2023年12月31日发(作者:宝马摩托车价格及图片)

2020版《新能源汽车专业英语》

试题库

第一部分:专业术语

AC induction motor (ACIM)

active test

alkaline battery

alkaline fuel cell

all-electric-range (AER)

alternative fuel

alternative fueled vehicle

ampere-hour (Ah) capacity

armature winding

asynchronous AC motor

automatic transmission

auxiliary battery

balancing unit

battery block

battery controller

battery electric vehicle (BEV)

battery management system(BMS)

battery pack

CE

cell controller

charge state

charging rate

交流感应式电动机

主动测试

碱性电池

碱性燃料电池

全电续驶里程

替代燃料

替代燃料汽车

安时容量

电枢绕组

异步交流电动机

自动变速器

辅助蓄电池

平衡装置

电池块,电池子模块

蓄电池控制器

纯电动汽车

电池管理系统(BMS)

电池组

内燃机

单体电池控制器

荷电状态

充电率,充电速度

city bus

CNG

commutator segment

compressed natural gas

compression ignition engine

continuously variable transmission

current driver

current-carrying conductor

cycle life

DC-DC converter

DC-to-DC converter

deep-cycle battery

depth of discharge (DoD)

城市公共汽车

压缩天然气

换向器片

压缩天然气

压燃式发动机

机械式无级变速器

电流驱动器

载流导体

循环寿命

直流-直流变换器

直流-直流转换器

深度循环蓄电池

放电深度

design parameter

diagnostic trouble code

diesel fuel

digital multimeter (DMM)

discharge rate

drive force

drive train

drive wheel

driver circuit

driving range

electric drive motor

electric motor

electric vehicle

electrical machine

electrical schematic

electric-powered vehicle

electronic fuel injection

electronic switch

electronic throttle

energy accumulator

energy density

energy storage system (ESS)

energy storage unit

excitation current

fatigue failure

field coil

field winding

flexible fuel vehicles (FFV)

flux leakage

fossil fuel

freeze frame

front-wheel drive

fuel economy

fuel tank

fuel-cell car

fuel-cell electric vehicles (FCEV)

fuel-cell stack

full hybrid

gas injector

gasoline engine

gear box

gear unit

hand-held tester

设计参数

故障码

柴油燃料

数字式万用表

放电率

驱动力

传动系统

驱动车轮,驱动轮

驱动电路

续驶里程

驱动电动机

电动机

电动汽车

电机

电气原理图,电气简图

电动汽车

电子控制燃油喷射

电子开关

电子节气门

蓄能器,储能系统

能量密度

储能系统

储能装置

励磁电流

疲劳失效

励磁线圈,磁场线圈

磁场绕组

灵活燃料汽车

漏磁

化石燃料,矿物燃料

冻结数据帧

前轮驱动

燃油经济性

燃油箱

燃料电池汽车

燃料电池电动汽车

燃料电池堆

重度混合动力

气体喷射器

汽油机

齿轮箱

齿轮机构

手持式检测仪

HV battery pack

hybrid car

hybrid drive

hybrid electric vehicles (HEV)

hybridization factor

hydrogen fuel cell

hydrogen fueling station

IC engine

individual cell

insulated gate bipolar transistor (IGBT)

insulation resistance

Integrated Motor Assist (IMA)

intelligent power unit (IPU)

inverter assembly

lead-acid battery

liquefied natural gas

lithium battery

lithium iron phosphate

lithium nickel cobalt manganate

lithium-ion battery

lithium-polymer battery

LNG

magnetic field

medium hybrid

megger tester

membrane electrode assembly (MEA)

metal hydride

micro hybrid

mild hybrid

miles per gallon (MPG)

miles per gallon equivalent (MPGe)

motor drive module (MDM)

motor generator(MG)

motor inverter

negative electrode

nickel metal hydride battery pack

nickel-based battery

nickel-cadmium (Ni-Cd) battery

nickel-metal hydride (NiMH) battery

off-board charging

onboard charging

高压电池组

混合动力汽车

混合动力,混合驱动装置

混合动力电动汽车

混合度

氢燃料电池

加氢站

内燃机

单体电池

绝缘栅双极晶体管

绝缘电阻

集成化电机辅助

智能动力单元

逆变器总成

铅酸蓄电池

液化天然气

锂电池

磷酸铁锂(LiFePO4)

三元锂(镍钴锰酸锂)(LiNiCoMnO2)

锂离子电池

锂聚合物电池

液化天然气

磁场

中度混合动力

绝缘测试仪

膜电极

金属氢化物

微混合动力

微混合动力

英里/加仑

当量英里/加仑

电动机驱动模块

电动机/发电机总成

电动机逆变器

负极

镍氢电池组

镍电池

镍镉(Ni-Cd)电池

镍氢(NiMH)电池

离车充电

车载充电,随车充电

断路

氧化还原反应

open circuit

oxidation-reduction reaction

parallel hybrid

passenger vehicle

performance parameter

permanent magnet

permanent magnet brushless DC motor

petrol engine

plug-in electric vehicles (PEV)

plug-in HEV

plug-in hybrid electric vehicle (PHEV)

positive electrode

power battery

power density

power down

power transistor

power-split hybrid

并联式混合动力

乘用车,载客车辆

性能参数

永久磁铁

永磁无刷直流电动机

汽油机

插电式电动汽车

插电式混合动力电动汽车

插电式混合动力电动汽车

正极

动力电池

功率密度

断电,掉电

功率晶体管

功率分流式混合动力,混联式混合动力

proton exchange membrane fuel cell 质子交换膜燃料电池

(PEMFC)

pulse width

pure electric vehicle

regenerative braking

remaining capacity

rolling resistive force

safety glasses

safety plug

sensing unit

serial hybrid

series-parallel hybrid

service plug

short circuit

smart key

spark ignition engine

special-purpose vehicle

specific energy

specific power

stall test

state of charge (SoC)

state of health (SoH)

steel cylinder

strong hybrid

summarising gear

synchronous AC motor

tandem motor

temperature sensor

脉冲宽度,脉宽

纯电动汽车

再生制动

剩余容量

滚动阻力

安全眼镜

安全插头

传感装置

串联式混合动力

混联式混合动力,功率分流式混合动力

维修插头

短路,短接

智能钥匙

点燃式发动机

专用车辆

比能量

比功率

失速试验

荷电状态

健康状态

钢筒,钢瓶

重度混合动力,强混合动力

合成机构

同步交流电动机

级联电动机,双电动机

温度传感器

thermal cut-out

torque converter

total resistive force

touch screen

traction motor

tractive effort

transmission system

warning label

wheel hub drive

wheel motor

wireless charging

热熔保险器

液力变矩器

总阻力

触摸屏

推进电动机

驱动力

传动系统

警告标贴

轮毂驱动

车轮电动机

无线充电

线束

零排放汽车

wiring harness

zero-emission vehicle

第二部分:常用缩写

缩写

AER

BEV

BMS

CE

CNG

DMM

DoD

DTC

ECU

EM

EMS

ENG

ESS

EV

FC

FCEV

FCHEV

FFV

GND

HEV

HV

IC

IC

ICE

英文含义

all-electric-range

battery electric vehicle

battery management system

combustion engine

compressed natural gas

digital multimeter

depth of discharge

diagnostic tester code

electronic control unit

electric motor

electronic engine management system

engine

energy storage system

electric vehicle

fuel cell

Fuel cell electric vehicle

Fuel cell hybrid electric vehicle

flexible fuel vehicles

ground

hybrid electric vehicle

high voltage

internal combustion

integrated circuit

internal combustion engine

中文含义

全电续驶里程

纯电动汽车

电池管理系统

内燃机

压缩天然气

数字式万用表

放电深度

故障码

电子控制单元

电动机

发动机电子管理系统

发动机

储能系统

电动汽车

燃料电池

燃料电池电动汽车

燃料电池混合动力电动汽车

灵活燃料汽车

搭铁,接地

混合动力电动汽车

高压

内燃

集成电路

内燃机

ICEV

IG

IGBT

IMA

IPM

Li-Ion

Li-poly

LNG

LPG

MCM

MDM

MEA

MG

MGR

MPG

mpg

MPGe

Ni-Cd

NiMH

PCU

PDU

PEM

PEMFC

PEV

PHEV

PM

PSM

RLY

SEN

SMR

SOC

SoC

SoH

SPM

SW

internal combustion engine vehicle

ignition

insulated gate bipolar transistor

Integrated Motor Assist

interior permanent magnet

lithium-ion (battery)

lithium-polymer (battery)

liquefied natural gas

liquid petroleum gas

motor control module

motor drive module

membrane electrode assembly

motor generator

motor/generator rear

miles per gallon

miles per gallon

miles per gallon equivalent

nickel-cadmium (battery)

nickel-metal hydride (battery)

power control unit

power drive unit

proton exchange membrane

proton exchange membrane fuel cell

plug-in electric vehicle

plug-in hybrid electric vehicle

permanent magnet

permanent magnet

synchronous motor

relay

sensor

system main relay

state of charge

state of charge

state of health

surface permanent magnet

switch

内燃机汽车

点火,点火开关

绝缘栅双极晶体管

集成化电机辅助

内置永磁

锂离子(电池)

锂-聚合物(电池)

液化天然气

液化石油气

电动机控制模块

电动机驱动模块

膜电极

电动机/发电机

电动机/发电机(后)

英里/加仑

英里/加仑

当量英里/加仑

镍-镉(电池)

镍-氢(电池)

动力控制单元

动力驱动单元

质子交换膜

质子交换膜燃料电池

插电式电动汽车

插电式混合动力电动汽车

永磁

three-phase 永磁三相交流同步电动机

继电器

传感器

系统主继电器

荷电状态

荷电状态

健康状态

表面永磁

开关

第三部分:英译汉

1. What are Alternative fuels currently commercially available and closely

attended? 目前商业可用和受到密切关注的替代燃料有哪些?

· Liquefied petroleum gas 液化石油气

· CNG 压缩天然气

· Methanol 甲醇

· Hydrogen 氢

· Fuel-cell 燃料电池

· Electricity 电能

· Hybrid(electricity + conventional fuels)混合动力(电+传统燃料)

2. What are the types of electric vehicles? 电动汽车分为哪几种?

Electric vehicles are broadly categorized into four groups based on the electric design of their

powertrains, namely battery electric vehicles (BEVs), plug-in hybrid electric vehicles (PHEVs),

hybrid electric vehicles (HEVs), and fuel-cell electric vehicles (FCEVs). Only BEVs and PHEVs

are plug-capable, and are referred to as plug-in electric vehicles (PEVs).

根据电动汽车动力传动系统的电动设计,将电动汽车大致分为四大类,即纯电动汽车(BEV)、插电式混合动力汽车(PHEV)、混合动力电动汽车(HEV)和燃料电池电动汽车(FCEV)。只有BEV和PHEV是可插接充电器进行充电的,故被称为插电式电动汽车(PEV)。

3. What are the basic components of lithium ion batteries?锂离子电池的基本组成包括哪些元件?

A

Li-ion battery cell has five basic components that facilitate the energy conversion process.

The first component is an anode, which gives up the electrons to an external circuit (e.g., electric

motor) and oxidizes during the reaction. The second component is a cathode, which accepts the

electrons from the external circuit. The third component is the electrolyte which completes ion

transfer inside the cells. The fourth component is a membrane that acts a separator and prevents

the internal short circuits between the anode and the cathode, and the last component is a container,

which is devised for safety purposes.

锂离子电池的单体电池具有促进能量转换过程的五个基本元件。第一个元件是阳极,它的作用是在反应期间将电子供给到外部电路(例如,电动机)而氧化。第二个元部件阴极,其作用是接受来自外部电路的电子。第三个元件是电解质,其作用是完成电池内离子转移。第四个元件是隔膜,隔膜起分隔作用,防止阳极和阴极之间的内部短路,而最后一个元件是容器,它是为安全目的而设计的。

4. What are the fuctions of BMS? 电池管理系统的功能有哪些?

The BMS should monitor, control, and communicate with the battery. Therefore, the primary

functions of a BMS are:

? Under-voltage and over-voltage protections;

? Short circuit protection;

? Thermal protection;

? Cell balancing;

? Controlling battery charging and discharging;

? Determining battery SoC and SoH;

? Safety protection.

电池管理系统(BMS)应监测、控制蓄电池,并与蓄电池进行通信。因此,BMS的主要功能是:

·低压和过压保护;

·短路保护;

·热保护;

·电池平衡;

·控制电池充电和放电;

·确定电池SOC和SOH;

·安全保护。

5. Describe the basic operation of lithium ion batteries? 叙述锂离子电池的基本原理。

In Li-ion batteries, electrical energy is generated through electrochemical oxidation-reduction

reactions. During the charging stage, lithium ions move from the positive electrode, pass through

the electrolyte, and intercalate between graphite layers, and enter the negative electrode. During

the discharge process, the reverse process takes place (as shown in Figure 2.7), and the stored

energy is used to run the electric motor.

在锂离子电池中,电能是通过电化学氧化还原反应产生的。在充电阶段,锂离子从正电极移出,穿过电解质,插入石墨层间,并进入负电极。在放电过程中,发生相反反应过程 (如图2-7所示),存储的能量可用于驱动电动机。

Figure 2.7 chemical reaction process of a Li-ion battery

图2-7 锂离子电池的化学反应过程

6. How to Use the hand-held tester to diagnose the HV battery pack?怎样使用手持式

测试仪(解码器)来诊断高压电池组的故障?

Using the hand-held tester, you can read the value of the switches, sensors, actuators and so on

without parts removal. Diagnose the HV battery pack using the tester as the following steps:

·Connect the hand-held tester to the DLC3.

·Turn the power switch ON (IG).

·Turn the hand-held tester ON.

·On the hand-held tester, enter the following menus: DIAGNOSIS / ENHANCED OBD Ⅱ /

HV ECU.

·Select DTC INFO, Read the DTCs, FREEZE FRAME data (Figure 6.6) and the

INFORMATION CODEs (Figure 6.7).

使用手持式测试仪,您可以读取开关、传感器、执行器等的值,而不需要拆卸部件。使用测试仪诊断高压电池组,步骤如下:

·将手持测试仪连接到DLC3上。

·接通电源开关(IG)。

·打开手持式测试仪。

·在手持测试仪上,输入以下菜单:DIAGNOSIS / ENHANCED OBD Ⅱ/ HV ECU。

·选择故障代码信息DTC INFO,读取故障代码DTC、冻结帧FREEZE FRAME数据(图6-6)和信息代码INFORMATION CODE (图6-7)。

7. Describe the steps of battery Disassembling(Prius)? 描述蓄电池组拆卸的步骤(普锐斯)

Adhere the following steps to do this during disassembling battery pack.

Step 1: To depower the high-voltage system, the ignition was off and the negative battery cable

was disconnected from the 12-volt auxiliary battery, then the HV battery safety plug was removed.

Step 2: After checking that the voltage level is safe, the rear seat and HV battery cover were

removed.

Step 3: Remove the high-voltage wires from the battery pack while wearing HV gloves.

Step 4: Remove the HV battery pack through the rear of the vehicle.

Step 5: Place the HV battery pack on a workbench that is covered with a thick rubber

(insulating) mat. A wood top bench can also be used.

Step 6: Perform a visual inspection, to be sure that electrical connections between battery

modules are corroded.

Step 7: Remove the HV battery pack temperature sensors, and remove the HV battery vent

tubes from the battery pack.

Step 8: Remove the end caps from the battery pack.

Step 9: Remove the fasteners that hold the battery modules to the base of the battery pack.

Step 10: Remove the end module from the battery pack.

拆卸电池组时,请按照以下步骤进行。

第一步:将高压系统断电。将点火开关关闭,从12伏辅助电池上将电池负极电缆连接断开,然后拔下高压电池安全插头。

第二步:检查电压水平是否安全后,将后座和高压电池盖拆除。

第三步:戴上高压手套,从电池组上拆下高压电线。

第四步:通过车辆后部拆卸高压电池组。

第五步:将高压电池组放置上面覆盖着厚厚的橡胶(绝缘)垫的工作台上。也可以使用木顶面长凳。

第六步:进行目视检查,以变查清电池模块之间的电气连接是否被腐蚀。

第七步:拆卸高压电池组温度传感器,并从电池组中拆下高压电池通风管。

第八步:从电池组上拆下端盖。

第九步:拆卸将电池模块固定在电池组底部的紧固件。

第十步:从电池组上拆下端部模块。

8. Briefly describe the basic components of a proton exchange membrane fuel

cell. 简述质子交换膜燃料电池的基本组成。

A PEMFC consists of the following basic components: 质子交换膜燃料电池(PEMFC)的组成包括下列基本元件:

·Electrodes. There are a fuel electrode (anode) and an oxidant electrode (cathode). They are

made of porous, electrically and thermally conducting material, such as porous graphite.·电极。有燃料电极(阳极)和氧化剂电极(阴极)。它们由多孔、导电和导热材料制成,如多孔石墨。

·Electrolyte. The PEMFC uses proton exchange membrane as the electrolyte. ?电解液。PEMFC使用质子交换膜作为电解质。

·Catalyst Layers. There is one catalyst layer on either side of the membrane. It is on the

catalyst surface where the electrochemical reactions take place. The most commonly used catalyst

is platinum or platinum alloy. The anode, cathode, membrane, and two catalyst layers are usually

sealed together to form a single membrane electrode assembly (MEA).·催化剂层。膜的两侧都有一个催化剂层。就是在催化剂表面上发生着电化学反应。最常用的催化剂是铂或铂合金。阳极、阴极、膜和两个催化剂层通常被密封在一起,形成一个膜电极(MEA)。

·Gas Diffusion Layers. This arrangement consists of one gas diffusion layer in contact with the

anode and one with the cathode. Their functions are to ensure that the hydrogen gas or air diffuses

evenly and efficiently over the catalyst layer, to provide uniform distribution of load on the surface

of the MEA from the bipolar plate and to provide electrical conduction between the bipolar plate

and the anode or cathode. It is made of porous carbon paper or cloth treated with

polytetrafluoroethylene.·气体扩散层。这种布置由一个与阳极接触的气体扩散层和一个与阴极接触的气体扩散层组成。它们(气体扩散层)的作用有三个:确保氢气或空气在催化剂层上均匀有效地扩散,提供来自双极板的作用于MEA表面上的均布载荷(夹持力),并在双极板与阳极或阴极之间提供导电功能。气体扩散层是由多孔碳纸或经聚四氟乙烯处理的布制成。

·Bipolar Plates. These are commonly made of graphite or conducting metal (such as coated

titanium). Gas flow channels are machined into the plates to provide inlets for the hydrogen gas

and air, as well as outlets for excess hydrogen gas for recirculation and for water produced in the

fuel cell. ?双极板。它们通常由石墨或导电金属(例如涂覆的钛)制成。气体流动通道被加工到板中,以提供氢气和空气的入口,以及用于让过量氢气再循环和让燃料电池中产生的水流出的出口。

第四部分:单项选择

1.

The output voltage of a typical cell varies between ___________

A. one to six volts.

B. six to eight volts.

C. eight to ten volts.

(A)

2. Plug-in electric vehicles (PEVs) include __________

A. only BEVs.

B. only PHEVs.

C. BEVs and PHEVs.

(C)

3. In the BMW parallel hybrid, the hybrid module consists of __________

A. an electric machine EM with the two clutches C1 and C2.

B. two electric machines EM1 and EM2.

C. an electric machine EM with a clutch C.

(A)

4. In Toyota Prius HEVs, the boost converter is a DC-DC converter witch boosts the nominal

voltage of DC 201.6V that is output by the HV battery to __________

A. the maximum voltage of DC 100V.

B. the maximum voltage of DC 300V.

C. the maximum voltage of DC 500V.

(C)

5. The IGBT is used to perform the switching control, and the power transistor is controlled _____

A. by the engine ECU.

B. by the HV ECU.

C. by the ABS ECU.

(B)

6. A full hybrid, also called a strong hybrid, is ________________

A. able to propel the vehicle using the electric motor(s) alone.

B. not able to propel the vehicle using the electric motor(s) alone.

C. not capable of propelling the vehicle from a stop using battery power alone.

(A)

7. In the power-split hybrid drive, the combustion engine power output is split into ________

A. two mechanical paths.

B. mechanical and electric paths.

C. two electric paths.

(B)

8. In the serial hybrid drive, there is no mechanical coupling of __________

A. combustion engine and generator..

B. combustion engine and generator/motor.

C. combustion engine and wheels.

(C)

9. Toyota/Lexus hybrid system is built around a single planetary gear set (power-split device) and

two electric motor/generators (MG1 and MG2). The power-split device is connected to _______

A. the IC engine only.

B. the MG1 and MG2 only.

C. the IC engine, MG1 and MG2.

(C)

10. During normal Driving, the ICE of Toyota/Lexus hybrid system must be started so that its

output can be combined with ________

A. that of MG2.

B. that of MG1.

C. that of MG1 and MG2.

(A)

11. In the Toyota/Lexus hybrid system, as the vehicle is decelerating, MG2 _______

A. doesn’t run.

B. operates as a electric motor.

C. operates as a generator.

(C)

12. In the Toyota/Lexus hybrid system, the inverter converts the high voltage direct current of the

battery into ___________

A. single phase alternating current of MG1 and MG2.

B. three-phase alternating current of MG1 and MG2.

C. low voltage direct current of MG1 and MG2.

(B)

第五部分:填空

1. Electric vehicles are broadly categorized into four groups based on the electric design of their

powertrains, namely battery electric vehicles (BEVs), plug-in hybrid electric vehicles

(PHEVs), hybrid electric vehicles (HEVs), and fuel-cell electric vehicles (FCEVs).

2. State of charge (SoC) is an indicator of battery degradation over time, which can be caused due

to operating conditions. SoC measures the ratio of the present battery capacity with respect to

maximum capacity.

3. Specific energy represents the amount of energy that can be stored in a unit mass, and it is often

measured with the physical dimension watt-hours per kilogram.

4. Now, there are three types of battery available for use in electric vehicles: lead-acid battery,

nickel-based (nickel-cadmium or nickel-metal hydride) battery, and lithium (lithium-ion or

lithium-polymer) battery.

5. In a typical Li-ion battery, the positive electrode is made up of lithium and transition metal

material. Graphite is widely employed as the negative electrode material.

6. There are two primary designs of a NiMH battery cell: cylindrical type and prismatic type .

7. In most hybrid electric vehicles, traction AC motor is controlled as follows:

·The speed of the motor is changed by changing the frequency of the applied current.

·The pulse width and voltage is adjusted to change the power output to match the demands of

the vehicle for electric assist or propulsion.

8. AC motors are powered by inverters. An inverter converts DC power to AC power at the

required frequency and amplitude. The inverter converts the high voltage direct current of the

battery into three-phase alternating current of MG1 and MG2. When MG1 or MG2 acts as a

generator, the inverter converts the alternating current (range of 201.6V to 500V) generated by

either of them into direct current. The boost converter then drops it to DC 201.6V to charge the

HV battery.

第六部分:将图中英文部件名称翻译成中文

Construction of permanent magnet brushless DC motor

Motor controls for Lexus RX 400 4WD HEVs

雷克萨斯RX400 4WD混合动力电动汽车的电动机控制

Power split hybrid system 功率分流式混合动力系统

Series hybrid system 串联式混合动力系统

A fuel cell electric vehicle一种燃料电池电动汽车

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