汽车轮胎压力监测中英文对照外文翻译文献

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汽车轮胎压力监视系统TPMS

汽车轮胎压力监视系统TPMS

汽车轮胎压力监视系统汽车轮胎压力监视系统TPMS “Tire Pressure Monitoring System”的英文缩写形式主要用于在汽车行驶时实时的对轮胎气压进行自动监测,对轮胎漏气和低气压进行报警,以保障行车安全。

在汽车的高速行驶过程中,轮胎故障是所有驾驶者最为担心和最难预防的,也是突发性交通事故发生的重要原因。

据统计,在中国高速公路上发生的交通事故有70%是由于爆胎引起的,而在美国这一比例则高达80%。

怎样防止爆胎已成为安全驾驶的一个重要课题。

据国家橡胶轮胎质量监督中心的专家分析,保持标准的车胎气压行驶和及时发现车胎漏气是防止爆胎的关键。

而TPMS——汽车胎压监视系统毫无疑问将是理想的工具。

分类一种是Wheel-Speed Based TPMS(简称:WSB TPMS,或称为间接式TPMS ),这种系统是通过汽车ABS 系统的轮速传感器来比较轮胎之间的转速差别,以达到监视胎压的目的,该类型系统的主要缺点是无法对两个以上轮胎同时缺气的状况和速度超过100公里/小时的情况进行判断。

另一种是Pressure-Sensor Based TPMS(简称:PSB TPMS,或称为直接式TPMS),这种系统是利用安装在每一个轮胎里的压力传感器来直接测量轮胎的气压,并对各轮胎气压进行显示及监视,当轮胎气压太低或有渗漏时,系统会自动报警。

PSB TPMS 从功能和性能上均优于WSB TPMSTPMS系统开发上,多数方案组成分为5部分,它们是整合了具有压力、温度、加速度、电压检测和后信号处理ASIC芯片组合的智能传感器SoC、4-8位单片机(MCU)、RF射频发射芯片、锂亚电池和天线等其中智能传感器还采用了硅显微机械加工(MEMS)技术有源TPMSFreescaleinfineonGE等公司是世界上TPMS的MCU微控制处理器无源TPMS表面声波技术技术的TPMS SAW SURFACE acoustic WAVESAW温度/压力传感器英国Transense Technologies 德国EPCOS等有源MEMS TPMS英飞凌科技(Infineon Technologies AG)拟借收购SensoNor成为了汽车轮胎压力传感器市场中的领先供应商。

汽车胎压监测系统说明书

汽车胎压监测系统说明书

AirbagsYour vehicle is equipped with several types of airbags: front airbags, side airbags, and side curtain airbags.n Front Airbags (SRS)The front SRS airbags inflate in a moderate-to-severe frontal collision to help protect the head and chest of the driver and/or front passenger. They are housed in the center of the steering wheel for the driver and in the dashboard for the front passenger. Both airbags are marked SRS AIRBAG.SRS (Supplemental Restraint System) indicates that the airbags aredesigned to supplement seat belts, not replace them. Seat belts are theoccupant's primary restraint system.n Advanced AirbagsThe airbags have advanced features to help reduce the likelihood of airbag related injuries to smaller occupants.The driver's advanced airbag system includes a seat position sensor. Based on information from this sensor and the severity of the impact, the advanced airbag system determines the optimal deployment of the driver's airbag.The front passenger's advanced airbag system has weight sensors.We advise against allowing a child age 12 or under to ride in the frontpassenger's seat. However, if you do allow a child age 12 or under to ride in the front passenger's seat, note that the system will automatically turn off the front passenger's airbag if the sensors detect that the child isapproximately 65 lbs (29 kg) or less.For the advanced airbags to work properly:•Do not spill any liquid on or under the seats.•Do not put any object under the passenger's seat.•Make sure any objects are positioned properly on the floor. Improperlypositioned objects can interfere with the advanced airbag sensors.•All occupants should sit upright and wear their seat belts properly.•Do not cover the passenger's side dashboard with a cloth, towel, cover,etc.n Side AirbagsThe side airbags help protect the upper torso and pelvis of the driver or a front passenger during a moderate-to-severe side impact. They are housed in the outside edge of the driver's and front passenger's seat-backs. Both are marked SIDE AIRBAG.n Side Curtain AirbagsSide curtain airbags help protect the heads of the driver and passengers in outer seating positions during a moderate-to-severe side impact. The side curtain airbags equipped in this vehicle are also designed to help reduce the likelihood of partial and complete ejection of vehicle occupants through side windows in crashes, particularly rollover crashes.The side curtain airbags are located in the ceiling above the side windows on both sides of the vehicle.The side curtain airbags are designed to deploy in a rollover or moderate-to-severe side impact. If the SRS control unit senses that your vehicles is about to roll over, it immediately deploys both side curtain airbags andactivates both front seat belt tensioners. If the impact is on the passenger's side, the passenger's side curtain airbag will inflate even if there are nooccupants on that side of the vehicle.To get the best protection from the side curtain airbags, occupants should wear their seat belts properly and sit upright and well back in their seats.Do not attach any objects to the side windows or roof pillars, as they can interfere with the proper operation of the side curtain airbags.When side curtain airbags deploy in a frontal collisionOne or both side curtain airbags may inflate in a moderate-to-severe angled frontal collision.n Important Facts About Your AirbagsAlways wear your seat belt properly, sit upright, and as far back from the steering wheel as possible while allowing full control of the vehicle. A front passenger should move their seat as far back from the dashboard aspossible.Do not place hard or sharp objects between yourself and a front airbag.Carrying hard or sharp objects on your lap, or driving with a pipe or other sharp object in your mouth, can result in injuries if your front airbag inflates.Do not attach or place objects on the front airbag covers. Objects on the covers marked SRS AIRBAG could interfere with the proper operation of the airbags or be propelled inside the vehicle and hurt someone if the airbags inflate.Do not attach accessories on or near the side airbags. They can interfere with the proper operation of the airbags or hurt someone if an airbaginflates.Do not attach any objects to the side windows or roof pillars. They caninterfere with the proper operation of the side curtain airbags.Do not cover or replace the front seat-back covers. This can prevent your side airbags from properly deploying during a side impact.An open glove box can cause serious injury to your passenger in a crash, even if the passenger is wearing the seat belt.Always keep the glove box closed while driving.n Airbag System IndicatorsIf a problem occurs in the airbag system, the SRS indicator comes on and a message appears on the Driver Information Interface .Supplemental Restraint System (SRS) IndicatorIf the indicator comes on at any othertime besides vehicle start-up or doesnot come on at all, have the systemchecked by a dealer as soon aspossible. If you don't, your airbags andseat belt tensioners may not workproperly when they are needed.Ignoring the SRS indicator can result in serious injury or death if the airbag systems or tensioners do not work properly.Have your vehicle checked by a dealer as soon as possible if the SRSPassenger Airbag Off IndicatorThe indicator comes on to alert you thatthe front passenger’s front airbag hasbeen turned off. This occurs when thefront passenger’s weight sensorsdetect 65 lbs (29 kg) or less, the weightof an infant or small child, on the seat.Children age 12 or under should alwaysride properly restrained in a back seat.Objects placed on the seat can alsocause the indicator to come on.If the front passenger‘s seat is empty, the indicator will not come on and, in the event of a crash, the front passenger's airbag will not deploy.If the indicator comes on with no occupant or objects in the front passenger’s seat, something may be interfering with the weight sensors, such as:•An object hanging on the seat or in the seat-back pocket.•A child seat or other object pressing against the rear of the seat-back.•A rear passenger pushing or pulling on the back of the front passenger’s seat.•The front seat or seat-back is forced against an object on the seat or floor behind it.•An object placed under the front passenger’s seat.If none of these conditions exist, have your vehicle checked by a dealer as soon as possible.The passenger airbag off indicator may come on and go off repeatedly if the total weight on the seat is near the airbag cutoff threshold.n Airbag System Components1.Two SRS (Supplemental Restraint System) front airbags. The driver’sairbag is stored in the center of the steering wheel; the front passenger’s airbag is stored in the dashboard. Both are marked SRS AIRBAG.2.Two side airbags, one for the driver and one for a front passenger. Theairbags are stored in the outer edges of the seat-backs. Both are marked SIDE AIRBAG.3.Two side curtain airbags, one for each side of the vehicle. The airbagsare stored in the ceiling, above the side windows. The front and rearpillars are marked SIDE CURTAIN AIRBAG.4.An electronic control unit that, when the vehicle is on, continuallymonitors information about the various impact sensors, seat and bucklesensors, rollover sensor, airbag activators, seat belt tensioners,passenger seat weight sensors, driver's seat position sensor, passenger front airbag off indicator and other vehicle information. During a crashevent the unit can record such information.5.Automatic front seat belt tensioners. The driver’s and front passenger’sseat belt buckles incorporate sensors that detect whether or not thebelts are fastened.6. A driver’s seat position sensor. This sensor determines the optimal forceat which the airbag will deploy in a crash.7.Weight sensors in the front passenger’s seat. The front passenger’sairbag will be turned off if the weight on the seat is about 65 lbs (29 kg)or less (the weight of an infant or small child).8.Impact sensors that can detect a moderate-to-severe front or sideimpact.9.An indicator on the dashboard that alerts you that the front passenger’sfront airbag has been turned off.10.An indicator on the instrument panel that alerts you to a possibleproblem with the airbag system or seat belt tensioners.11.Safing sensor.12.A rollover sensor that can detect if your vehicle is about to roll over andsignal the control unit to deploy both side curtain airbags.n Airbag CareYou do not need to, and should not, perform any maintenance on or replace any airbag system components yourself. However, you should have your vehicle inspected by a dealer in the following situations:When the airbags have deployedIf an airbag has inflated, the control unit and other related parts must be replaced. Similarly, once an automatic seat belt tensioner has beenactivated, it must be replaced.When the vehicle has been in a moderate-to-severe collisionEven if the airbags did not inflate, have your dealer inspect the following: the driver’s seat position sensor, weight sensors in the passenger’s seat, front seat belt tensioners, and each seat belt that was worn during thecrash.Do not remove or modify a front seat without first consulting a dealerThis would likely disable or affect the driver’s seat position sensor or the weight sensors in the passenger’s seat. If it is necessary to remove ormodify a front seat to accommodate a person with disabilities, contact a Honda dealer. For U.S. vehicles, call Honda Automobile Customer Service at (800)999-1009. For Canadian vehicles, call Honda Canada CustomerRelations at (888) 946-6329.。

中英文文献翻译—基于GPS速度计算纵向车轮和轮胎滑移参数

中英文文献翻译—基于GPS速度计算纵向车轮和轮胎滑移参数

附 录A 外文文献Calculating Longitudinal Wheel Slip and Tire ParametersUsing GPS VelocityABSTRACTWhile tire parameters are quite important to both current vehicle control systems andproposed future systems, these parameters are subject to considerable variability and aredifficult to estimate while driving due to the unavailability of absolute vehicle velocity . Thispaper details a method of generating longitudinal tire force-slip curves using absolutevelocity information from the Global Positioning System (GPS). By combining GPSmeasurements with measured wheel speeds, the effective tire radius and longitudinalstiffness of the tires can be identified using a simple least-squares regression technique.Preliminary results demonstrate the feasibility of the technique, show that the effectiveradius can be identified with considerable precision and suggest that the identifiedlongitudinal stiffness exhibits noticeable sensitivity to changes in inflation pressure. INTRODUCTIONThe longitudinal forces that produce acceleration and braking on ground vehicles with pneumatic tires arise due to deformation and sliding in the tire contact patch. While theactual motions that take place in the contact patch are somewhat complex, the forcegeneration can generally be described with sufficient accuracy in terms of wheel slip ameasure of the difference between the rotational speed of the wheel. and the translationalvelocity of the wheel center. The standard SAE definition of wheel slip is()e V R w S V -=- (1)where V is the longitudinal speed of the wheel center, w is the angular speed of the tire andR, is the effective tire radius. The effective radius is defined to be the radius of the tire whenrolling with no external torque applied about the spin axis. Since the tire flattens in thecontact patch, this value lies somewhere between the tire’s undeformed radius and staticloadea’radius.A number of different tire models for predicting tire longitudinal force in terms ofwheel slip have been derived from empirical data. Such models generally relate thelongitudinal force on a tire to the wheel slip for given values of normal force, road surface conditions, tire characteristics, and other factors (such as camber angle). Figure 1 demonstrates the general shape of such a curve generated from the commonly-used “Magic Formula” tire model . While models vary, several of the traits shown in Figure 1 are common to various mathematical models and empirical test data. First, the relation between force and slip is roughly linear at low values of slip below the point at which significant sliding occurs in the contact patch. In this region, force can be approximated as proportional to slip using an effective longitudinal stiffness of the tire.The stiffness depends on the foundation stiffness of the tire and the length of the contact patch between the tire and the road . As a result, this value depends strongly upon tire construction and inflation pressure. Beyond this linear region, the additional force generated per unit slip begins to decrease and ultimately reaches a peak, after which tire. force decreases and braking behavior becomes unstable. The peak force at which this occurs depends strongly upon the road surface and is often approximated by scaling by a peak friction value,p , as shown in Figure 1. Some experimental research has suggested that the longitudinal stiffness may also depend on road surface condition and this peak friction value . While consistent with many mathematical representations of force versus slip curves, such dependence violates the traditional brush model’s physical description of tire force generation .Since tire force generation can be described in terms of wheel slip, slip is a critical parameter in control algorithms for vehicle control systems such as anti-lock brake systems (ABS) and electronic stability control (ESP) . While many ABS algorithms rely primarily on the deceleration of the wheel , some estimate of slip is necessary to avoid lock-up on low friction surfaces. Although the definition of wheel slip in Equation 1 is quite simple,calculating slip on a vehicle is complicated by the lack of accurate measurements of either the radius or the absolute vehicle velocity. While an average radius value can usually be assumed without producing much error, some form of observer must be employed to estimate the vehicle speed . Other systems determine the vehicle’s absolute velocity by comparing the front and rear wheel speeds (assuming the car is two-wheel drive) . Recent work has demonstrated that velocity measurements derived from the Global Positioning System (GPS) can be used to provide an absolute velocity for calculating wheel slip . This avoids the drift problems inherent in observers based upon wheel speed measurement.The use of GPS velocity information has an even greater benefit beyond the generation of an accurate slip measurement. By comparing the wheel slip to estimates of the forces acting on the vehicle, the tire force versus slip characteristics can be obtained. These, in turn, can be used to feed model-based controllers for ABS or ESP systems or more advanced driver assistance systems for lanekeeping or collision avoidance. They could also be used to provide more accurate observers for periods of time when GPS information is not available. Several researchers have also suggested that by fitting the low slip region of the force-slip curve to a parameterized model - ranging in complexity from the form of Equation 2 to dynamic friction models - the peak friction point can be determined. This application represents a further use for the information that can be generated from GPS-based slip measurement, although preliminary results achieved with the system demonstrate some care in interpretation is necessary for friction detection.This paper demonstrates how tire force-slip curves - and in particular the linear region of these curves - can be determined using GPS velocity measurements and wheel speed sensors. The GPS velocity measurement is differenced to obtain absolute vehicle acceleration, which is multiplied by the vehicle mass to calculate the longitudinal force on the tires. The accuracy of the GPS data enables the estimation of the effective tire radius and longitudinal stiffness of the tires, thus completely specifying the linear part of the force-slip curves. Some preliminary tests at different pressures indicate that these values exhibit some strong dependence on tire pressure, raising a cautionary note about inferring peak friction from tire behavior at low levels of slip.CONCLUSIONSThe data shows that GPS velocity information can be combined with wheel speed information to measure tire slip and estimate longitudinal stiffness and effective radius. The data gathered are consistent with the assumption of a linear relationship between force and ship at low levels of slip as predicted by classical tire models. Radius estimation using this method exhibited considerable precision and accuracy within the difference between the undeformed and static loaded tire radii. In preliminary testing, increased inflation pressureappeared to systematically lower the longitudinal stiffness. Future work will concentrate on increasing the amount of collected data and refining data processing to establish more definitive statistical information regarding the effectiveness and sensitivity of this measurement system.附 录B 外文文献的中文译文基于GPS 速度计算纵向车轮和轮胎滑移参数一、摘要虽然轮胎都很重要参数,提出了当前车辆控制系统的系统,这些参数的未来有相当大的变化,是很难估计的驾驶时由于不能绝对车辆的速度。

车辆标准规范中英文对照汇总

车辆标准规范中英文对照汇总

车辆标准规范中英文对照车辆综合1 GB 1495-1979 机动车辆允许噪声Permissible noise limit emitted by power-driven vehicles2 GB/T 1496-1979 机动车辆噪声测量方法Measuring method for noise of power-driven vehicles3 GB/T 3730.1-1988 汽车和半挂车的术语和定义车辆类型Motor vehicle and semi-trailer-type-terms and definitions4 GB/T 3730.2-1996 道路车辆质量词汇和代码Road vehicle--Masses--Vocabulary and codes5 GB/T 3730.3-1992 汽车和挂车的术语及其定义车辆尺寸Motor vehicles and towed vehicles—Dimensions of vehicles—Terms and definitions6 GB 4094-1994 汽车操纵件、指示器及信号装置的标志Motor vehicles--Symbols for controls,indicators and tell-tales7 GB/T 4782-1984 道路车辆--操纵件、指示器及信号装置--词汇Road vehicles--Controls, indicators and tell-tales--Vocabulary8 GB/T 4970-1996 汽车平顺性随机输入行驶试验方法Method of random input running test--Automotive ride comfort9 GB/T 7031-1986 车辆振动输入路面平度表示方法Vehicle vibration--Describing method for road surface irregularity10 GB 8410-1994 汽车内饰材料的燃烧特性Flammability of automotive interior materials11 GB/T 9417-1988 汽车产品型号编号规则Motor vehicles-type and model designation12 GB/T 11551-1989 汽车乘员碰撞保护Motor vehicles—Occupant cash protection13 GB 11552-1989 汽车内部凸出物Motor vehicles—Internal protrusions14 GB 11553-1989 汽车正面碰撞时对燃油泄漏的规定Motor vehicles—Regulation of fuel leakage during frontal impact15 GB/T 11559-1989 汽车室内尺寸测量用三维H点装置Motor vehicles—Use in defining their seating accommodations—Three dimensional H point machine16 GB/T 11568-1989 汽车罩锁装置Motor vehicles—Hood latch system17 GB/T 12478-1990 客车防尘密封性试验方法Dust proof performance—Test method for buses18 GB/T 12480-1990 客车防雨密封性试验方法Rain proof performance test mothod for buses19 GB/T 12484-1990 客车车身术语Terms for the bus body20 GB/T 12534-1990 汽车道路试验方法通则Motor vehicles—General rules of road test method21 GB/T 12535-1990 汽车起动性能试验方法Motor vehicles—Starting performance—Test methods22 GB/T 12536-1990 汽车滑行试验方法Motor vehicles—Coastdown—Test method23 GB/T 12537-1990 汽车牵引性能试验方法Motor vehicles—Towing performance—Test method24 GB/T 12538-1990 汽车重心高度测定方法Motor vehicles—Height of gravity center—Measuring method25 GB/T 12539-1990 汽车爬陡坡试验方法Motor vehicles—Steep hill climbing—Test method26 GB/T 12540-1990 汽车最小转弯直径测定方法Motor vehicles—Minimum turning diameter—Method of measurment27 GB/T 12541-1990 汽车地形通过性试验方法Motor vehicles—Passing topography capacity—Test method28 GB/T 12542-1990 汽车发动机冷却系冷却能力道路试验方法Motor vehicles—Cooling capacity for engine cooling system—Test method on road29 GB/T 12543-1990 汽车加速性能试验方法Motor vehicles—Acceleration performance—Test method30 GB/T 12544-1990 汽车最高车速试验方法Motor vehicles—Maximum speed—Test method31 GB/T 12545-1990 汽车燃料消耗量试验方法Motor vehicles—Fuel consumption test method32 GB/T 12546-1990 汽车隔热通风试验方法Motor vehicles—Ventilation and heat insulation—Test method33 GB/T 12547-1990 汽车最低稳定车速试验方法Motor vehicles—Minimum stable speed—Test method34 GB/T 12549-1990 汽车操纵稳定性术语及其定义Automotive controllability and stability—Terms and definitions35 GB/T 12674-1990 汽车质量(重量)参数测定方法Motor vehicles—Weight parameter—Measuring method36 GB/T 12677-1990 汽车技术状况行驶检查方法Motor vehicles—Technical condition—Inspection method37 GB/T 12678-1990 汽车可靠性行驶试验方法Reliability running test method for automobiles38 GB/T 12679-1990 汽车耐久性行驶试验方法Motor vehicles—Durability running—Test method39 GB/T 13860-1992 地面车辆机械振动测量数据的表述方法Mechanical vibrations--Land vehicles-Method for reporting measured data40 GB/T 14168-1993 汽车制动液类别图形标志Motor vehicles--Graphical symbols to designate brake fluid types41 GB/T 14172-1993 汽车静侧翻稳定性台架试验方法Static roll stability test method for motor vehicles42 GB/T 15089-1994 机动车辆分类Motor vehicles--Classification43 GB 15740-1995 汽车防盗装置性能要求Motor vehicle--Protective devices against unauthorized use--Performance requirments44 GB/T 16735-1997 道路车辆车辆识别代号(VIN)位置与固定Road vehicles--Vehicle identification number(VIN)--Location and attachment45 GB/T 16736-1997 道路车辆车辆识别代号(VIN)内容与构成Road vehicles--Vehicle identification number(VIN)--Content and structure46 GB/T 16737-1997 道路车辆世界制造厂识别代号(WMI)Road vehicles--World manufacturer identifier(WMI)code47 GB/T 16738-1997 道路车辆世界零件制造厂识别代号(WPMI) Road vehicler--World parts manufacturer identifier(WPMI)code48 GB 7258-1997 机动车运行安全技术条件Safety specifications for motor vehicles operating on roads49 GB 13094-1997 客车结构安全要求The safety requirements for bus construction50 GB/T 16888-1997 客车安全顶窗The escape hatch of bus汽车发动机1 GB/T 5923-1986 汽车柴油机燃油滤清器的试验方法Test methods of fuel filters for automotive compression ignition engines2 GB/T 5924-1986 汽车柴油机燃油滤清器的试验值及分级Test values and classification of fuel filters for automotive compression ignition engines3 GB/T 12781-1991 汽车供油系气阻试验方法Motor vehicles—Vapor lock for fuel system—Test method4 GB/T 12782-1991 汽车采暖性能试验方法Motor vehicle—Heating performance—Test method5 GB/T 14169-1993 汽车空气滤清器接头A型和B型Air filter connections for motor vehicles--Types A and B6 GB/T 14170-1993 载货汽车空气滤清器滤芯尺寸规范Air filter elements for trucks--Dimensions7 GB/T 8409-1999 汽车发动机旋装式机油滤清器连接尺寸Road vehicles--Intermal combustion engines--Spin-on filters for lubrication oil--Dimension8 GB/T 17653-1999 汽车柴油机旋装式燃油滤清器安装和连接尺寸Road vehicles--Spin-on fuel filters for combustion-ignition engines--Mounting and dimensions9 GB/T 17692-1999 汽车用发动机净功率测试方法Measurement methods of net power for automotive engines汽车底盘与车身1 GB 1589-1989 汽车外廓尺寸限界Outside dimension limits of motor vehicles2 GB/T 2933-1995 充气轮胎用车轮和轮辋的术语、规格代号和标志Wheels/rims for pneumatic tyres--Nomenclature,designation and marking3 GB/T 3487-1996 汽车轮辋规格系列Rim contours for motor vehicles4 GB/T 4095-1995 载货汽车辐板式车轮在轮毂上的安装尺寸Disc wheels for trucks--Dimensional characteristics of attachment on hub5 GB/T 4784-1984 使用非石油基制动液的汽车液压制动软管总成Brake hose assemblies for hydraulic braking systems of motor vehicles used with a non-petroleum base hydrau-lic fluids6 GB/T 5334-1995 轿车钢制车轮性能要求和试验方法Performance requirements and test methods of passenger car steel wheels7 GB/T 5335-1985 汽车制动装置液压试验的连接器Automobile hydraulic pressure test connection for braking equipment8 GB/T 5345-1985 制动液容器的标记Labelling of containers for brake fluid9 GB/T 5620.1-1985 汽车和挂车制动名词术语及其定义制动系种类、组成、力学及现象The terms and definitions of braking of automotive vehicles and their trailers--Types,constituent elements,braking mechanics and phenomenon of braking system10 GB/T 5620.2-1985 汽车和挂车制动名词术语及其定义零部件The terms and definitions of braking of automotive vehicles and their trailers--The parts and components of braking equipment11 GB/T 5909-1995 载货汽车车轮性能要求和试验方法Performance requirements and test methods of truck wheels12 GB/T 5911-1986 转向盘尺寸Steering wheel--Dimensions13 GB/T 5921-1986 汽车和挂车气压制动系部件上接口的识别标记Motor vehicles and towed vehicles--Air braking systems--Identification of connections on units14 GB/T 5922-1986 汽车和挂车气压制动装置压力测试连接器Motor vehicles and towed vehicles--Pressure test connection for compressed-air pneumatic braking equipment15 GB/T 6792-1996 客车车身骨架应力、形变测量方法Measure method of stress and deformation for bus budy skeleton16 GB 7062-1986 汽车气制动软管总成Automotive air brake hose assemblies17 GB 7063-1994 汽车护轮板The wheel guards of motor vehicles18 GB/T 7680-1987 液力变矩器性能试验方法Hydrodynamic torque converter--Method of performance tests19 GB/T 10484-1989 汽车真空制动软管总成Vacuum brake hose assemblies for motor vehicle20 GB/T 11549-1989 汽车安全带总成性能要求和试验方法Motor vehicles—Safety belt assemblies—Performance requirements and test methods21 GB 11550-1995 汽车座椅头枕性能要求和试验方法Motor vehicles--Seats head vestraints--Performance requirements and test methods22 GB 11555-1994 汽车风窗玻璃除雾系统的性能要求及试验方法Motor vehicles--Windshield demisters--Performance requirements and test methods23 GB 11556-1994 汽车风窗玻璃除霜系统的性能要求及试验方法Motor vehicles--Windshield defrosters--Performance requirements and test methods24 GB/T 11558-1989 汽车安全带用卷收器性能要求和试验方法Motor vehicles—Retractors for safety belt—Performance requirements and test methods25 GB 11561-1989 汽车加速器控制系统的技术要求Motor vehicles—Accelerator control systems—Technical requirements26 GB 11562-1994 汽车驾驶员前方视野要求及测量方法Motor vehicles--Forward visibility for drivers--Requirements and measurement methods27 GB/T 11563-1995 汽车H点确定程序Motor vehicles--Procedure for H-point determination28 GB 11565-1989 轿车风窗玻璃刮水器刮刷面积Passenger cars—Windshield wipers—Wiped areas29 GB 11566-1995 轿车外部凸出物Passenger car--External protrusions30 GB 11567-1994 汽车和挂车侧面及后下部防护装置要求Motor vehicles and trailers--Lateral and underrun protections--Requirements31 GB/T 11611-1989 汽车液压制动系金属管、内外螺纹管接头和软管端部接头Motor vehicles—Hydraulic braking systems—Pipes tapped holes, male fittings and hose end fittings32 GB/T 12482-1990 客车侧窗平面玻璃规格系列Side window flat glasses systematization for buses33 GB/T 12483-1990 客车风窗、后窗玻璃规格系列Buses windscreen and rear window glass—Systematization34 GB/T 12673-1990 汽车主要尺寸测量方法Molor vehicles—Basic dimensions—Measuring method35 GB/T 12780-1991 货车、客车制动器台架试验方法Trucks and buses—Brake—Bench test methods36 GB/T 13051-1991 汽车机械式变速器动力输出孔连接尺寸Motor vehicles—Connections for PTO37 GB/T 13053-1991 客车驾驶区尺寸Bus driver compartment dimensions38 GB/T 13054-1991 客车驾驶区尺寸术语Bus driver compartment dimensions terms39 GB/T 13055-1991 客车乘客区尺寸Bus passenger compartment dimensions40 GB/T 13056-1991 客车乘客区尺寸术语Bus passenger compartment dimension terms41 GB/T 13057-1991 客车驾驶员座椅尺寸规格Bus driver seat—Dimensions42 GB/T 13058-1991 客车驾驶员座椅技术条件Bus drivers seat—Technical specification43 GB/T 13059-1991 客车乘客座椅尺寸规格Bus passenger seat—Dimensions44 GB/T 13060-1991 客车乘客座椅技术条件Bus passenger seat—Technical specifications45 GB/T 13061-1991 汽车悬架用空气弹簧橡胶气囊Air spring for automotive suspension—Rubber bellows46 GB 13594-1992 汽车防抱制动系统性能要求和试验方法Vehicles anti-lock braking systems performence requiremants and test procedures47 GB/T 13604-1992 汽车转向球接头尺寸Motor vehicles—Steering ball joints—Dimensions48 GB 14166-1993 汽车安全带性能要求和试验方法Motor vehicles--Safety belt assemblies--Performance requirements and test methods49 GB 14167-1993 汽车安全带安装固定点Motor vehicles--Safety belt anchorages50 GB/T 14171-1993 汽车气制动系管路螺纹孔和管接头外螺纹Motor vehicles--Pneumatic braking systems--Tapped holes and male fittings51 GB 15083-1994 汽车座椅系统强度要求及试验方法Motor vehicles--Seat systems--Strengthrequirements and test methods52 GB 15084-1994 汽车后视镜的性能和安装要求Motor vehicles--Rear view mirrors--Requirements of performance and installation53 GB 15085-1994 汽车风窗玻璃刮水器、洗涤器的性能要求及试验方法Motor vehicles--Windshield wipers and washer systems--Performance requirements and test methods54 GB 15086-1994 汽车门锁及门铰链的性能要求和试验方法Motor vehicles--Door locks and door hinges--Performance requirements and test methods55 GB/T 15087-1994 汽车牵引车与全挂车机械连接装置强度试验Motor vehicles--Drawbar couplings and eyes for hinged drawbars--Strength test56 GB/T 15088-1994 汽车半挂车牵引座牵引销强度试验Motor vehicles--Fifth wheel coupling pins--Strength test57 GB/T 15704-1995 轿车车轮冲击试验方法Passenger cars--Wheels--Impact test procedure58 GB/T 15705-1995 载货汽车驾驶员操作位置尺寸Trucks--Operating position demensions of driver59 GB 15741-1995 汽车和挂车号牌板(架)及其位置The license plates (crackets) and its position on motor vehicles and trailer60 GB 15743-1995 轿车侧门强度Passenger car--Strength of side doors61 GB 16897-1997 制动软管Brake hose62 GB/T 17346-1998 轿车脚踏板的侧向间距Passenger cars--Lateral spacing of foot controls63 GB 11557-1998 防止汽车转向机构对驾驶员伤害的规定The stipulation protecting drivers from being injured by motor vehicle steering mechanism64 GB/T 17351-1998 汽车车轮双轮中心距Dual spaeing of vechicle wheels65 GB 17354-1998 汽车前、后端保护装置Front and rear protective devices for passenger cars66 GB/T 17578-1998 客车上部结构强度的规定Provisions of strength for the Superstructure of bus67 GB 12676-1999 汽车制动系统结构、性能和试验方法Road vehicles-Braking systems-Structure performance and test methods68 GB 17675-1999 汽车转向系基本要求Steering system of motor vehicles-Basic requirements69 GB/T 17676-1999 天然气汽车和液化石油气汽车标志Natural gas vehicle and liquefied petroleum gas vehicle Identification marks车辆通用零部件1 GB/T 1359-1978 汽车与挂车气制动接头型式与尺寸Pneumatic brakes for motor vehicls and their trailers-couplings--Types and dimensions2 GB/T 7726.1-1998 铰接式客车机械连接装置术语Mechanical connections of articulated bus Glossary3 GB/T 7726.2-1998 铰接式客车机械连接装置技术要求Mechanical connections of articulated bus Technical requirements4 GB/T 7726.3-1998 铰接式客车机械连接装置球头销Mechanical connections of articulated bus Ball pin5 GB/T 7726.4-1998 铰接式客车机械连接装置球形衬套Mechanical connections of articulated bus Ball socket6 GB/T 7726.5-1998 铰接式客车机械连接装置伸缩篷Mechanical connections of articulated bus Telescopic tarpaulin车用电子、电气设备与仪表1 GB 4599-1994 汽车前照灯配光性能Photometric characteristics of headlamps for motor vehicles2 GB/T 4659-1984 汽车前照灯类型、主要尺寸和连接尺寸Type,main size and mounted dimension of headlamps for motor vehicle3 GB 4660-1994 汽车前雾灯配光性能Photometric characteristics of front fog lamps for motor vehicles4 GB/T 5053.1-1985 汽车与挂车之间24N 型电连接器Electrical connections between motor vehicles and towed vehicles--Type 24N5 GB/T 5053.2-1985 汽车与挂车之间12N 型电连接器Electrical connections between motor vehicles and towed vehicles--Type 12N6 GB/T 5053.3-1985 汽车与挂车之间电连接器的试验方法与要求Test methods and requirements of electrical connections between motor vehicles and towed vehicles7 GB/T 5054-1985 汽车与挂车的七芯电缆线Seven-core connecting cable of motor vehicles and towed vehicles8 GB/T 5337-1985 汽车电器、灯具和仪表名词术语Nomenclature and terminology for automotive electrical equipment, lighting and instrumentation9 GB 5920-1994 汽车前和后位(侧)灯、示廓灯和制动灯配光性能Photometric characteristics of front and rear position (side)lamps, end-outline marker lamps and stop lamps for motor vehicles and their trailers 10 GB/T 6784-1986 M10×1平座火花塞及其气缸盖安装孔Spark plug M10×1 with flat seating and cylinder head housing11 GB/T 6785-1986 M12×1.25 平座火花塞及其气缸盖安装孔Spark plug M12×1.25 with flat seating and cylinder head housing12 GB/T 6786-1986 M14×1.25 平座火花塞及其气缸盖安装孔Spark plug M14×1.25 with flat seating and cylinder head housing13 GB/T 6787-1986 M14×1.25 矮型平座火花塞及其气缸盖安装孔Compact spark plug M14×1.25 with flat seating and cylinder head housing14 GB/T 6788-1986 M14×1.25 矮型锥座火花塞及其气缸盖安装孔Compact spark plug M14×1.25 with conical seating and cylinder head housing15 GB/T 6789-1986 M14×1.25 锥座火花塞及其气缸盖安装孔Spark plug M14×1.25 with conical seating and cylinder head housing16 GB/T 6790-1986 M18×1.5 平座火花塞及其气缸盖安装孔Spark plug M18×1.5 with flat seating and cylinder head housing17 GB/T 6791-1986 M18×1.5 锥座火花塞及其气缸盖安装孔Spark plug M18×1.5 with conical seating and cylinder head housing18 GB/T 7360-1987 汽车与挂车照明和信号装置的工作电压及其测量Working voltages and their measurement for lights and lighting signal devices fitted to motor vehicles and towed vehicles19 GB/T 7825-1987 火花塞Spark plugs20 GB/T 10485-1989 汽车和挂车外部照明和信号装置基本环境试验Basic environmental testing of lighting and light signalling devices for motor vehicles and their trailers21 GB/T 12548-1990 汽车速度表、里程表检验校正方法Motor vehicles—Speedometer and odometer—Calibration method22 GB 15082-1994 汽车用车速表Motor vehicles--Speed meters23 GB 15235-1994 汽车倒车灯配光性能Photometric characteristics of reversing lamps for motor vehicles and their trailers24 GB 15742-1995 汽车电喇叭的性能要求及试验方法Automotive--Electric horn--Performance requirements and test methods25 GB/T 17348-1998 道路车辆会车光束倾斜角随载荷变化的测量Motor vehicle--Measurement of variations in dipped beam headlamp angle as a function of load26 GB/T 17349.1-1998 道路车辆汽车诊断系统词汇Road vehicles--Diagnostic systems for motor vehicles--Vocabulary27 GB/T 17349.2-1998 道路车辆汽车诊断系统图形符号Rord vehicle Diagnostic systym Graphical symbols28 GB 17509-1998 汽车和挂车转向信号灯配光性能Photometric characteristics of direction indicators for motor vehicles and their trailers29 GB 17510-1998 摩托车光信号装置配光性能Photometric characteristics of light-signalling devices for motorcycles30 GB 4785-1998 汽车及挂车外部照明和信号装置的安装规定Prescription for installation of the external lighting and light signalliug devices for motor vehicles and their trailers31 GB 11554-1998 汽车及挂车后雾灯配光性能Photometric characteristics of rear fog lamp for motor vehicles and their tralers32 GB 11564-1998 机动车回复反射器Retro refletor for motor vehicles33 GB 5948-1998 摩托车白炽丝光源前照灯配光性能Photometric characteristics of motocycle headlamps epuipped with filament light sources汽车1 GB/T 918.1-1989 道路车辆分类与代码机动车Classification and code for road vehicles—Motor vehicle2 GB/T 918.2-1989 道路车辆分类与代码非机动车Classification and code for road vehicles—Non-motor vehicle3 GB/T 1332-1991 载货汽车定型试验规程Trucks—Engineering approval evaluation program4 GB/T 1333-1977 汽车产品质量定期检查试验规程Test code for regular quality inspection of automobile products5 GB/T 4780-1984 载货汽车车身名词、术语Glossary of truck body6 GB/T 4971-1985 汽车平顺性名词术语和定义Terms and definitions--Automotive ride comfort7 GB/T 5902-1986 汽车平顺性脉冲输入行驶试验方法Method of pulse input running test--Automobile ridecomfort8 GB/T 6104-1985 机动工业车辆名词术语Powered industrial trucks--Terminology9 GB/T 6323.1-1994 汽车操纵稳定性试验方法蛇行试验Controllability and stability test procedure for automobiles--Pylon course slalom test10 GB/T 6323.2-1994 汽车操纵稳定性试验方法转向瞬态响应试验(转向盘转角阶跃输入) Eontrollability and stability test procedure for automobiles--Steering transient response test(Steering wheel angle step input)11 GB/T 6323.3-1994 汽车操纵稳定性试验方法转向瞬态响应试验(转向盘转角脉冲输入) Contorllability and stability test procedure for automobiles--Steering transient response test(Steering wheel angle pulse input)12 GB/T 6323.4-1994 汽车操纵稳定性试验方法转向回正性能试验Controllability and stability test procedure for automobiles--Returnability test13 GB/T 6323.5-1994 汽车操纵稳定性试验方法转向轻便性试验Controllability and stability test procedure for automobiles--Steering efforts test procedure14 GB/T 6323.6-1994 汽车操纵稳定性试验方法稳态回转试验Controllability and stability test procedurefor automobiles--Steady static circular test procedure15 GB/T 7361-1987 半挂牵引车的制动及电路连接位置Brake and electrical connection locations of semi-trailer towing vehicle16 GB/T 7362-1987 全挂牵引车和货车的制动及电路连接位置Brake and electrical connection locations of truck andtrailer-towing vehicle17 GB/T 11380-1989 客车车身涂层技术条件Technical requirement for bus body coating18 GB/T 11381-1989 客车顶部静载试验方法Method of static load test for bus top19 GB/T 11382-1989 客车前保险杠效能试验方法正面固定式障壁碰撞试验Effect test procedure of front bumper for bus--Head-on collision with fixed wall20 GB/T 11709-1989 客车产品质量定期检查试验规程The regulated inspecting test procedure for bus21 GB/T 12427-1990 客车产品系列型谱Series and spectrum of buses22 GB/T 12428-1990 客车装载质量计算方法Laden mass calculation of buses23 GB/T 12429-1990 客车车身二氧化碳气体保护焊焊接质量要求及检验方法The quality requirement and test method for the carbon-dioxide arc welding of coach-body24 GB/T 12430-1990 客车乘客扶手杆的固定件基本型式与规格尺寸Basic type and size of fixings for passenger hand-rails in buses25 GB/T 12431-1990 客车乘客扶手杆断面Sections of passengers hand-rails in buses26 GB/T 12432-1990 客车乘客门门泵技术条件Specification for passenger door cylinder of buses27 GB/T 12433-1990 客车乘客门门泵试验方法Testing method for passenger door cylinder of buses28 GB/T 12675-1990 微型货车出厂检验方法Test methods of inspection after production for mini-truck29 GB/T 13043-1991 客车定型试验规程Buses—Engineering approval evaluation program30 GB/T 13044-1991 轻型客车定型试验规程Light buses—Engineering approval evaluation program31 GB/T 13046-1991 轻型客车产品质量定期检查试验规程Testing regulations for light bus and light van periodical inspection32 GB/T 16887-1997 卧铺客车技术条件Specification for sleeper bus33 GB/T 5910-1998 轿车质量分布Passenger car Mass distribution34 GB/T 17347-1998 商用道路车辆尺寸代码Commercial road vehicles Dimensional codes专用汽车1 GB/T 9465.1-1988 高空作业车分类Aerial platform--Classification2 GB/T 9465.2-1988 高空作业车技术条件Aerial platform--Specification3 GB/T 9465.3-1988 高空作业车试验方法Test methods for aerial platform4 GB/T 12503-1995 电视机通用技术条件Generic specification for TV vans5 GB/T 17350-1998 专用汽车和专用半挂车术语和代号Terms and marks in special automobiles and semi-trailers拖拉机1 GB/T 1592-1986 农业拖拉机动力输出轴Power take-off for agricultural tractors2 GB/T 1593.1-1996 农业轮式拖拉机后置式三点悬挂装置第1部分: 1、2、3和4类Agricultural wheeled tractors--Rear-mounted three-point linkage--Part 1: Categories 1,2,3 and 43 GB/T 1593.2-1987 农用轮式拖拉机三点悬挂装置第二部分: 1N类Agricultural wheeled tractors--Three-point linkage--Part 2: CategorY 1 N4 GB/T 1593.3-1987 农业轮式拖拉机三点悬挂装置第三部分: 0 类Agricultural wheeled tractors--Three-point linkage--Part 3: Categories 05 GB 1593.4-1987 农用轮式拖拉机三点悬挂装置第四部分:0类Agricultural wheeled tractors--Three-point linkage--Part 4: Category 06 GB/T 2777-1992 农业拖拉机动力输出轴安全防护罩型式尺寸和强度要求Power take-off safety shield for agricultural tractors--Types, dimensions and strength specifications7 GB/T 2778-1992 农业拖拉机动力输出皮带轮圆周速度和宽度Power take-off pulley for agricultural tractors--Peripheral speed and width8 GB/T 2779-1992 拖拉机拖挂装置型式尺寸和安装要求Tractor's connective equipment for trailers--Types, dimensions and mounting requirements9 GB/T 2780-1992 农业拖拉机牵引装置型式尺寸和安装要求Darwbars for agricultural tractors--Types dimensions and mounting requirements10 GB/T 3373-1982 拖拉机和农业、林业机械用轮辋Rims for tractors,agricultural and forestry machines11 GB/T 3871.1-1993 农业轮式和履带拖拉机试验方法第1 部分通用要求Test methods for agricultural wheeled and tracklaying tractors--Part 1: General requirements12 GB/T 3871.2-1993 农业轮式和履带拖拉机试验方法第2 部分整机参数测定Test methods for agricultural wheeled and tracklaying tractors--Part 2: Measurements of tractor parameters13 GB/T 3871.3-1993 农业轮式和履带拖拉机试验方法第3 部分动力输出轴功率试验Test methods for agricultural wheeled and tracklaying tractors--Part 3: PTO power tests14 GB/T 3871.4-1993 农业轮式和履带拖拉机试验方法第4 部分液压提升能力和输出功率试验Test methods for agricultural wheeled and tracklaying tractors--Part 4: Hydraulic lifting capacity and power tests15 GB/T 3871.5-1993 农业轮式和履带拖拉机试验方法第5 部分转向和离合器操纵试验Test methods for agricultural wheeled and tracklaying tractors--Part 5: Turning and clutch operating tests16 GB/T 3871.6-1993 农业轮式和履带拖拉机试验方法第6 部分制动试验Test methods for agricultural wheeled and tracklaying tractors--Part 6: Braking tests17 GB/T 3871.7-1993 农业轮式和履带拖拉机试验方法第7 部分视野测定Test methods for agricultural wheeled and tracklaying tractors--Part 7: Measurements of operator's field vision18 GB/T 3871.8-1993 农业轮式和履带拖拉机试验方法第8 部分噪声测量Test methods for agricultural wheeled and tracklaying tractors--Part 8: Measurements of noise19 GB/T 3871.9-1993 农业轮式和履带拖拉机试验方法第9 部分牵引功率试验Test methods for agricultural wheeled and tracklaying tractors--Part 9: Drawbar power tests20 GB/T 3871.10-1993 农业轮式和履带拖拉机试验方法第10部分低温起动试验Test methods for agricultural wheeled and tracklaying tractors--Part 10: Low temperature starting tests21 GB/T 3871.11-1993 农业轮式和履带拖拉机试验方法第11部分高温适应性试验Test methods for agricultural wheeled and tracklaying tractors--Part 11: Suitability tests for hot atmosphere22 GB/T 3871.12-1993 农业轮式和履带拖拉机试验方法第12部分使用试验Test methods for agricultural wheeled and tracklaying tractors--Part 12: Working tests23 GB/T 4329-1984 农业拖拉机三点悬挂装置锁销尺寸Three-point-linkage for agricultural tractors--Dimensions of linch pins24 GB/T 6229-1995 手扶拖拉机试验方法Methods of test for walking tractor25 GB/T 6236-1986 农业拖拉机驾驶座标志点Agricultural tractors--Operator's seat index point26 GB/T 6238-1986 农业拖拉机驾驶室的门道、紧急出口与驾驶员的工作位置尺寸Agricultural tractors--Access, exit and the operator's workplace--Dimensions27 GB 6376-1995 拖拉机噪声限值Noise limitation for tractors28 GB/T 6960.1-1995 拖拉机术语整机Tractor terminology--Complete tractor29 GB/T 6960.2-1995 拖拉机术语传动系Tractor terminology--Transmission system30 GB/T 6960.3-1995 拖拉机术语制动系Tractor terminology--Braking system31 GB/T 6960.4-1995 拖拉机术语行走系Tractor terminology--Running gears and undercarriages32 GB/T 6960.5-1995 拖拉机术语转向系Tractor terminology--Steering system33 GB/T 6960.6-1995 拖拉机术语液压悬挂系及牵引、拖挂装置Tractor terminology--Hydraulic hitch system and drawbar, hook34 GB/T 6960.7-1995 拖拉机术语驾驶室、驾驶座和覆盖件Tractor terminology--Cab, seat and sheet metal35 GB/T 6960.8-1986 拖拉机名词术语第八部分履带行走系统Tractor terminology--Part 8: Endless track installation for track laying tractor36 GB/T 6961-1986 拖拉机动力输出轴和牵引装置的使用要求Operating requirements for tractor power take-off and drawbars37 GB/T 6972-1986 农业轮式拖拉机驾驶座振动的测量Agricultural wheeled tractors--Operator's seat--Measurement of trahsmitted vibration38 GB/T 7120-1986 农用轮式拖拉机三点悬挂农具快速挂接器3N类Three-Point hitch implement quick-attaching coupler of agricultural wheeled tractors--Category 3N39 GB 7121-1986 农林轮式拖拉机防护装置强度试验方法和验收条件Agricultural and forestry wheeled tractors--Protective structures--Test method in the strength and acceptance conditions40 GB/T 7927-1987 手扶拖拉机振动测量方法Method of measurement for walking tractor vibration41 GB/T 8421-1987 农业轮式拖拉机驾驶座传递振动的评价指标Agricultural wheeled tractors--Operator seat--Evaluation criteria of transmitted vibration42 GB/T 10176-1988 手扶拖拉机牵引装置和动力输出皮带轮Walking tractors--Drawbar and pulley of power take off43 GB/T 10910-1989 农业轮式拖拉机驾驶员全身振动的测量Agricultural wheeled tractors—Measurement of whole-body vibration of the operator44 GB/T 10911-1989 农业轮式拖拉机和后悬挂农具的匹配Matching of agricultural wheeled tractors and rear mounted implements45 GB/T 10916-1989 农业轮式拖拉机前悬挂装置第一部分: 1、2类Agricultural wheeled tractors—Front-mounted linkage —Part 1: Category 1, 246 GB/T 10917-1989 农用轮式拖拉机前置动力输出轴Front-mounted power take-off for agricultural wheeled tractors47 GB/T 13875-1992 手扶拖拉机通用技术条件The general specification for walking tractors48 GB/T 13876-1992 农业轮式拖拉机驾驶员全身振动的评价指标Agricultural wheeled tractors--Evaluation criteria of whole body vibration of the operator49 GB/T 13877-1992 农业拖拉机和自走式机具密封驾驶室加压系统试验方法Agricultural tractors and self-propelled machines--Test method for enclosure pressurization systems50 GB/T 13878-1992 农业拖拉机和自走式机具封闭驾驶室采暖和通风系统性能试验方法Agricultural tractors and self-propelled machines--Performance of heating and ventilation systems in closed cabs--Method of test51 GB/T 14226-1993 草坪和园艺拖拉机三点悬挂装置Lawn and garden tractors--Three-point hitch52 GB/T 14785-1993 拖拉机和农林机械车轮侧向负载疲劳试验方法Wheels side load fatigue test methods for tractors, agricultural and forestry machines53 GB/T 14786-1993 拖拉机和农林机械车轮扭转疲劳试验方法Wheels torsion fatigue test methods for tractors, agricultural and forestry machines54 GB 15369-1994 农林拖拉机和机械安全技术要求第三部分: 拖拉机Tractors and machinery for agriculture and forestry--Technical means for ensuring safety--Part 3: Tractors55 GB/T 15370-1994 农业轮式和履带拖拉机通用技术条件General Specifications for agricultural wheeled and tracking tractors56 GB/T 15832-1995 林业轮式和履带拖拉机通用技术条件General specifications for forestry wheeled and tracklaying tractors57 GB/T 15833-1995 林业轮式和履带拖拉机试验方法Test methods for forestry wheeled and tracklaying tractors58 GB/T 6235-1997 农业拖拉机驾驶座及主要操纵装置位置尺寸Agricultural tractors--Operator's seating accommodation--Dimensions59 GB/T 16877-1997 拖拉机禁用与报废Prohibition and scrapping for tractors60 GB/T 17122-1997 草坪和园艺乘座式拖拉机动力输出套管Lawn and garden ride-on (riding) tractors--Power take-off61 GB/T 17123-1997 草坪和园艺乘座式拖拉机单点套管式悬挂装置Lawn and garden ride-on (riding) tractors--One-point tubular sleeve hitch62 GB/T 17124-1997 草坪和园艺乘座式拖拉机牵引杆Lawn and garden ride-on (riding) tractors--Drawbar63 GB/T 6232-1998 农林拖拉机和机械车轮在轮毂上安装尺寸Tractors and machinery for agriculture and forestry-Wheel-to-hub fixing dimensions挂车1 GB/T 4330-1984 农业挂车Agricultural trailer2 GB/T 4331-1984 农用挂车试验方法Test methods for agricultural trailers3 GB/T 4606-1984 道路车辆半挂车鞍座50号牵引销主要尺寸和安装、互换性尺寸Road vehicles--50 semi-trailer fifth wheel coupling pin--Basic and mounting/interchangeability dimensions4 GB/T 4607-1984 道路车辆半挂车鞍座90号牵引销主要尺寸和安装、互换性尺寸Road vehicles--90 semi-trailer fifth wheel coupling pin--Basic and mounting/interchangeability dimensions5 GB/T 4781-1984 牵引车与全挂车的机械连接装置互换性Mechanical connection between towing vehicle and full trailers for interchangeability6 GB/T 6420-1986 货运挂车系列型谱Freight trailer series pedigree7 GB/T 13872-1992 货运挂车定型试验规程Trailer--Rules for the identification test8 GB/T 13873-1992 货运挂车试验方法Trailer--Test procedure9 GB/T 13874-1992 货运挂车质量定期检查试验规程Trailer--Rules for the periodic quality inspection test10 GB/T 13880-1992 半挂牵引车牵引座的安装Road vehicles--Semi trailer fifth wheel mounting11 GB/T 13881-1992 牵引车与挂车之间气制动管连接器Pneumatic braking connections between motor vehicles and towed vehicles12 GB/T 13202-1997 摩托车轮辋系列Series of motorcycle rims13 GB/T 17275-1998 货运全挂车通用技术条件Technical requirements for freight full trailers摩托车。

SAE_1988-1994中英文对照

SAE_1988-1994中英文对照

SAE_1988-1994中英文对照RESIDUAL ALIGNING MOMENT TEST残余回正力矩试验Foreword—This Document has not changed other than to put it into the new SAE Technical Standards Board format.前言:这个文件并没有改变,除了把它变成新的SAE技术标准委员会格式。

1. Scope—This SAE Recommended Practice describes the determination of tire pull force properties for an uninclined tire (SAE J670e) on a laboratory flat surface tire force and moment machine. It is suitable for accurately determining pull forces and residual aligning moments for passenger and light-truck tires. These properties are important determinants of vehicle trim (See section2.1.2). They describe steady-state, freerolling pull effects ascribable to tires.范围:这个SAE工业标准描述一个倾斜轮胎(SAEJ670e)在试验室平带力和力矩试验机测定轮胎牵引力特性。

它精确地测定PCR和LTR轮胎的牵引力和残余回正力矩。

这些特性是车辆轮胎的重要决定因素(见2.1.2节)。

它们描述轮稳态胎在自由滚动状态下的牵引作用。

The test method described in this document is suitable for comparative evaluation of tires for research and development purposes. The method is also suitable for modeling when followed carefully.本文件中描述的试验方法适用于轮胎研究和开发中的对比评价。

外文翻译:探讨汽车轮胎滚动阻力以及测试技术

外文翻译:探讨汽车轮胎滚动阻力以及测试技术

Study of automobile tire rolling resistance and testing technology Human activities on the ecological damage to the environment has become a global problem, to reduce fuel consumption, reduce automobile exhaust emissions is energy conservation, prevention of air pollution in an important measure. Vehicle energy consumption is closely related with the tire rolling resistance. On cars or light trucks, the 3.4% ~ 6.6% of fuel consumption used to overcome rolling resistance tires; of loaded radial truck tire with the car example, 12.4% ~ 14.5% of fuel consumption to overcome the rolling resistance tires . Tire rolling resistance by 10%, fuel-efficient cars will be 1.2 percent, 4 percent savings trucks. To this end,the tire manufacturers have at home and abroad to develop new low-power tires to reduce rolling resistance, saving fuel.Automobile tires in the rolling process, the total vehicle rolling resistance accounts for about 20% of the resistance, if reduced by 10% per tire rolling resistance, lower 2% ~ 3% of fuel, then rolling resistance tires to enhance the level of control of vehicle contribution to fuel economy will be significant, but also in a wide range can be achieved. Therefore, how to effectively control the tire's rolling resistance is the industry facing a key issue. This article will explore the various angles and analysis as well as tire rolling resistance testing technology.I. SummaryIn the tire rolling process, the cycle of changes in the stress and strain lead to energy loss, the formation of tire rolling resistance, also known as the tire hysteresis energy loss. Studies have shown that to overcome tire rolling resistance on fuel consumption of the general accounting for the total fuel consumption of motor vehicles more than 10%. Reduce rolling resistance tires can reduce vehicle energy consumption, so that the car farther away from efficient. Tire rolling resistance is the overall energy consumption of material, equivalent to the tire rolling units of energy loss from the rolling units in addition to its distance, the dimensionless N • m / m, although its equivalent to the dimensionless force, but from the point of view of energy analysis and understanding more convenient and reasonable.Through the measurement of rolling resistance tires can study the best section. However, the results of lab experiments can only make a comparison, the final road test should be used as the basis of the results.Second, research the history ofAs early as age 60 in the 20th century, Beijing Research and Design Institute of Rubber Industry in turn on the drum machine and measured the wire cotton tire cord tire power loss, also measured on the road when the vehicle speed steady traction resistance. At that time, due to restrictions on the use of equipment, the pilot is in its early exploratory phase of long-term. Since the mid-80s, with the accelerated development of China's tire needs, a small number of tire manufacturers from the United States, Japan and Germany with the introduction of the rolling resistance of the switch position test tire drum testing machine, combined with the development of a new type of radial tire and the analysis of foreign samples a number of tire rolling resistance tires test.Inspection. 70s from the 20th century in the United States, Japan and Europe, such as the economically developed countries, in order to solve energy shortages and the deterioration of environmental quality issues and the rolling resistance tires for a large number of experiments and research work. At the same time, tire rolling resistance testing technologies have also made remarkable progress. Beginning in 2004, the U.S. National Research Center on the control of rolling resistance tires to start a new round of extensive research. In 2007, the European Rubber Manufacturers Association also made to the EU to control the level of rolling resistance of the recommendations. Therefore, China will also face the control of rolling resistance.Third, testing technologyAt present, China has established a laboratory test-based, supplemented by the direction of the outdoor experiment. Steady-state conditions in the interior that is a constant load and speed, the tires when driving to reach thermal equilibrium Tire rolling resistance measurement method of standardization has been achieved.Preliminary results show that the simulation of the city of tire rolling resistance condition than under the conditions of steady-state rolling resistance by 26% ~ 47% of the difference between the two aroused people's interest in the emergence of a simulation of various operating conditions of automobile tires non-steady-state test. But so far did not see a unified standard test methods or test protocols. Carried out in the outdoor tire rolling resistance test methods are mainly trailer Act, taxiways and three kinds of torque method, in which a wider application of the trailer Act.Fourth, laboratory equipmentLaboratory test equipment, through decades of effort, has appeared in various types of tire rolling resistance testing machine. Their roads in accordance with the form of simulation points, and to have a steel drum two broad categories. Strip-type test machine to simulate the continuous flat surface, is very expensive test equipment tires. At present, it is the most widely to drum testing machine, in particular, a diameter of 1.7 meters to the drum. These test equipment measuring tire rolling resistance by way of points, and measuring method, torque law, power law and reduce the rate of four kinds of law. The use of existing equipment to load and torque of law are most welcome. In the past two decades, the accuracy of test equipment greatly enhanced to reduce the double measurement error, and has formed a set of test data to ensure the repeatability of the equipment necessary for accuracy. Has the full realization of China's current industrial production equipment is Jiurong Tianjin rolling resistance testing machine, is divided into car and truck tire with two types of tires, and its accuracy in line with the requirements of ISO. As the outdoor test line tire rolling resistance of non-standard test, the test equipment they use is not changed. Association for the Study of the British automobile industry with the use of the pilot housing trailers, all kinds of tires for air resistance in the same test under the conditions created.V. Test Methods1. Indoor and outdoor test testIndoor and outdoor test test test is based on the distinction between the two types of tire place test method. Indoor test of tire rolling resistance testing machine were conducted, and its experimental conditions, although the Department of simulated conditions of use but can be under control, so that good reproducibility of experimental data. Outdoor test rolling resistance tires are used on test vehicles on the road completed, it is true although the experimental conditions, but susceptible to external factors, pilot error, and therefore tire rolling resistance test to test the main indoor and outdoor test Des.2. Steady-state conditions and non-steady-state conditionsSteady-state conditions in the constant refers to the tire load and speed, and traveling in the tire to reach thermal equilibrium when measuring rolling resistance; non-steady-state conditions, it means the tire change with time in the load and speed, and tire temperature in the process of moving measuring rolling resistance. Of course, the tires in the car on the non-steady-state condition is varied. To the total points, tire condition of the car has the city,the suburbs of the car and coach on. However, a breakdown, and another empty, heavy vehicles, drive, driven, acceleration, deceleration, taxiways, brake, turn, etc. and combinations there of. Typical working condition of the tires as the standard test of non-steady-state conditions, needs to be done to investigate and test a large number of research work. So whether it is the latest ISO 18164 or the existing SAEJ 1269, they were under steady-state conditions. In addition, SAEJ 2452 slowdown is a complex experiment, the experimental conditions than under the uniform steady-state movement is much more complicated, but it is not completely under non-steady-state experiment. As can accurately predict tire rolling resistance is uniform or slowdown, more tests need to be verified, such comparison tests being investigated. However, the tire manufacturer's tire rolling resistance testing machine mostly for the use of steady-state conditions, if used for non-steady-state conditions by the test needs Plus many new features, testing may be a substantial increase in cost.First of all, to deal with the choice of tires to test full consideration, such as the representativeness of the sample, the tire size, type, rated speed, the original production equipment and the type of wheel rim, as well as the technological level of producers and industry status.Secondly, the performance evaluation of the establishment of test methods. Is not any test method can be used to evaluate the performance level, especially the study of test methods, and therefore take into account the actual tire, the combination of existing technology and the means test, set up in line with the experimental detection conditions.Third, laboratory equipment to ensure precision and accuracy of the equipment of the establishment of standards to ensure that test reproducibility and repeatability, such as samples of the same specifications of the rolling resistance tires are consistent and repeatable, with the control tire for the different experiments comparison.Fourth, the establishment of quality control procedures to ensure that the different rolling resistance testing machine test results are consistent and repeatable, the data in these experiments should also include information such as equipment.Fifth, repeat the same tire test, test results are consistent and repeatable.Sixth, tire prices and the relationship between the dynamic resistance.Seventh, most importantly, in the protection of national industries and safeguard the environment and conserve fuel, to resist the flow of low-quality tires to enter the market, the need for serious thinking.A lot of tests in measuring very small load rolling resistance tire rolling resistance is measured the basic characteristics of the tire positioning accuracy, therefore, control precision and accuracy requirements and other equipment is key. According to many years of experience confirm the accuracy of test equipment requirements is necessary, otherwise the test data can not be guaranteed to reach the standards of repeatability and comparability.Lower rolling resistance tires can significantly save energy and protect the environment, with considerable economic and social benefits. Under the conditions of typical use of the tire rolling resistance and fuel consumption the relationship between the steady-state conditions with non-steady-state conditions compared with the torque method, power law and measured by the speed difference in rolling resistance tires will be The next step of our research objectives.Should be established and planned research projects, and used to determine the appropriate control of the rolling resistance or grade; from different points of view to promote and strengthen the grasp of the concept of rolling resistance and applications.探讨汽车轮胎滚动阻力以及测试技术人类活动对生态环境的破坏已成为全球性问题,减少燃料消耗、降低汽车尾气排放量是节约能源、防止大气污染的重要措施。

英文翻译外文文献翻译270汽车轮胎

英文翻译外文文献翻译270汽车轮胎

附录Human activities on the ecological damage to the environment has become a global problem, to reduce fuel consumption, reduce automobile exhaust emissions is energy conservation, prevention of air pollution in an important measure. Vehicle energy consumption is closely related with the tire rolling resistance. On cars or light trucks, the 3.4% ~ 6.6% of fuel consumption used to overcome rolling resistance tires; of loaded radial truck tire with the car example, 12.4% ~ 14.5% of fuel consumption to overcome the rolling resistance tires . Tire rolling resistance by 10%, fuel-efficient cars will be 1.2 percent, 4 percent savings trucks. To this end,the tire manufacturers have at home and abroad to develop new low-power tires to reduce rolling resistance, saving fuel.Automobile tires in the rolling process, the total vehicle rolling resistance accounts for about 20% of the resistance, if reduced by 10% per tire rolling resistance, lower 2% ~ 3% of fuel, then rolling resistance tires to enhance the level of control of vehicle contribution to fuel economy will be significant, but also in a wide range can be achieved. Therefore, how to effectively control the tire's rolling resistance is the industry facing a key issue. This article will explore the various angles and analysis as well as tire rolling resistance testing technology.I. SummaryIn the tire rolling process, the cycle of changes in the stress and strain lead to energy loss, the formation of tire rolling resistance, also known as the tire hysteresis energy loss. Studies have shown that to overcome tire rolling resistance on fuel consumption of the general accounting for the total fuel consumption of motor vehicles more than 10%. Reduce rolling resistance tires can reduce vehicle energy consumption, so that the car farther away from efficient. Tire rolling resistance is the overall energy consumption of material, equivalent to the tire rolling units of energy loss from the rolling units in addition to its distance, the dimensionless N • m / m, although its equivalent to the dimensionless force, but from the point of view of energy analysis and understanding more convenient and reasonable.Through the measurement of rolling resistance tires can study the best section.However, the results of lab experiments can only make a comparison, the final road test should be used as the basis of the results. Second, research the history ofAs early as age 60 in the 20th century, Beijing Research and Design Institute of Rubber Industry in turn on the drum machine and measured the wire cotton tire cord tire power loss, also measured on the road when the vehicle speed steady traction resistance. At that time, due torestrictions on the use of equipment, the pilot is in its early exploratory phase of long-term. Since the mid-80s, with the accelerated development of China's tire needs, a small number of tire manufacturers from the United States, Japan and Germany with the introduction of the rolling resistance of the switch position test tire drum testing machine, combined with the development of a new type of radial tire and the analysis of foreign samples a number of tire rolling resistance tires test.Inspection. 70s from the 20th century in the United States, Japan and Europe, such as the economically developed countries, in order to solve energy shortages and the deterioration of environmental quality issues and the rolling resistance tires for a large number of experiments and research work. At the same time, tire rolling resistance testing technologies have also made remarkable progress. Beginning in 2004, the U.S. National Research Center on the control of rolling resistance tires to start a new round of extensive research. In 2007, the European Rubber Manufacturers Association also made to the EU to control the level of rolling resistance of the recommendations. Therefore, China will also face the control of rolling resistance.Third, testing technologyAt present, China has established a laboratory test-based, supplemented by the direction of the outdoor experiment. Steady-state conditions in the interior that is a constant load and speed, the tireswhen driving to reach thermal equilibrium Tire rolling resistance measurement method of standardization has been achieved.Preliminary results show that the simulation of the city of tire rolling resistance condition than under the conditions of steady-state rolling resistance by 26% ~ 47% of the difference between the two aroused people's interest in the emergence of a simulation of various operating conditions of automobile tires non-steady-state test. But so far did not see a unified standard test methods or test protocols. Carried out in the outdoor tire rolling resistance test methods are mainly trailer Act, taxiways and three kinds of torque method, in which a wider application of the trailer Act.Fourth, laboratory equipmentLaboratory test equipment, through decades of effort, has appeared in various types of tire rolling resistance testing machine. Their roads in accordance with the form of simulation points, and to have a steel drum two broad categories. Strip-type test machine to simulate the continuous flat surface, is very expensive test equipment tires. At present, it is the most widely to drum testing machine, in particular, a diameter of 1.7 meters to the drum. These test equipment measuring tire rolling resistance by way of points, and measuring method, torque law, power law and reduce the rate of four kinds of law. The use of existing equipment to load and torque of law are most welcome. In thepast two decades, the accuracy of test equipment greatly enhanced to reduce the double measurement error, and has formed a set of test data to ensure the repeatability of the equipment necessary for accuracy. Has the full realization of China's current industrial production equipment is Jiurong Tianjin rolling resistance testing machine, is divided into car and truck tire with two types of tires, and its accuracy in line with the requirements of ISO. As the outdoor test line tire rolling resistance of non-standard test, the test equipment they use is not changed. Association for the Study of the British automobile industry with the use of the pilot housing trailers, all kinds of tires for air resistance in the same test under the conditions created.V. Test Methods1. Indoor and outdoor test testIndoor and outdoor test test test is based on the distinction between the two types of tire place test method. Indoor test of tire rolling resistance testing machine were conducted, and its experimental conditions, although the Department of simulated conditions of use but can be under control, so that good reproducibility of experimental data. Outdoor test rolling resistance tires are used on test vehicles on the road completed, it is true although the experimental conditions, but susceptible to external factors, pilot error, and therefore tire rolling resistance test to test the main indoor and outdoor test Des.2. Steady-state conditions and non-steady-state conditionsSteady-state conditions in the constant refers to the tire load and speed, and traveling in the tire to reach thermal equilibrium when measuring rolling resistance; non-steady-state conditions, it means the tire change with time in the load and speed, and tire temperature in the process of moving measuring rolling resistance. Of course, the tires in the car on the non-steady-state condition is varied. To the total points, tire condition of the car has the city, the suburbs of the car and coach on. However, a breakdown, and another empty, heavy vehicles, drive, driven, acceleration, deceleration, taxiways, brake, turn, etc. and combinations there of. Typical working condition of the tires as the standard test of non-steady-state conditions, needs to be done to investigate and test a large number of research work. So whether it is the latest ISO 18164 or the existing SAEJ 1269, they were under steady-state conditions. In addition, SAEJ 2452 slowdown is a complex experiment, the experimental conditions than under the uniform steady-state movement is much more complicated, but it is not completely under non-steady-state experiment. As can accurately predict tire rolling resistance is uniform or slowdown, more tests need to be verified, such comparison tests being investigated. However, the tire manufacturer's tire rolling resistance testing machine mostly for the use of steady-state conditions, if used for non-steady-state conditions by thetest needs Plus many new features, testing may be a substantial increase in cost.First of all, to deal with the choice of tires to test full consideration, such as the representativeness of the sample, the tire size, type, rated speed, the original production equipment and the type of wheel rim, as well as the technological level of producers and industry status.Secondly, the performance evaluation of the establishment of test methods. Is not any test method can be used to evaluate the performance level, especially the study of test methods, and therefore take into account the actual tire, the combination of existing technology and the means test, set up in line with the experimental detection conditions.Third, laboratory equipment to ensure precision and accuracy of the equipment of the establishment of standards to ensure that test reproducibility and repeatability, such as samples of the same specifications of the rolling resistance tires are consistent and repeatable, with the control tire for the different experiments comparison.Fourth, the establishment of quality control procedures to ensure that the different rolling resistance testing machine test results are consistent and repeatable, the data in these experiments should also include information such as equipment.Fifth, repeat the same tire test, test results are consistent and repeatable.Sixth, tire prices and the relationship between the dynamic resistance.Seventh, most importantly, in the protection of national industries and safeguard the environment and conserve fuel, to resist the flow of low-quality tires to enter the market, the need for serious thinking.A lot of tests in measuring very small load rolling resistance tire rolling resistance is measured the basic characteristics of the tire positioning accuracy, therefore, control precision and accuracy requirements and other equipment is key. According to many years of experience confirm the accuracy of test equipment requirements is necessary, otherwise the test data can not be guaranteed to reach the standards of repeatability and comparability.Lower rolling resistance tires can significantly save energy and protect the environment, with considerable economic and social benefits. Under the conditions of typical use of the tire rolling resistance and fuel consumption the relationship between the steady-state conditions with non-steady-state conditions compared with the torque method, power law and measured by the speed difference in rolling resistance tires will be The next step of our research objectives.Should be established and planned research projects, and used to determine the appropriate control of the rolling resistance or grade; from different points of view to promote and strengthen the grasp of the concept of rolling resistance and applications.汽车轮胎人类活动对生态环境的破坏已成为全球性问题,减少燃料消耗、降低汽车尾气排放量是节约能源、防止大气污染的重要措施。

轮胎压力监测中英文资料外文翻译文献

轮胎压力监测中英文资料外文翻译文献

轮胎压力监测中英文资料外文翻译文献This paper discusses the use of surface acoustic wave (SAW) XXX SAW sensors。

tire pressure XXX during every phase of driving。

The authors present their prototypes for measuring tire pressure。

the SAW sensors used。

and the XXX test rides.ning tires XXX human life while operating a road XXX Nowadays。

car manufacturers try to save space and weight by not including a XXX。

this can lead to XXX and the need for a tire change is still XXX punctures。

it is essential to measure tire XXX 20 grams。

causing high dynamic load。

A few years ago。

XXX。

These devices use an one port SAW delay line XXX devices that do not require a power supply or XXX。

XXX.In this paper。

we discuss XXX discuss the XXX。

XXX driving。

ensuring the safety of drivers and passengers on the road.Passive SAW pressure sensors operate as either a one-port delay line with XXX。

汽车胎压力监测仪说明书

汽车胎压力监测仪说明书

Changing a Flat TireTo change a flat tire, follow the instructions in the primary owner's manual. Since your car is equipped with a fuel tank in the trunk, you should install the flat tire asdescribed in this supplement.Removing the Spare Tire The spare tire is stored in the trunk.To remove the spare tire and the tool kit, open the trunk and raise the trunk floor by lifting up on the back edge.Storing the Flat Tire 1. Raise the trunk floor and the lower part of the trunk lining as shown.Align the lower hole in the trunk lining with the hole in the trunk floor.CONTINUEDTaking Care of the Unexpected TOOL KIT TRUNK FLOOR SPARE TIREJACKChanging a Flat Tire2. Remove the wheel cover.3. Place the flat tire straight up in the trunk as shown, with the outside of the wheel facing forward.4. Remove the support plate and thewing bolt from the tool kit. Put the plate on the wing bolt. Secure the flat tire by putting the wing bolt through the hole in the center of the wheel, through the hole in the trunk lining, then screwing it into the divider.Store the spacer cone and wing bolt for the spare tire in the tool kit.Taking Care of the UnexpectedIf the Fuel System Has a Leak You may detect a slight natural gas odor for a few moments after refueling. This is normal. You should not be able to smell natural gas at any other time. If you do, or if you hear a hissing sound, your vehicle's fuel system may have a leak.If this happens, follow these directions:1. Park your vehicle in a well-ventilated area and apply the parking brake.Keep heat, sparks, and flame away.Open all the windows and the trunk lid for ventilation.2. Turn the ignition switch to the LOCK (0) position.3. Turn the manual shut-off valve to the OFF position to shut off the natural gas (see Manual Shut-off Valve on page 13 in this supplement).You cannot continue driving. Your vehicle should be towed to an authorized Honda Civic GX dealer (see Emergency Towing in the primary owner's manual).Taking Care of the UnexpectedJump StartingTaking Care of the Unexpected Do not jump start your vehicle if you suspect a natural gas leak. If you smell natural gas or hear a hissing sound, the fuel system may have a leak that needs to be repaired by an authorized technician.Turn the manual shut-off valve to the OFF position and have your vehicle towed to an authorized Honda Civic GX dealer (see Emergency Towing in the primary owner's manual).If the fuel system is not leaking or damaged, you can jump start the vehicle. Refer to the primary owner's manual for the jump startingprocedure.。

汽车胎压监测系统(TPMS)说明书

汽车胎压监测系统(TPMS)说明书

HANDLING THE UNEXPECTEDTire Pressure Monitoring System (TPMS)Monitors the tire pressure while you are driving.If your vehicle's tire pressure becomes Array significantly low, the Low Tire Pressure/TPMS indicator comes on and a messageappears on the multi-information display.The specific tire with low pressure isdisplayed.n What to DoStop your vehicle in safe place. Check the tire pressure and adjust thepressure to the specified level. The specified tire pressure is on a label onthe driver's doorjamb.n Tire Pressure Monitoring System (TPMS) - Required Federal Explanation U.S. modelsHANDLING THE UNEXPECTED Each tire, including the spare (if provided), should be checked monthly when cold and inflated to the inflation pressure recommended by the vehicle manufacturer on the vehicle placard or tire inflation pressure label. (If your vehicle has tires of a different size than the size indicated on the vehicle placard or tire inflation pressure label, you should determine the proper tire inflation pressure for those tires.)As an added safety feature, your vehicle has been equipped with a tire pressure monitoring system (TPMS) that illuminates a low tire pressure telltale when one or more of your tires is significantly under-inflated. Accordingly, when the low tire pressure telltale illuminates, you should stop and check your tires as soon as possible, and inflate them to the proper pressure.Driving on a significantly under-inflated tire causes the tire to overheat and can lead to tire failure. Under-inflation also reduces fuel efficiency and tire tread life, and may affect the vehicle's handling and stopping ability. Please note that the TPMS is not a substitute for proper tire maintenance, and it is the driver's responsibility to maintain correct tire pressure, even if under-inflation has not reached the level to trigger illumination of the TPMS low tire pressure telltale.Your vehicle has also been equipped with a TPMS malfunction indicator to indicate when the system is not operating properly. The TPMS malfunction indicator is combined with the low tire pressure telltale. When the system detects a malfunction, the telltale will flash for approximately one minute and then remain continuously illuminated. This sequence will continue upon subsequent vehicle start-ups as long as the malfunction exists. When the malfunction indicator is illuminated, the system may not be able to detect or signal low tire pressure as intended.TPMS malfunctions may occur for a variety of reasons, including the installation of replacement or alternate tires or wheels on the vehicle that prevent the TPMS from functioning properly.Always check the TPMS malfunction telltale after replacing one or more tires or wheels on your vehicle to ensure that the replacement or alternate tires and wheels allow the TPMS to continue to function properly.。

轮胎气压监测系统TPMS解析

轮胎气压监测系统TPMS解析

轮胎气压监测系统TPMS(译文)Tire pressure monitoring system TPMSTPMS tire pressure monitoring system abbreviation, Chinese meaning for the tire pressure monitoring system. TPMS is divided into direct and indirect type two.Direct TPMS is a wireless intelligent sensor, monitoring system, mainly composed of two parts: hardware, sensor and transmitter is mounted on the inside tires (sensor and transmitter combo, integrated into a complete modular unit) and a receiver is arranged in a driving room and display device (for after market TPMS, usually the receiver and the display of two in one, integrated into a complete modular unit). Sensor for bridge type electronic induction device, real-time sensing accurately, pressure and temperature measurement values within each tire, pressure transmitter will be sensed, temperature data in a wireless (RF RF) way is transmitted to the receiver, display the received information displayed. In this way, the whole system of tire pressure, temperature conditions do real-time monitoring of the whole, when any one of the tire air pressure, temperature abnormal status, TPMS immediately to the driver by the sound, light alarm to remind the form. Indirect TPMS is not directly through the pressure temperature sensor in tyre, but the use of ABS (anti lock braking system) wheel speed sensor and an analysis software in the indirect conversion will change the wheel speed into the change of the tyre pressure, its hardware cost is essentially zero, the main part is an analysis software. Its working principle is that, when a tire pressure is insufficient, the tire diameter is relatively small, its speed relative to the other a tire on the diagonal speed becomes larger, this will change in indirect conversion speed for the tyre pressure changes, can discover whether there is a pressure shortage. The advantages of indirect TPMS, low cost, only need to install a software can analysis.Disadvantages are: 1) the monitoring precision is not enough, only an estimate of the results, only when a serious shortage of tire pressure can be detected. 2) when the system alarm when the tire pressure is insufficient, which tire is unable to display specific problems, must be tested to determine the four tires. 3) usually cannot display the air pressure value of the tyre, only in the alarm, have been warning symbols. And you cannot do the monitoring of high pressure and high temperature. 4) the vehicle in the static state, and at low speeds, or in the potholes driving system does not work. 5) when the four tire also insufficient air pressure, such as when the occurrence of seasonal temperature changes, the system can't tell. 6) easily lead to false positive change the spare tire, because the spare no wear, tire diameter than the other. 7) for snow tires, easily lead to false positives, because snow tires than the common tire diameter. 8) in turn to speed fast, easily lead to false positives, because the outer tire speed is greater than the inner tyre. 9) under certain weather and road conditions, the tire may slip, causing several tire speed is different, also easy to cause false alarm.The high allocation of vehicles of some domestic brands have TPMS as the standard configuration, which is part of the direct TPMS, one part is the indirect TPMS. Currently about statistics, with the direct TPMS for Audi above 2.4 Deluxe Edition, Chrysler, Cadillac. With indirect TPMS for MAGOTAN luxury version, Buick series, and a portion of the BMW etc.. Indirect TPMS for the above shortcomings, but also failed to fully comply with the corresponding standard USA, use has few manufacturers in foreign countries; but because of low cost, the vehicle is still part of the domestic production of.In a word, how to identify your car is installed directly or indirectly type TPMS type TPMS, the tire chop down to see, if equipped with induction / transmitter module valve mouth rim, is the direct TPMS, if not, is the indirect type TPMSTPMS为tire pressure monitoring system的缩写,中文意思为轮胎气压监测系统。

【ECE法规 R54】中英文对照 C2类轮胎

【ECE法规 R54】中英文对照 C2类轮胎

E/ECE/324 Rev.1/Add.53/Rev.2E/ECE/TRANS/50516 April 2004AGREEMENT协议CONCERNING THE ADOPTION OF UNIFORM TECHNICAL PRESCRIPTIONSFOR WHEELED VEHICLES, EQUIPMENT AND PARTS WHICH CAN BE FITTED AND/OR BE USED ON WHEELED VEHICLES AND THE CONDITIONS FOR RECIPROCAL RECOGNITION OF APPROVALSGRANTED ON THE BASIS OF THESE PRESCRIPTIONS _/关于适用于有轮车辆、设备和可安装在有轮车辆上使用的零件的统一技术规定的采用以及在这些规定基础上予以批准的互相认可条件_/(Revision 2, including the amendments which entered into force on 16 October 1995)(修订版2,包括从1995 年10 月16 日开始生效的修订内容)Addendum 53: Regulation No. 54附录5 3:54 号条例Revision 2修订版 2Incorporating all valid text up to:所有有效文本汇总如下:Corrigendum 1 to Revision 1 of the Regulation subject of Depositary NotificationDepositary Notification 主条款修订版1 勘误表1C.N.438.1997.TREATIES-107 dated 14 November 19971997 年11 月14 日颁布的C.N.438.1997.TREA TIES-107_/Former title of the Agreement:Agreement Concerning the Adoption of Uniform Conditions of Approval and Reciprocal Recognition of Approval for Motor Vehicle Equipment and Parts, done at Geneva on 20 March 1958.**/ For New Zealand, the date of entry into force is 21 April 2002./Former title of the Agreement:Agreement Concerning the Adoption of Uniform Conditions of Approval and Reciprocal Recognition of Approval for Motor Vehicle Equipment and Parts, done at Geneva on 20 March 1958.**/ For New Zealand, the date of entry into force is 21 April 2002.Supplement 10 to the original version of the Regulation - Date of entry into force: 24 May 1998原版条例附录10 - 生效日期:1998 年 5 月24 日Supplement 11 to the original version of the Regulation - Date of entry into force: 7 February 1999原版条例附录11 - 生效日期:1999 年 2 月7 日Supplement 12 to the original version of the Regulation - Date of entry into force: 29 December 2000原版条例附录12 - 生效日期:2000 年12 月29 日Supplement 13 to the original version of the Regulation - Date of entry into force: 29 March 2001原版条例附录13 - 生效日期:2001 年 3 月29 日Supplement 14 to the original version of the Regulation - Date of entry into force: 21 February 2002 ** /原版条例附录14 - 生效日期:2002 年 2 月21 日** /Supplement 15 to the original version of the Regulation - Date of entry into force: 30 October 2003原版条例附录15 - 生效日期:2003 年10 月30 日UNIFORM PROVISIONS CONCERNING THE APPROVAL OF PNEUMATIC TYRES FOR COMMERCIAL VEHICLES AND THEIR TRAILERS关于批准商用车及其拖车充气轮胎的统一规定UNITED NATIONS 联合国1E/ECE/324 Rev.1/Add.53/Rev.2E/ECE/TRANS/505Regulation No. 54R e g ula t i on N o.5454号条例UNIFORM PROVISIONS CONCERNING THE APPROVAL OF PNEUMATIC TYRESFOR COMMERCIAL VEHICLES AND THEIR TRAILERS关于批准商用车及其拖车充气轮胎的统一规定CONTENTS目录REGULATION条例Page 页码1. SCOPE 适用范围 (3)2. DEFINITIONS 定义 (3)3. MARKINGS 标志 (5)4. APPLICATION FOR APPROV AL 批准申请 (6)5. APPROV AL 批准 (7)6. SPECIFICATIONS 参数 (8)7. MODIFICATION AND EXTENSION OF APPROV AL OF A TYRE TYPE 轮胎系列批准的修正和延展 (9)8. CONFORMITY OF PRODUCTION 生产一致性 (9)9. PENALTIES FOR NON-CONFORMITY OF PRODUCTION 对于不符产品的处罚 (9)10. PRODUCTION DEFINITEL Y DISCONTINUED 勒令停产 (9)11. NAMES AND ADDRESSES OF TECHNICAL SERVICES RESPONSIBLE FOR CONDUCTING APPROV AL TESTS, AND OF ADMINISTRATIVE DEPARTMENTS 负责管理批准测试的技术服务机构和行政部门的名称及地址 (10)Annex 1 附件1 COMMUNICATION 信息表 (11)Annex 2 附件2 ARRANGEMENT OF APPROV AL MARK 批准标志的排列 (12)Annex 3 附件3 ARRANGEMENT OF TYRE MARKINGS 轮胎标志的排列 (12)Annex 4 附件4 LIST OF SYMBOLS OF LOAD-CAPACITY INDICES 负荷指数列表 (13)Annex 5 附件5 -SIZE DESIGNATION AND DIMENSIONS 选取轮胎的规格与尺寸 (14)PART I 第1 部分EUROPEAN TYRES 欧洲轮胎 (14)Table A 表格ACODE DESIGNA TED SIZES MOUNTED ON 5 ° TAPERED RIMS OR FLAT BASE RIMS. 选取的轮胎装在5 °斜底轮辋或平底轮辋上。

测量胎压的具体技术细节

测量胎压的具体技术细节

测量胎压的具体技术细节英文回答:To measure tire pressure, there are several techniques that can be used. The most common method is to use a tire pressure gauge, which is a handheld device specifically designed for this purpose. The gauge typically consists of a small cylinder with a pressure-sensitive piston inside. When the gauge is pressed against the tire valve, the piston is pushed in, and the pressure reading is displayed on a dial or digital screen.Another technique is to use a tire pressure monitoring system (TPMS), which is a built-in feature in many modern vehicles. TPMS uses sensors mounted on each tire to continuously monitor the pressure. The sensors send the pressure data to a central control unit, which then displays the readings on the dashboard. This allows the driver to easily monitor the tire pressure without the need for a separate gauge.In addition to these traditional methods, there are also newer technologies that can measure tire pressure. For example, some tire manufacturers have developed smart tires that are equipped with sensors to measure pressure, temperature, and even tread depth. These sensors can wirelessly transmit the data to a smartphone app or a vehicle's onboard computer, providing real-time monitoring and alerts.Furthermore, there are tire pressure monitoring systems that utilize Bluetooth technology. These systems consist of small sensors that are attached to the tire valve stems. The sensors communicate with a receiver unit, which can be placed inside the vehicle. The receiver unit then sends the tire pressure data to a smartphone or other compatible device via Bluetooth. This allows for convenient and wireless monitoring of tire pressure.中文回答:测量胎压的具体技术细节包括使用胎压计、轮胎压力监测系统(TPMS)以及一些新兴的技术。

中英文文献翻译-低滚动阻力轮胎

中英文文献翻译-低滚动阻力轮胎

中英文文献翻译-低滚动阻力轮胎附录附录A:LOW ROLLING RESISTANCE TIRES According to the report,80% or more of a car’s fuel energy is wasted by friction and other such losses. 1.5 to 4.5% of total gasoline use could be saved if allreplacement tires in use had low rolling resistance. About 237 million replacement tires are sold in the U.S. each year – none has rolling resistance labeling.1. America’s Fuel Use, Its Impacts,and Opportunities for SavingsThe environmental impacts of America’s gasoline use are profound. With over 160 million passenger cars and light trucks on the road, we burn about 126 billion gallons of gasoline per year. Our fuel use continues to rise about 3% annually, propelled by continued increases in total number of vehicles, rising average distance driven per car, and falling average fuel economy.Today, light-duty vehicles (cars & light trucks) are responsible for about 20% of the nitrogen oxides, 27% of the volatile organic compounds, 51% of the carbon monoxide, and roughly 30% of all the carbon dioxide (the main greenhouse gas) emitted from human activities nationwide. Rising fuel use also has enormous implications for protection of wilderness and public lands (vulnerable to increased exploration), water resources (vulnerable to tanker and pipeline accidents), and national security. So the opportunity to save money and improve environmental quality through fuel use reductions is clear.One of the most promising opportunities for fuel savings across the entire fleet of existing vehicles is to utilize low rollingresistance tires instead of standard replacement models. This change improves the inherent efficiency of the vehicle, automatically saving fuel over the typical 30,000 to 50,000 mile lifetime of a set of tires.This report examines the opportunity for saving gasoline through use of improved tire technology and recommends particular tire models for which our initial test data suggest environmental advantages. Its findings are applicable to government and corporate fleet managers as well as individual tire buyers.2. How Tires Can Reduce Fuel ConsumptionAccording to the National Academy of Sciences, about 80 to 88% of the energy in a vehicle’s gasoline tank is wasted in various thermal, frictional, and standby losses in the engine and exhaust system. This leaves only about 12 to 20% of the potential energy actually converted to vehicle motion. One of the key ways to improve that efficiency is to reduce the rolling resistance of vehicle tires. This is not a measure of a tire’s traction or “grip” on the road surface, but rather simply indicates how easily a tire rolls down the road, minimizing the energy wasted as heat between the tire and the road, within the tire sidewall itself, and between the tire and the rim.Detailed modeling conducted by the National Renewable Energy Laboratory concluded that a 10% reduction in tire rolling resistance should yield fuel savings of about 1 to 2%, depending on driving conditions and vehicle type. According to research for the California Energy Commission, about 1.5 to 4.5% of total gasoline use could be saved if all replacement tires in use had low rollingresistance. This translates roughly into average savings of up to 30 gallons of gasoline savings per vehicle per year, orfrom $2.5 to $7.5 billion worth of national average gasoline savings.As part of their efforts to meet Federal fuel economy standards, automakers routinely specify low rolling resistance tires on their new vehicles. Between 1980 and 1994, the lowest rolling resistance tire models available achieved a 48% reduction in rolling resistance, and have likely continued to improve thereafter. These original equipment (OE) tire models are occasionally available in the replacement tire market, but often only by special order. In general, the tires marketed to the replacement tire market tend to place greater emphasis on longevity and low price, and therefore often have higher rolling resistance than OE tires.Unfortunately both OE and replacement tires lack any sort of rolling resistance labeling currently, so fleet managers and consumers that wish to buy highly energy-efficient tires when their first set of OE tires wear out have been stymied. Even when tire makers claim that particular replacement models are more fuelefficient than others, they do not always use consistent test methods or independent laboratory data to back up those claims. About 237 million replacement tires are sold in the U.S. each year for cars and light trucks, and none of them provides rolling resistance labeling.In 2002, the Energy Foundation funded Ecos Consulting to analyze the tire market, select representative models for rolling resistance testing, and work with Green Seal to recommend particular models that perform well while achieving low rolling resistance.Those findings are being published for the first time in this Choose Green Report. Additional background on EcosConsulting’s key findings can be found in a separate report prepared for the California Energy Commission, available at /doc/81132198.html,/reports/2003- 01-31_600-03-001CRVOL2.PDF.3. Balancing Tire Resistance and Other ConsiderationsThe manufacture of tires, like other industrial processes, involves material extraction and production, as well as energy consumption and the emission of various pollutants. Each of these manufacturing stages impacts the environment in different ways. However, tires, like a number of other consumer products, are actually responsible for more environmental impacts in their use and ultimate disposition than in their manufacturing. They significantly impact the amount of fuel consumed by the vehicle to which they are attached, leading to global warming emissions as well as local and regional air pollution. They create particulate air pollution in the process of wearing, and they can be a significant solid waste problem if not properly recycled.An analysis conducted by Italian tire manufacturer Pirelli (Figure 1) revealed the dominance of tire use in overall life-cycle energy consumption. Fully 82% of the lifecycle energy use occurs from the tire’s contribution to vehicle fuel use, compared to roughly 18% associated with obtaining the raw materials and manufacturing the tire itself. Thus, a tire’s roll ing resistance is likely to be a larger factor in its life-cycle environmental impact than its composition, longevity, or ultimate fate, though those factors merit consideration as well.This report places greatest significance on the measured rolling resistance of tires, followed closely by consideration of the tire’s expected longevity and performance characteristics. A tire with high rolling resistance can cause profound environmentalimpact, even if it capably grips the road and lasts for 80,000 miles. By contrast, a very low ro lling resistance tire may not be worth recommending if its lifetime is unusually short or test data indicate that it provides poor traction.Every tire currently on the market represents a balance between a wide assortment of desired performance characteristics and price (we surveyed tires ranging from $25 to over $200 per tire). Careful balancing of these characteristics can yield not only a high-performing tire, but also one that is better for the environment than others currently available on the market.4.Rating Tire Rolling Resistance and Related FactorsRolling resistance has traditionally been measured through an official Society of Automotive Engineers (SAE) test procedure known as J1269. It measures the force required to roll a tire against a dynamometer at a fixed speed of 50 miles per hour. A newer procedure, SAE J2452, promises improved accuracy by assessing rolling resistance at a variety of speeds, but no independent laboratory currently has the capability to conduct such testing in-house. As a result, all of our testing was conducted at a single independent laboratory according to SAE J1269.The highest and lowest rolling resistance tires we tested differed in efficiency by 60%, indicating that tire choice can have a bigger impact on fuel economy than most people realize. Rolling resistance differences of 20 to 30% are not uncommon among tires of an otherwise similar size, type, and level of performance. This means an individual vehicle could save up to 6% of its gasoline use if it were fitted with very efficient tires, paying for the modest additional cost of low rolling resistance tires in approximately a year of fuel savings. In other words, atypical compact car such as a Ford Focus can improve its mileage from 30 mpg to 32 mpg simply by using lower rolling resistance tires. For a car averaging 15,000 miles per year the fuel savings is about $50 (at $1.50 per gallon).All tires have imprinted information on their sidewalls indicating size, type, load, and speed ratings, as described in Figure 2. The majority of tire models employ a “P” designation for passenger vehicle use, but some bear the “LT” designation for use with light trucks. In general, “P” tires appear to be gaining in popularity relative to “LT” tires of a given size.In addition, the U.S. Department of Transportation requires each manufacturer to grade its tires under the Uniform Tire Quality Grading System (UTQGS) and establish ratings for the following characteristics: tread wear, traction, and temperature resistance. Unfortunately, the ultimate results published for each tire model are less “uniform” than they should be. The government specifies how each test should be conducted and prevents a manufacturer from claiming better performance than measured. However, it does not prevent manufacturers from claiming worse performance than measured. And, curiously enough, many do, primarily to amplify marketing distinctions among their tires at different price points and encourage buyers to move up from a “good” to a “better” or “best” mode l in a particular category.Given the variability of ratings and the number of relevant factors, we have compiled our own composite metrics of performance for assessing tires, including the Federal ratings noted below and a variety of other published data.5.Rolling On to the FutureEfforts to differentiate replacement tires on the basis ofrolling resistance are still in their very early stages. Without data on the rolling resistance of all tire models across a range of sizes, it is impossible to say for sure if the models identified in this report represent the most efficient models or simply a subset of them. For now, consumers and fleet managers can start with the data shown here and request additional information directly from retailers and manufacturers.。

汽车胎压监测系统外文文献翻译中英文

汽车胎压监测系统外文文献翻译中英文

汽车胎压监测系统外文文献翻译中英文汽车胎压监测系统外文文献翻译(含:英文原文及中文译文)文献出处: Wu G, Liu J. Design of Universal TPMS Based on PIC MCU[J]. Computer Measurement & Control, 2007, 15(11):1434-1433. 英文原文Design of Universal TPMS Based on PIC MCUG Wu , J Liu1 IntroductionWith the high speed of road network booming rise, Traffic is developed, Vehicle speed increasing, traffic hazards prevention problems imminent, if because of the tire air-leaks and explosion etc causetraffic accident, many are by tyres work to high temperature or unreasonable tire pressure cause. Research car tires tire pressure monitoring system of modern automobile driving, when the economy, safety and manipulation stability is particularly important practical significance.Hardware constitution and software design method of the universal TPMS are introduced based on PIC MCU. The Design projects of the remote monitoring module based on infineon SPI2 sensor, Microchip rfPIC12F675F with ASK/FSK transmitter and the central receiver module based on Microchip PIC16F877A are described, and hardware circuitry and related programs flowcharts, communication protocols and algorithms aregiven1The system can measure the tire's interiortemperature, instantaneous pressure, voltage and acceleration at anytime, indicate the blooey tires and alarm the driver to avoid the danger. It’s ofgreat importance for the popularization and optimization of the TPMS in our country.As authoritative research indicates, the key to Prevent a tire blow-out is maintaining standard tire Pressure and detecting tire fault beforehand. Thus, tire Pressure monitoring becomes meaningful and important.TPMS ( Tire Pressure Monitoring System ), Mainly used inautomobile driving real-time monitoring of tyre pressure automatically. Currently developed countries of the tire pressure early-warning system mainly divided into two types: one is JiaJieShi, it through car ABS (anti holding brake system) of the wheel sensor and tyre mechanical model, indirectly calculated for tyre pressure, in order to achieve the purpose; monitor tyre pressure Another kind is direct type,it USES installed in each of the tires with lithium ion battery for power supply pressure sensor to direct measurement of tyre pressure, and through wireless modulation launch to install in search of monitor, and monitor at any time display various tyre pressure, drivers canintuitivey understanding each tire pressure condition, when the tyre pressure is too low or have leakage, the system will automatically alarm, ensure safety.TPMS as a new type automobile active safety device has been developing rapidly in recent years worldwide. Since it could monitortirepressure and temperature in real time and alert the driver in time, most traffic accidents caused by flat tire could be avoided to ensure safe driving. The development of tire pressure monitoring systems is reviewed including wheel speed based TPMS, pressure-sensor based TPMSand the coming generation so called non-battery passive TPMS. The components and working mechanism of tire pressure monitoring system are introduced and their merits and defects analyzed and compared with the emphasis on three dominant direct TPMS systems, which are significant in its research and development. The prospect of future development trendis looked ahead. The non-battery TPMS is expected to replace the current one and become the dominant. Wireless signal transmission stability reliability insufficiency, the battery life problem, sensor life and durability problem, is the present T PMS products in the common problem. This system in addition to the sensor, all use Microchip company transceiver chip and micro control processor, low energy consumption, good compatibility and high reliability.And utilize FSK modulator mode, one-way communication mode, improving the system of signal transmission of anti-interference ability. Combined with the system USES the SP12 sensor and monitoring module microprocessor rfPIC12F675F characteristics, adopt LF low-frequency sensei technology, time-sharing send and receivedifferent monitoring module rf signals, thus solving signal collision interference problems, and further energysaving system.2 System RequirementsCause a flat tire and blowout reasons are as follows:? tyretemperature is exorbitant, ? the tyre pressure too big, ? tyres used fora long time, ? tire overload, ? automobile driving too fast.For that car to be in a safe driving condition, drivers must in driving process real-time understand tyre overpressure, voltage, temperature, etc. Work of the state, the system has the following functions: ? real-timemonitor tire pressure, temperature conditions, ? when a tireover-voltage, overheating, automatic sound and light alarm, ? when a tyre in under voltage condition, corresponding the advantages indicator emit light.3 Hardware DesignThe system was divided into two Parts functionally: tire Pressure measuring block and central monitoring block.The hardware composition was introduced respectively; hardware circuits of each block were also presented in this paper. Performance and function of main chips were introduced in detail, such as the sensor SP12,rfPIC12F675(MCU with embedded UHF translmiter),receiverrfRXD0420,PIC16F877,and some other important components like LCM(with a T6963Ccontroller embeded)and ete.To enhance the anti-interference performance and realize low power Consumption management, an active Low Frequency(LF)wake-up technology was adopted.As for software design, a dynamic time cycle measuring and transmitting method was proposed, and corresponding software arithmetic were given, Combining LF wake-up technology with low power management thought. Taking into consideration severe electromagnetic interference environment of cars,a CRC(Cyelic Redundancy Cheek)arithmetic was added into the communication protocol frames, compositive software filtering methods were also used to enhance the Reliability and preside of the system.This system consists of 5 modules, as shown in figure 1 shows, 4 for tyre within the surveillance modules, a used car, receiving modules. Monitoring module includes sensor and launch module. The sensor to measure the pressure and temperature signals are converted to electric signals through wireless transmitting devices will signal launched. The pressure of the temperature sensor launched by the receiving module can receive and process information,after driving on the display shows that in the course of driving real-time monitor. Showing the way such as LED, LCD or voice requirements to design. The tyres monitoring module by central mainframe control module low-frequency LF signal control, settleinto work patterns interval time-sharing, rest time dormant. 3.1 Hardware design of the master control moduleCar tires unique working environment conditions determines the tire pressure real-time monitoring of the high pressure sensor objectives: wide temperature area, wide voltage range of high accuracy and reliability, Low power requirements; Bad environment wireless signal transmission stability requirement. This system USES Infineon (Infineon) company SP12 tyre pressure temperature acceleration special detection sensor.Because electricity saving and super small-scale demand, so adopted SP12 sensor. SP12 is a kind of piezoelectric resistor sensor, besides can measure pressure and temperature besides, still integrated add speed sensor and voltage preach implement, pressure measurement range 100 ~ 450kPa, temperature measurement range for - 40 ~ + 125. The average power consumption for standby mode only 13 muon A. Has the SPI serial communication mouth, more convenient and controller can be composed SCM system.RfPIC12F675F Microchip company is launched monolithicintegrated embedded rf wireless data transmitters 8-bit CMOS micro controller. 1024 x 14 programmable an EPROM, 64 x 8 bytes data storage, 128 x 8 bytes EEPROM data storage, 16 special function of hardware registers, The watchdog timer, low power consumption, sleep patterns,six general I/O functions; Working voltage, low power consumption 55V 25~ sleep patterns for 500 mu A current. Embedded UHF add/FSK emitter, rf frequency range for 230 ~ 930MH z,adjustableoutput power + 6 ~ - 15dBm, add data emission rate 0 ~ 40Kbps, FSK data launch rate 0 ~ 20Kbps; PLL phase-locked VCO, integrated oscillators, and that the circuit only a few external components. Comply with US and European EN300220 'ts 15231 FCC rules.The tyres monitoring module circuit structure as figure shows, by micro controller rfPIC12F675F, pressure and temperature acceleration sensor SP12, antenna network and LF low-frequency awakening of circuit composed of four. Peripheral components and simple circuit, and high reliability. Using the SPI serial data interface SP12 SDO, SCLK and SDI respectively with micro-controller rfPIC12F675F on GP4, GP1 and GP2 connection, because rfPIC12F675F without hardware SPI function, but itis easier for software simulation and SP12 between serial communication. The built-in launch chips contain transmit power amplifier PA, thecrystal oscillator, phase-locked VCO is PLL, VCO and pattern logiccontrol blocks circuits, etc. This application system by working frequency for 433M Hz, XTAL pins and FSKOUT pins between join external crystal oscillator clamps its X1 capacitor C1, C2,realize FSK modulation. When DATAFSK=1, FSKOUT for high impedance condition, transmit frequency fMAX; for, When DATAFSK=0, FSKOUT andVSSRF grounding, capacitance C1, C2 in parallel, the transmit frequency for f MIN. This system transmission power for + 2dB, standbycurrent consumption only 10 mu A. During liftoff, VCO output signal is directlyinto the VCO output to PA, the frequency of crystal oscillator frequency 32 times, taking landuse-dat AFSK the input of digital signal (GP0 for signal input control terminals, and taking landuse-dat AFSK connected) was FSK after power amplifier output,PA to direct drive antenna.The low-frequency sensei module by L and C form a parallel LC resonant circuit used to receive from the host a LF sensei signal. Output terminal with rfPIC12F675FIO port GP3 connected, as the result of a relatively high voltage, comparator output interrupts. SenseirfPIC12F675F, the sensitivity of 5mV.3.2 Host control module hardware designThe main engine control module by low frequency signals sent circuit and MCU, rf receive circuit and human-computer interface 4 parts. One chooses MICROCHIP companies producing the MCU midrangemicro controller PIC16F877A, it has low price, high performance,chip rich resources and high reliability etc. Low frequency signal transmission circuit adopts high-power CMOS chip drive serial driver resonant circuit, sending low frequency signal. Rf receive circuit used MICROCHIP rf receiver chips r fRXD0420, it has small, receiving high sensitivity, strong anti-jamming capability advantages. The man-machine interface circuit using mature module design, use the buttons as input interface, 128 * 64-bit bitmap graphics LCD as output interface.When the circuit in-tune, tandem resonance frequency by formula: f = 1 / (2 L C). As to reduce cost, tandem resonant circuit driverPIC16F877A PWM signal used by its issued function, driven signal incentive series circuit.4 Software designTPMS system is strictly for power requirements, so they need good algorithms for complete system requirements. You should minimize the number of required for TPMS because of power-transmission system. The sensors need little of power consumption in sleep mode.4.1 Tire Monitoring ModuleThe system goes into sleep mode after initialization, waiting forthe host module LF low frequency signals emitted wake. Resolved and the LF signal based on the received command, configure the sensor SP12,real-time pressure and temperature data collection, taking the average 100 (false alarm), formed by the data frame transmitted encoded data. Start UHF RF transmitter circuit for data transmission.4.2 Host display moduleHost PIC16F877A after initialization (including the completion ofits surrounding RF module and display module initialization), by scanning interval to four tire rotation frequency of 125kHz module sends an LF low frequency signals, in turn will activate and turn the tire module RF receiver interrupt waiting to receive each module sends back the tire temperature data in real time for the decoded analysis, the standard setsafety pressure and temperature range, and determines whether the alarm, and transmit data to the liquid crystal screen display. Set reasonable time delay, the loop above flow timeshare acquisition and monitoring the pressure of the tire module temperature conditions. Thus the fundamental solution to the problem of collisions with the frequency signal interference, but also to save power provides an effectivecontrol methods. Fully into account the energy and real-time monitoring of these two factors, the system initiates a set interval 200ms LF wakeup operations. 4.3 Communication ProtocolIn order to achieve four tire module and the central host to receive module for wireless communication, a communication protocol must be developed. Manchester encoding used here, FSK Modulation and 9600BP / S transfer rate. Tire module sends data in the form of data frames, when the tire module rfPIC12F675F determine when to send data, the leadingbit of the data frame by sending a wake up the host receiver module then sends ID, pressure, temperature, status, parity, and stop bits. 5 SummaryThis paper proposes a new method of calculating target distance.This method does not need to obtain accurate focusing of the image, you only need a normal CCD camera to get the distance information, so the system structure is simple, easy to operate .While using a single camera from selecting and feature points for image registration, in favour ofreal-time system implementation; And the algorithm to take full advantage of all color information for the image, avoid using grayscaleimage information loss-free .Experiments show that its effect is betterthan using a grayscale image to obtain depth information.中文译文基于PIC单片机的通用型TPMS的设计G Wu , J Liu1引言随着道路网络高速化兴起,交通发达,车辆提速,交通事故危害预防问题迫在眉睫,如果由于轮胎漏气和爆炸等引起交通事故,很多是由轮胎工作到高温或不合理的轮胎压力原因。

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中英文资料翻译参考文献Monitoring the Tire Pressure at Cars Using Passive SAW SensorsAbstract:In our paper we present the application of surface acoustic wave (SAW) sensors to the continuous manitaring of the tire pressure in road ve hicles. With these, the tire pressure can be read out in every phase of driving. We show the implemented prototype setup for measurement of the tire pressu re, the applied SAW sensors, improved versions and the interrogation setup. The problems in practical application are discussed. Experimental result s measuring the tire pressure during test rides are presented.INTRODUCTIONOperating a road vehicle, a malfunction of the tires in motion due to a tire puncture can cause serious accidents and endanger human life. Furthermore, nowadays manufacturers of cars try to save the spare wheel in vehicles. Usually it only costs weight and space, therefore it yields a higher fuel consumption,although it will be required less than one time in more than ten years of a car's life. This only can be done, if the air pressure in the tires can be measured even during driving. Currently used sensors contain active components, powered by a Lithium battery. The mass of these sensor assemblies is about 20 grams causing high dynamic load. A few years ago,wirelessIy interrogable SAW devices far sensor applications were invented. [1,2, 3]. Using an one port SAW delay line connected to an antenna only, an RF interrogation signal is fed into and the sensor response,carrying thesensor information is retransmitted wirelessly to the interrogator. These sensors are capable for measurement of temperature, mechanical load, force and displacement, etc. The advantage is, that SAW sensors are totally passive devices and contain neither power supply nor semiconductors. They withstand temperatures up to several hundreds of degree centigrades, their lifetime is much longer than that of battery powered systems.Further,in vehicles strong electromagnetic pollution is generated by ignition systems etc.SAW sensors operate without risk of damage even in rough environments. First we discuss pressure measurement employing SAW sensors with wireless interrogation.We present some types of sensor assemblies and the interrogation system.Next we discuss the implementation into thecar and thenwepresent experimentally results.Finally a brief summary concludes the content of the paper.SAW PRESSURE SENSORSThe electrical behaviour of a passive SAW pressure sensor always is that of a one port delay line with multiple reflectors or a resonator,respectively. In the delay linecase,the interrogator transmits a burst signal,the sensor responds with a chain of bursts,one for every reflector arranged at the substrate's surface.The differential delay between two or more response signals is evaluated.To measure some physical value,the parameter has to be converted into a change of sensor's surface length or surface acoustic wave's velocity,respectively.The delay ri of the response of areflector i is the ratio of SAW propagation length Li on the substrate's surface and propagation velocityv,.Affecting the sensor with a measurand causes a scaling of the sensor's response to be observed as individual delay shifts Ari of the response signals si originating frotmhe reflectors i.Mechanical measurands can be collected by loading the sensor mechanically.Apart from stretching and compressing,utilized for wireless measurement of torque,etc.the SAW sensor's substrate can be bent.Pressure can affect the sensor by bending a membrane,shifting the edge of a sensor fixed on theother side.Here the sensor is loaded to be bent due to a shift of the center of a membrane loaded by the pressure.On the other hand the sensor can directly be fitted to the membrane or a piezoelectric membrane representing the SAW substrate can be used.Figure 1 shows these methods.Fig.1:a)Membrane converting pressureto shift bendingthe SAW sensor(SAWS)b)SAW sensor fitted to the membraneThe next step is to cover the sensor membrane by a cap consisting of a spacer frame and a quartz cover plate.This yieldsanintegratedpressure chamber SAW sensor[4](fig.2).Fig.2:Integrated pressure chamber SAW sensorThecover protects theSAW generating metallic structure from oxidation and thesurface from dust.The cavity can befiIledwith a gas at reference pressure.If the cavity is evacuated,absolute pressure values can bemeasured.Measurement is made byinterrogationusing simple RF burst signals.The response impulses are evaluated in magnitude and phase.Bending the membrane due to pressure loadyields a phase shift of for instance 100 degree for lo4 Pascal.With this theairpressure in car tires can be measuredwith a resolutioonf approx.IO'Pascal(0.01 Bar).To reduce the amount of data to process,for the implementation in cars the resolution was reduced to 50 mBar.IMPLEMENTATIONThe first prototype used for the experimental measuremenwtsas a pressure chamber with a membrane made of brass.The sensor unit was fitted to a hub cap andwas connected to the valve by a pressure assembly(fig.3).Fig.3:First prototype of pressure chamber formeasurement of tire pressureFor serial manufacture the sensor system~have tobe much smaller and able to be integrated in the tire.Therefore we implemented the integrated pressure chamber(fig.2)into the tire.The sensor was fixed to the rim,the metallic valve shaft was used as the sensor's antenna(fig.4).Fig.4:Integrated pressure chamber fixed to the rim,valve used as antennaFoirmproved implementation a sensor assembly only fitted to the valve was developed(fig.5).The total mass of the unit is only a few grams,the dynamic load is small even driving at high speed.Fig.5:Pressure sensor forfitting into the valve shaftThcear based interrogation system uses space diversity to distinguish the sensors in the tires.Therefore below every car wing an antenna has to be employed.We used coaxial cables,hut it is difficult and expensive to use them in cars.Our investigationsshow the applicability of twisted pair wires too.Fig.6:Interrogation antenna on carFor measurement we developed a small sized interrogation system transmitting bursts and looking for the phase shift between the response signal bursts.The system was controlled by a one chip microcontroller and abisle to display the measurement result on aLCD display.In fig.7 a photograph of the system is shown.Fig.7:System for wireless interrogation of passiveSAW sensors(50 x 100 x 160 mm’)MEASUREMENTRESULTSTo test our sensors and our system we made a lot of test rides within the area and around the city of Vienna.The interrogation system was coupled to alaptop computer.The pressure values were measured and recorded to a file. Thefigures 8 and 9 show characteristic behaviour of tire pressure for different driving conditions. Due to the shocks from a rugged lane,in the left part of fig.8 the absolute pressure value swings around the mean value by the least significant bit,0.05 Bar.The narrow higher peaks of tire pressure belong to braking maneuvers(the sensor was mounted toa front wheel).The longer increase of tire pressure and the following period of decay is due to riding over a curbstone.The system showed high reliability even when driving in a heavy snow storm. tire pressure[Bar]Fig.8:Tire pressure for different driving conditionsIn figure 9 the pressure in the right front wheel can be observed zoomed in time while passing a two track grade crossing with an adjacent water channel across the lane.Due to the dilapidated arrangement of the grade crossing,hard shocks are transmitted to thecar body causing hard pressure shocks in the tires.Fig.9:Tire pressure crossing a grade crossing withtwo tracks and a water channel across the laneDISCUSSIONSAW sensors with wirelessly interrogation are free of maintenance and withstand high thermal and mechanical load.The measurement performance is comparable to that of competitors.The effort in car based system is higher for SAW sensors,since theactive sensor units transmit preconditioned digital information containing pressure valueand sensor The major advantage of SAW devices in identification. applications,where high revolutions per time occur, is their low mass.The centrifugal force is m.v*/r,with the mass m,the velocity v and the radius r.To minimize dynamic mechanical load,the mass of a system applied to rotating parts should be as low as possible.Whereas conventional sensor units for tire pressure measurements have a mass of approx.20 grams,the integrated pressure sensor itself(fig.5) has a mass of less than one gram.The complete SAW sensor unit's mass in worst case is only a few grams.Conventional systems are powered by a Lithium battery.In case of a worntire,since the battery cannot be checked,the sensor should be replaced too,yielding problems of waste disposal.For a system integrated in the car electronic,it is needless to display the pressure of each tire continuously.Here,only a malfunction should trigger an alert.The system's display can be canceled,reducing system's cost.CONCLUSIONTheadvantagews of passive SAW sensors make thwemell suited for vehicular applications.Especially for measurement of tire pressure low mass and the fact thatthey are free of maintenance makethem to be superior over the competitors.The SAW sensors for pressure measurement,the implementation in tires and the system for interrogation were discussed.Experimental results out of a lot of measurement rides were presented.REFERENCES[l]Reindl,F.Muller,C.Ruppel,WE.Bulst and F.Seifert,Passive surface wave sensors which can be.wirelessly interrogated,International Patent Appl WO 93/13495(1992).[2]Seifert F.,Bulst W.E.,Ruppel C.,Mechanical sensors based on surface acoustic waves,Sensors andActuators,A44(1994)231-239[3]G.Scholl,T.Ostertag,L.Reindl,H.Scherr,0.Sczesny,U.Wolff,Wireless SAW Sensors for Remote Measurement of Physical Parameters,Proc.IEEE Intern.Workshopon Commercial Radio Sensors and Communication Techniques,1997,pp.51-58.[4]H.Scherr,G.Scholl,F.Seifert,R.Weigel,Quartz Pressure Sensor Based on SAW Reflective Delay Line,Proc.IEEE Ultrasonics Symposium 1996,pp.347-350.译文轮胎压力监测在汽车使用被动声表面波传感器摘要:在我们的文件,我们目前的应用表面声波(声表面波)传感器不断的轮胎压力在道路车辆。

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