Page 47: The Power of Charging Staons: Smart Systems for the Future

EVSI Demo Site: University of British Columbia

Page 48: The Power of Charging Staons: Smart Systems for the Future

EVSI Demo Site: University of British Columbia

API

SmartChargingPlatform

CrossChasm

OpenADR

UtilityBackOffice

EVSEAggregator

ChargePoint,AddEnergie,etc.

EVSE EVSEEVSEFleetEV

FleetManager

VehicleDataLogger

FleetCarmaSmartChargingPlazorm•  Incorporatesvehicle-sidedatato

opMmizesmartchargingdecisionsaccordingtovehicleanddriverneeds

•  CompaMblewithAddEnergieandChargePointstaMons

•  OpenADRinterfaceforbi-direcMonaluMlitycommunicaMons

Page 49: The Power of Charging Staons: Smart Systems for the Future

The Powertech EV Tech Park provides an environment for testing new EV charging technologies, supporting communications through both internet-based pathways as well as direct pathways through utility-owned Smart Metering Infrastructure

Smart Utility Lab EV Technology Park

Page 50: The Power of Charging Staons: Smart Systems for the Future

Thank You!

JeffTurner,[email protected]

Page 51: The Power of Charging Staons: Smart Systems for the Future

APPLIED RESEARCHSMART MICROGRID APPLIED RESEARCH TEAM (SMART)

CLAY HOWEY

Page 52: The Power of Charging Staons: Smart Systems for the Future

What we do.

Research and develop solutions to problems in: Smart Microgrids Critical Infrastructure Security Information Technology

Page 53: The Power of Charging Staons: Smart Systems for the Future

How we interact with industry:

BC Hydro is a strategic partner in our Smart Microgrid research

OASIS project involves partnerships with Siemens, Panasonic, Schneider Electric, enCompass, PowerTech Labs

NSMG-Net involves BC Hydro, Hydro One, Hydro Quebec, EION Wireless, Schneider Electric

Provide a vendor-agnostic test bed for smart grid technologies

IT firms directly contract R&D services to create solutions that yield competitive advantages

10 research staff dedicated full time to R&D projects

Page 54: The Power of Charging Staons: Smart Systems for the Future

How we interact with students:

Currently have 2 McGill PhD Candidates (Elec Eng), 1 UofAMasters student (Elec Eng)

In recent past had 1 BCIT B. Eng(Elec Eng), 1 SFU PhD Candidate, 1 UBC PhD & 1 SFU Masters Candidates

Have had numerous BCIT Diploma, B. Tech, and B. Eng students on variety of projects

Via our NSERC Smart MicrogridNetwork (NSMG-Net), we involve students from McGill, U of Toronto, UBC, U of Manitoba, U of Waterloo, U of New Brunswick, U of Alberta, U of Western Ontario

Page 55: The Power of Charging Staons: Smart Systems for the Future

Featured Project - OASIS

Project to build a 250 kW solar canopy over a parking lot

40’ container houses 500 kWh Li-Ion Battery Energy Storage System (BESS)

Powers two DC Fast Charge, six Level 2, and two Level 1 Electric Vehicle Charging Stations, LED parking lot lighting

Page 56: The Power of Charging Staons: Smart Systems for the Future

OASIS Project continued…

System is “islandable”, meaning it can disconnect, and reconnect to the grid

System can backfeedsurplus energy to the grid

Project demonstrates state of the art solar technology coupled with energy storage, and the direct displacement of CO2 emissions related to transportation

Page 57: The Power of Charging Staons: Smart Systems for the Future

OASIS Project continued…

EV drivers can make reservations

System can deliver power based on availability of solar energy, and destination of EV driver

Advanced generation and load forecasting system from Siemens

Mitigation of EV charging on grid load

Mobile APP

7

Kiosk

Page 58: The Power of Charging Staons: Smart Systems for the Future

What is the Problem?

We have adequate generation and transmission capacity in BC to electrify fleet

Distribution, however, is another story

If many EVs plug in simultaneously, distribution transformers and feeders may become overloaded

“Demand Response” solutions need to be researched, tested and verified

Page 59: The Power of Charging Staons: Smart Systems for the Future

Demand Response

OASIS can do Demand Response to shave demand peaks, and fill in valleys

Reduces demand charges, reduces peak load on distribution feeders

Page 60: The Power of Charging Staons: Smart Systems for the Future

OASIS Project: Demand-Response Control, PV, and Energy Storage Mitigate EV Charging

DEMS

Weather forecast(3 days)

EV Charging Usageforecast

Power Grid PowerDemand forecast

WHEN?

From GridTo Grid

OASIS power

DecentralizedEnergy Management System

Page 61: The Power of Charging Staons: Smart Systems for the Future

How many cars can OASIS charge in a day from Solar?

11

Vancouver averages 3 sun hours per day, which equates to 3hours x 250kW = 750kWh per day (average) over a year.

Average Nissan LEAF charging session is 10kWh

Average Session time is 30 minutes

We could support 75 LEAFs charging every day

After factoring in house loads that number drops to about 50

But it would still be hard to get that many cars through the chargers without having big lineups.

Page 62: The Power of Charging Staons: Smart Systems for the Future

OASIS Project continued…

Typical Power Curve (Summer)

Page 63: The Power of Charging Staons: Smart Systems for the Future

Unforeseen Challenges

Location Selection lots of campus roof space but little of it

able to support load Battery Module Layout

Re-orientation of modules required Resulted in innovative rack re-design

PCS and Noise By-law Requires noise abatement enclosure Resulting in solutions with technology transfer potential

EV Charger Power Loss Power Quality to Fast Charger must be

high, UPS required

Page 64: The Power of Charging Staons: Smart Systems for the Future

OASIS Generation Data14

Total Measured PV Generation: 58,782.98 kWhIf Fully Operational: 156,647.09 kWh

Page 65: The Power of Charging Staons: Smart Systems for the Future

OASIS Project continued...

Major Project Components Panasonic – PV modules

(solar panels) and four quadrant inverter

Siemens – Substation Automation gear, Distribution Energy Management System

Schneider Electric – DC Fast Charge EV Chargers, Smart Meters

Page 66: The Power of Charging Staons: Smart Systems for the Future

Other BCIT EV Chargers

Downtown campus – two Level 2 chargers

Centre for Applied Research & Innovation (CARI) – one Level 2 charger

Gateway Building, main Burnaby campus – two Level 2, four Level 1 chargers

AFRESH Home, main Burnaby campus – one Level 2, one Level 1 charger

Page 67: The Power of Charging Staons: Smart Systems for the Future

Consumer Behaviour Research

Research Project with UBC, UVic, and SFU

Uses the six Level 2 EV chargers at OASIS

Researching EV driver appetite for aligning charging with availability of renewables

Level 2 chargers can be “throttled” between 0, 1, and 7 kW.

EVs will be charged when drivers need them, but time may be delayed to availability of renewables

Page 68: The Power of Charging Staons: Smart Systems for the Future

Future Applied Research Projects

Future Projects Improvements to forecasting

system Pilot project with Powertech

Labs on Utility Controlled Charging at BCIT’s AFRESH home

More collaboration with UBC, SFU, UVic on behaviour change research

Page 69: The Power of Charging Staons: Smart Systems for the Future

BC Leading Canada in EV Chargers

Page 70: The Power of Charging Staons: Smart Systems for the Future

APPLIED RESEARCHSMART MICROGRID APPLIED RESEARCH TEAM (SMART)

CLAY HOWEY [email protected]