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Energies 2017,10, 1217
Some of the prominent battery types are: lead-acid, Ni-Cd, Ni-Zn, Zn/air, Ni-MH, Na/S,
Li-polymer andLi-ion batteries. Yong et al., also showedabatterymadeout of graphene for EV
usewhoseadvantages, structuralmodelandapplication isdescribedin[34].Differentbattery types
havetheirownprosandcons,andwhileselectingone, these thingshavetobekept inmind. In [35],
Khaligh et al., providedkey features of someknownbatterieswhicharedemonstrated inTable 6.
In Table 7, common battery types are juxtaposed to relative advantage of one battery type over
theothers.
Table6.Commonbattery types, theirbasicconstructioncomponents,advantagesanddisadvantages.
Data from[35â44].
BatteryType Components Advantage Disadvantage
Lead-acid ⢠Negativeactive
material:
spongylead
⢠Positiveactive
material: leadoxide
⢠Electrolyte: diluted
sulfuricacid ⢠Available inproductionvolume
⢠Comparatively lowincost
⢠Mature technologyasusedfor
overďŹftyyears ⢠Cannotdischargemore than
20%of its capacity
⢠Hasa limited lifecycle if
operatedonadeeprateofSOC
(stateofcharge)
⢠Lowenergyandpowerdensity
⢠Heavier
⢠Mayneedmaintenance
NiMH
(Nickel-Metal
Hydride) ⢠Electrolyte:
alkalinesolution
⢠Positiveelectrode:
nickelhydroxide
⢠Negativeelectrode:
alloyofnickel,
titanium,vanadium
andothermetals. ⢠Doubleenergydensity
comparedto lead-acid
⢠Harmless to theenvironment
⢠Recyclable
⢠Safeoperationathighvoltage
⢠Canstorevolumetricpower
andenergy
⢠Cycle life is longer
⢠Operatingtemperaturerange
is long
⢠Resistant toover-charge
anddischarge ⢠Reducedlifetimeofaround
200â300cycles ifdischarged
rapidlyonhigh loadcurrents
⢠Reducedusablepower
becauseofmemoryeffect
Li-Ion
(Lithium-Ion) ⢠Positiveelectrode:
oxidized
cobaltmaterial
⢠Negativeelectrode:
carbonmaterial
⢠Electrolyte: lithium
salt solution inan
organicsolvent ⢠Highenergydensity, twice
ofNiMH
⢠Goodperformanceat
hightemperature
⢠Recyclable
⢠Lowmemoryeffect
⢠HighspeciďŹcpower
⢠HighspeciďŹcenergy
⢠Longbattery life, around
1000cycles ⢠Highcost
⢠Rechargingstill takesquitea
longtime, thoughbetter than
mostbatteries
Ni-Zn
(Nickel-Zinc) ⢠Positiveelectrode:
nickeloxyhydroxide
⢠Negative
electrode:zinc ⢠Highenergydensity
⢠Highpowerdensity
⢠Uses lowcostmaterial
⢠Capableofdeepcycle
⢠Friendly toenvironment
⢠Usable inawidetemperature
rangefromâ10 âŚCto50 âŚC ⢠Fastgrowthofdendrite,
preventinguse invehicles
Ni-Cd
(Nickel-Cadmium) ⢠Positiveelectrode:
nickelhydroxide
⢠Negative
electrode: cadmium ⢠Longlifetime
⢠Candischarge fullywithout
beingdamaged
⢠Recyclable ⢠Cadmiumcancausepollution
incaseofnotbeingproperly
disposedof
⢠Costly for
vehicularapplication
20
Emerging Technologies for Electric and Hybrid Vehicles
- Titel
- Emerging Technologies for Electric and Hybrid Vehicles
- Herausgeber
- MDPI
- Ort
- Basel
- Datum
- 2017
- Sprache
- englisch
- Lizenz
- CC BY-NC-ND 4.0
- ISBN
- 978-3-03897-191-7
- Abmessungen
- 17.0 x 24.4 cm
- Seiten
- 376
- SchlagwĂśrter
- electric vehicle, plug-in hybrid electric vehicle (PHEV), energy sources, energy management strategy, energy-storage system, charging technologies, control algorithms, battery, operating scenario, wireless power transfer (WPT)
- Kategorie
- Technik