美国阿尔法ALPHA 皮毛一体B3飞行皮衣皮夹克

INSTALLATION MANUALFURUNO FINLANDICE RADAR FICE-100FURUNO FINLANDOIL RADAR FOIL-200 Furuno Finland OyContents1. SPECIFICATIONS (4)2. CABLING AND CONNECTORS (5)2.1 Connectors on EC-3000 processor (5)2.2 Sensor Data Input (6)2.2.1. Introduction (6)2.2.2 Serial Interface sensor information (6)2.2.3 LAN Interface for sensor information (7)2.3 Connectors on ScanStreamer (8)2.3.1 Introduction (8)2.3.2 ScanStreamer DNP2012001 (8)2.3.2 ScanStreamer DNP2016009 (10)2.4 Connector on RPU-013 of FAR-2xx7 (11)2.4 Connector on RPU-024 of FAR-15x8 (11)2.5 Connectors on up-mast unit of FAR-2xx8/FAR-3000 (12)3. CONFIGURATION OF DISPLAY RESOLUTION (13)4. CONFIGURATION OF PARAMETERS (15)4.1 Vessel dimensions and antenna offsets (15)5 ADJUSTMENT OF VIDEO LEVEL (16)5.1 Video level and ADC Gain (16)5.2 How to activate radar video adjustment mode (17)5.3 How to adjust video level offset (18)5.4 How to adjust ADC gain (19)5.5How to adjust Trigger delay (20)5.6 How to quit radar video adjustment mode (20)6. PERFORMANCE TEST FOR NAVIGATION RADAR (21)6.1 FAR-2xx7 (21)6.2 FAR-3000 (21)7. TROUBLESHOOTING (22)7.1. No data from serial data sensors (22)8. INTERCONNECTION DIAGRAM (23)Version E, 07 JUN 20191. SPECIFICATIONS Interconnection diagram:2. CABLING AND CONNECTORS2.1 Connectors on EC-3000 processorBelow you can find connectors on EC-3000 processor back panel.2.2 Sensor Data Input2.2.1. IntroductionSensor data can be input either using:∙Serial connector inside EC-3000 (IEC61162-1/2)∙LAN interface from HUB-100 of ECDIS network (IEC61162-450)Note that target information TT and AIS targets have to be received both either serial interface or LAN interface. Only one interface can be used.2.2.2 Serial Interface sensor informationFollowing sentences can be received by FICE-100/FOIL-200:HDT, THS, GLL, GGA, VTG, ZDA, VBW, VHW, TTM, VDM, MTWBelow you can find connectors for serial line sensor data inside EC-3000 processor. Connector J3 can be used for Gyro signal input (38400 bps). Connectors J5-J6 and J8-J10 can be used for Gyro, EPFS, log and weather data signals (4800 bps). System automatically detects input signals, i.e. there is no need to configure these ports.Note, that connectors:∙J4 is for VDM, AIS target data (38400 bps)∙J7 is for TTM, Navigation radar tracket targets (4800 bps)Gyro 4800 bpsGyro 38400 bpsLog 4800 bpsAIS 38400 bpsWeather 4800 bpsEPFS 4800 bpsTT 4800 bps Connectors J3 and J4 are for IEC61162-2Connectors J5-J10 are for IEC61162-12.2.3 LAN Interface for sensor informationConfiguration of sensor receiving from MC-3000/HUB-100 can be done in “sensor.conf” file. You need to configure LAN1 into the same network as MC-3000/HUB-100.- Open console Press ALT + X keys.- Type nano sensors.conf [enter]- Check that source is as “source=lwe”- Check that own IP address is in the same network space as MC-3000 (for example if MC-3000 IP address is192.168.1.1) then own IP can be (192.168.1.119).- Save and close editor.2.3 Connectors on ScanStreamer2.3.1 IntroductionThere are two versions of Scanstreamer available:∙ScanStreamer DNP2012001∙ScanStreamer DNP2016009∙Check which one you have in your system.A ScanStreamer receives raw radar video from Furuno navigation radar, FAR-2xx7, FAR-2xx8, FAR-15x8 or FAR-3000. Following information is received from Furuno navigation radar. It digitizes analogue video and send it to EC-3000 through LAN:∙Raw radar video∙Trigger∙Bearing pulse∙Head line2.3.2 ScanStreamer DNP2012001Below is shown connectors on DNP2012001:Oil radar/Ice radar (EC-3000) processor receives digitized radar video through LAN connection.Connector J42.3.2 ScanStreamer DNP2016009Below is shown connectors on DNP2016009:Oil radar/Ice radar (EC-3000) processor receives digitized radar video through LAN connection.Connector J32.4 Connector on RPU-013 of FAR-2xx7 Connect cable to SLAVE 1 connector (J617)2.4 Connector on RPU-024 of FAR-15x8 Connect cable to SLAVE 1 connector (J611) Connect FICE-110 cable to SLAVE 1 connector Connect FICE-110 cable to SLAVE 1 connector2.5 Connectors on up-mast unit of FAR-2xx8/FAR-3000Connect FICE-110 cable to TB 803 (trigger, bearing pulse and head line) and to TB804 (radar video) as shown below.Radar video cableconnected to TB804 connector (TOSLAVE DISPLAY)WAGO connectorconnected to TB803 connector3. CONFIGURATION OF DISPLAY RESOLUTIONWhen booting up the system it is automatically detecting display connected to system. For some cases system fails to detect correctly connected display and you need to manually enter display resolution and dimensions of monitor.To configure manually display resolution, precede as follows:1. During boot up the system you following display will be shown.Select Display configuration.2. Select correct resolution for display3. Enter width in millimeters4. Enter height in millimeters5. Check that you have correct values and confirm by selecting Yes.4. CONFIGURATION OF PARAMETERS4.1 Vessel dimensions and antenna offsetsSensor and conning positions on ship are in “vessel.config” file, which must be edited at installation time.5 ADJUSTMENT OF VIDEO LEVEL5.1 Video level and ADC GainWhen installation of FICE-100/FOIL-200 is done, you have to check that video level is correctly set. FICE-100/FOIL-200 radar uses raw radar video from navigation radar to make ICE/Oil radar image on FICE-100/FOIL-200 screen. Each navigation radar has a bit different video level in output for FICE-100/FOIL-200. To adopt for different video level you can adjust video level offset and ADC gain (signal amplifier).Below is typical video signal received from FAR-2xx7 or FAR-3000.Below is example of incorrect video level offset:Photos above: Video level is much too high. Near area is not readable at all. You can see it alsoin scope display.Sweep 0-11 000 m:This graph is to indicate how video is shown up to 11 000 meters.Photos above: Video level offset is adjusted. You can see in scope display that video is readable during antenna sweep in whole range.5.2 How to activate radar video adjustment modeYou can activate FICE-100/FOIL-200 video adjustment mode:5.3 How to adjust video level offsetAdjustment range of Video Offset:ScanStreamer DNP2012003: -1.00 - 1.00ScanStreamer DNP2016001: 0 - 255To adjust video level offset: Before video level adjustment:After adjustment:5.4 How to adjust ADC gainAdjustment range of ADC Gain:ScanStreamer DNP2012003: 0 - 6ScanStreamer DNP2016001: 0 - 255Before gain adjustment:To adjust video level: After adjustment:5.5How to adjust Trigger delayYou may need to adjust trigger delay on FICE-100/FOIL-200. This is very much depending on cable length between navigation radar and ScanStreamer. Measure distance of echo on Navigation radar. Measure the same echo on FICE-100/FOIL-200, if there is difference in distance you can use Trigger delay to adjust echoes on FICE-100/FOIL-200 display.5.6 How to quit radar video adjustment modeTo quit radar video adjustmentmode:6. PERFORMANCE TEST FOR NAVIGATION RADAR6.1 FAR-2xx7FAR-2xx7 is used as normal navigation radar. To verify performance of radar, see installation manual of FAR-2xx7. Following should be proceeded:• “Tune initialize”• Check TX time of magnetron• Use “Performance monitor” to check gain. Performance monitor is an option. If not available, check TX time of magnetron. Replace magnetron if TX time is more than 5000 hours.6.2 FAR-3000Automatic tuning is initialized during the installation. However, if you feel that automatic tuning is not working properly try re-initializing the tuning. Right-click the [TUNE] button then select [Tune Initialize] to start the initialization. The indication [Tune INI] appears during initialization.7. TROUBLESHOOTING7.1. No data from serial data sensorsIf heading or position is missing, you can do following things:1. Check that data is sent by the sensor(s).2. Check that cabling is correctly done and connectors properly fixed.To check configuration of COM –ports:A) Sensor traffic- Click Alt+x together to open console- Type: cat /dev/ttyXR2 (ttyXR2 = J3, ttyXR3 = J4, ttyXR4 = J5, …, ttyX R9 = J10) You should now see sensor traffic on screen. Press Ctrl-C to stop it.8. INTERCONNECTION DIAGRAM。

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3B SCIENTIFIC ® PHYSICSGyroscope U52006Instruction sheet9/05 ALFAccessories for Gyroscope U520101Disc2Gyroscope axle 3Bobbin4Set of accessories U520105Tripod stand 6Stand rod7Counterweight, large 8Counterweight, small 9Adjusting screw bl Scalebm Spirit level567893412bl bm The gyroscope is used for demonstration and experimen-tal quantitative derivation of the laws of gyrostatics. The following topics can be dealt with experimentally:•Moment of inertia of the disc•Turning moment/angular momentum •Precession •Nutation1. Safety instructions•Make sure that the gyroscope is standing firmly on the surface•Make sure no components of the gyroscope (disc,weights) can fall down.2. Description, technical data2.1 GyroscopeThe gyroscope includes a vertical stand rod 6 to which is attached a gyroscope axle 2 that can be rotated ver-tically and horizontally on its bearings. A disc 1 mount-ed on double ball bearings is fitted on one side of the axle. At the other end, there are two counterweights 7,8 that can be moved to balance the axle. Fine adjust-ments can be made at the end of the axle by means of an adjusting screw 9. To generate external turning mo-ments, a hanger with an additional weight is suspended from the axle. The angle of inclination of the axle is dis-played on a scale bl which is clear and easy to read. A spirit level bm is provided so that the gyroscope can bealigned to the horizontal. The disc can be made to rotate either manually or by means of a string. The double ball-race bearing guarantees almost frictionless rotation that goes on for an extended period of time. The open con-struction of the gyroscope facilitates excellent observa-tion of the gyroscopic phenomena.Scale:– 45° to +45°Scale divisions:1°Disc:250 mm ØMass of disc:1500 gMass of counterweights:50 g, 1400 gTotal mass:4650 g2.2 Accessories for the gyroscopeThe set of accessories for the gyroscope U52006 consists of an additional disc and a counterweight. It is used to demonstrate the cancellation of gyroscopic forces when two discs rotate in opposite directions with the same rotational speed.3. TheoryA gyroscope is a rigid body that rotates around an axis that is fixed at one point. If no external turning moment is applied, the axis of the gyroscope (being equivalent to the axis of its angular momentum) maintains its position in space. If, however, an external force is applied to the axis, then this turning moment effects a change in angu-lar momentum. As a result, the axis is laterally displaced. The gyroscope moves in a direction perpendicular to both its own axis and to the acting force. This motion is called precession. If an impulse is applied to the axis of the gyroscope when it is spinning normally, the resulting turn-ing moment causes an additional angular motion and the gyroscope starts to wobble. This wobbling motion is called nutation. In general, both motions are superim-posed on one another.4. Operation•Place the tripod stand 5 on a level, non-vibrating work surface.•Insert and fix the stand rod 6 into the tripod stand.•Insert the gyroscope axle 2 into its bearing.•Align the device in a horizontal position by using the spirit level bm.•Slide the disc 1 and the counterweights 7, 8 along the axle. Use the locking ring to securely fix the disc and balance the gyroscope. Use the adjusting screw 9 for making fine adjustments.•Rotate the gyroscope manually or with the help of a string wound into the bobbin 3.5. Examples of experimentIn order to conduct the experiments, the following addi-tional equipment is required:•Mechanical adding stopwatch U11901 for measuring the precession and nutation frequencies.•Stand rod U15002 and bosshead U13250 for fixing the gyroscope.•Light barrier U18020 and digital counter U21005 for measuring the period of rotation of the gyroscope disc.5.1 Determining the moment of inertia I of the disc •Set up the gyroscope as shown in Fig. 1 and balance it.• A known turning moment D is applied to the disc.The resulting angular momentum dω/dt is measured.The following equation applies:d Ddt Iω=•To apply this turning moment, wind a string around the bobbin, suspend a weight from one end of the string and allow the weight to fall.•Turning moment D = mgr (m = mass of accelerating weight and r = radius of bobbin).•To determine the angular acceleration, measure the time ∆t between releasing the disc and when the weight hits the floor.•Next determine the angular velocity ωE. To do so, use the light barrier to measure the period of one disc revolution. Before starting the experiment, glue a thin strip of paper onto the rim of the disc.•The moment of inertia I is calculated using the equa-tion:ddt tωω=∆ED tI=∆ωEFig. 1: Determining the moment of inertia of the disc5.2 Precession•The aim of the experiment is to demonstrate preces-sion and to study the interdependence of the period of precession and the frequency of rotation of the disc.•Set up the gyroscope as shown in Fig. 2 and balance it.•Suspend an additional weight from the axle.•Make the device rotate either manually or with the help of the string.•The gyroscope displays precession.•Determine the rotational frequency f of the disc and measure the period for one precession cycle T P .•The relation between f and T P is calculated using the following equation:D t I =∆ωE where R is the distance from the fulcrum of the gyro-scope axis to the point where the additional weight m is attached.•Take further measurements at decreasing rotational frequencies.•Plot a graph of the frequency of rotation as a func-tion of the period of a precession cycle.•As an alternative to the method described above, the moment of inertia I of the disc can also be deter-mined from the straight line gradient a .m g R f a π2=4•Repeat the experiment using a different added weight.It can be determined that the precession frequency is approximately proportional to the added mass.5.3 Nutation•The aim of the experiment is to demonstrate nuta-tion and to study the interdependence between nu-tation frequency and frequency of rotation of the disc.•Set up the gyroscope as shown in Fig. 3 and balance it.•Make the disc rotate, either manually or with the help of the string.• A slight lateral push to the spinning axis of the gyro-scope will initiate nutation.•In order to make a quantitative evaluation of the experiment, determine the period of a suitable number of nutation cycles.Fig. 2: Precession•Subsequently measure the period of rotation of the disc.•Make further measurements at slower disc frequen-cies•Plot a graph of the nutation frequency as a function of the frequency of rotation of the disc.•The nutation frequency is proportional to the rota-tion frequency.5.4 Cancellation of gyroscopic forces•As shown in Fig. 4, slide a second disc and counter-weight along the axis and secure with the locking ring.•Balance the gyroscope.•Attach the additional weight.•Manually rotate the discs. Make sure they rotate in the same direction. To see the direction of rotation more clearly, you can glue a piece of white paper onto each disc.•Demonstrate precession and nutation.•Now wind each end of the string in opposite direc-tions around a different bobbin.•When the string is pulled, both discs begin to rotate in opposite directions with approximately the same rotational speed.•Demonstrate the cancellation of gyroscopic forces.Fig. 3: NutationFig. 4: Cancellation of gyroscopic forces。

美国ALPHA阿尔法基本介绍本文章来源：主题名品网｜户外装备。

阿尔法（Alpha）历史，首先让我们回到1959年的美国田纳西州东部城市诺克斯维尔市。

当时航天飞行技术提高，飞机可以到达更高空，同时飞行地面部队艰苦的作业环境，这都使得士兵们对技术装备和日常生活有了新的需求，也正式考虑到这些需求，美国国防部决定委托位于诺克斯维尔市的阿尔法工业为其改良一批军用夹克。

简单的任务造就了卓越的品牌。

接到任务后，阿尔法对旧夹克在风格上进行了大胆的创新和改良，采用上等织布，缝制了一批设计合理、工艺精细、质量更佳的夹克，圆满完成了国防部的重托，从此其产品也赢得更保暖、更舒适、更方便、更值得信赖的良好声誉。

阿尔法纪念夹克50岁的Alpha公司1959年诞生于美国的田纳西州，它是在三家公司--Superior TogsCorporation、Rolen Sporswear 以及DobbsIndustries的基础上发展而来的，自成立以来，Alpha公司始终是美国国防部指定的军服供应商之一，并多次获得美国国防部颁发的"杰出质量奖".为纪念其成立50周年，特别推出了这款50周年纪念夹克。

此夹克为限量版，全球只有几百件，每件都有编号，独具收藏价值。

阿尔法飞行夹克Alpha 阿尔法MJL32020C1 L-2B飞行夹克不同于L-2A的蓝色，这款轻薄的飞行员夹克是绿色的，是为了方便朝鲜战争中被击落的飞行员进行伪装，逃避敌人的搜捕。

跟传统的飞行员夹克一样，100%防水尼龙缎表面，棉缎内里，魔术贴肩章，正面有两个带盖口袋，阿尔法独特的功能铅笔口袋。

阿尔法野战风衣M1951式野战风衣是朝鲜战争时期美国士兵的标准配备，前身是美军在1950年设计的M1950式风衣，在二战结束后没多久又爆发了朝鲜战争，为了应战争需要。

美军在二战时期的M1943式风衣设计基础上推出了M1950式风衣，但只进行了少量改进。

后来，美军推出M1965式野战风衣后逐渐取代了M1950风衣。

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阿尔法Alpha CWU-45P飞行夹克基本介绍本文章来源：主题名品网｜豆妹户外装备。

CWU-45/P是Alpha受雇于美国国防部专为飞行员设计的一款夹克，受到美国空军的广泛好评。

如今它不再是单纯意义上的军服，反而成了一种经典，逐渐融入到人们的生活中。

致密的尼龙材质，手感光滑有光泽，内部添加有厚实的填充物，保暖性能非常优越，在零下10℃的天气中穿着皆可。

该款夹克轻盈保暖，款式简洁大方，因优越的御寒能力、干练的外形、坚固耐用的特性而成为服装业夹克衫的经典。

Alpha品牌的服装以保暖御寒、宽松舒适、可靠耐用，并能适应多变的恶劣气候环境而闻名世界。

如今，许多美军夹克和风衣的设计与生产的革新，都起源于Alpha的精英设计团队。

不管是翱翔于蓝天的飞行员、还是行走在街道上的路人、亦或者是上流社会成员、或是著名的国内外明星等，都有Alpha的存在，阿尔法也凭借其一如既往的创新精神引领着服装与时尚的潮流。

详细参数品牌：Alpha阿尔法产品名称：Cwu 45/P飞行夹克颜色：黑色/绿色/枪灰色领型：翻领主要功能：防风、防水、御寒、保暖材质：100%尼龙+100%涤纶内衬尺码：XS/S/M/L/XL/2XL/3XL/4XL/5XL产地：中国用途：军事训练、户外野营、远足探险、地质勘探、野外垂钓、远足登山、旅游休闲品牌特性1、顶级防水面料顶级防水的100%尼龙面料，比一般尼龙更致密，密实防风，保暖性强，防水性佳；2、保暖涤纶内衬优质厚实的加棉内里，采用100%涤纶材质，质地轻盈、柔软透气、穿着舒适、保暖性强；3、立体剪裁缜密车缝严格按照产品的版型与尺寸裁剪，车缝线精密工整，做工考究，品质经过层层关卡检测，质地坚韧结实抗撕裂；4、专利Alpha拉链Alpha专利五金拉链，闭合爽滑密实，经久耐用，大号拉链头硬朗大气，细节彰显卓越品质；5、胸前百变魔术贴左胸前设有Alpha经典LOGO魔术贴，并配有原厂魔术贴，也可粘住姓名标牌、徽章等；6、紧致松紧袖口袖口采用弹力十足的松紧式设计，能够更好地防风保暖，穿戴快捷，符合现代快节奏要求；7、束身式下摆阿尔法45P典型的束身式下摆设计，有效保暖的同时还具修身效果，简洁又不失时尚；8、两侧魔术贴口袋两侧大空间口袋采用魔术贴封口，安全不易松脱，可收纳钱包、记事本、手机等大件物品；9、内部左侧内袋衣服内部左侧设有隐藏式内袋，适合存放证件、钱包、手机等贵重物品，取拿便捷迅速。

AMP-310-EUR AMP-320-EUR AMP-330-EURsecuencia de fases en sistemas calefacción, ventilación y aire AMP-310-EURPinza amperimétrica CA, calefacción, ventilación y aire acondicionadoAMP-320-EURPinza amperimétrica de CA/CC paramantenimiento de motores eléctricosAMP-330-EURPinza amperimétrica CA/CC industrialesAplicaciones de la serie AMP-300-EUR• Medición precisa de corriente, tensión y frecuencia en todos los sistemas eléctricos, incluidas señales distorsionadas y no sinusoidales (función de verdadero valor eficaz) y variadores de velocidad (filtro de paso bajo).• Medición de capacitancia de condensadores de arranque de motores.• Funciones de resistencia y continuidad para verificar la calidad de las conexiones eléctricas y comprobar si las bobinas de los motor y el transformador funcionan correctamente.• La prueba de rotación de fases ymotor trifásico permiten la conexiónadecuada de un motor a un sistematrifásico. Los motores conectados deforma inadecuada girarán en direccióninversa. Esto puede destruir el propiomotor u otros equipos conectados.• El filtro paso bajo permite la mediciónde corriente y tensión en variadoresde velocidad (motores con velocidadcontrolada mediante frecuencia). Sin estacaracterística, el medidor proporcionaríalecturas erróneas al medir la tensión y lacorriente.• Salida de microamperios de CC paramedición de sensores de llamas. Permitecomprobar el funcionamiento correctodel sistema de seguridad del sensor dellama en aparatos que funcionan con gas.Un sensor roto en un dispositivo de gasimpedirá que la válvula de seguridad seabra, por lo que el equipo no funcionará.• La medición de la corriente dearranque para el control del arranquede los motores permite a los usuarioscomprobar que el motor recibe lacorriente necesaria para que el motorarranque de forma adecuada.Pinza amperimétrica CA para calefacción, ventilación y aire acondicionado AMP-310-EUR Pinza amperimétrica de CA/CC para mantenimiento demotores eléctricos AMP-320-EUR CA/CCPinza amperimétrica AMP-330-EUR CA/CC de 1.000 A paramantenimiento de motores industrialesAMP-200-EUR y AMP-300-EUREspecificaciones detalladasAMP-200-EUR y AMP-300-EUREspecificaciones generalesAMP-210-EURAMP-220-EURAMP-310-EURAMP-320-EURAMP-330-EUR®®AMP-310-EUR AMP-320-EUR AMP-330-EUR。