REV.AInformation furnished by Analog Devices is believed to be accurate and reliable. However, no responsibility is assumed by Analog Devices for its use, nor for any infringements of patents or other rights of third parties which may result from its use. No license is granted by implication oraAD8010One Technology Way, P.O. Box 9106, Norwood, MA 02062-9106, U.S.A.Tel: 781/329-4700World Wide Web Site: 200 mA Output Current High Speed AmplifierCONNECTION DIAGRAMS8-Lead DIP and SOIC87651234NC = NO CONNECTNC –IN +IN NC +V S OUT NC–V S AD801016-Lead Wide Body SOIC161514131234NC = NO CONNECTNC –IN +IN NC +V S OUT NC –V S 12111095678NC NC NC NC NC NC NC NCAD8010V IN+5V–5V75⍀75⍀AD8010R TR GR FR SFigure 1.Video Distribution AmplifierPRODUCT DESCRIPTIONThe AD8010 is a low power, high current amplifier capable of delivering a minimum load drive of 175 mA. Signal performance such as 0.02% and 0.03° differential gain and phase error is maintained while driving eight 75 Ω back terminated video lines.The current feedback amplifier features gain flatness to 60 MHz and –3 dB (G = +1) signal bandwidth of 230 MHz and only requires a typical of 15.5 mA supply current from ±5 V supplies.These features make the AD8010 an ideal component for Video Distribution Amplifiers or as the drive amplifier within high data rate Digital Subscriber Line (VDSL and xDSL) systems.The AD8010 is an ideal component choice for any application that needs a driver that will maintain signal quality when driving low impedance loads.The AD8010 is offered in three package options: an 8-lead DIP,16-lead wide body SOIC and a low thermal resistance 8-lead SOIC, and operates over the industrial temperature range of –40°C to +85°C.FEATURES200 mA of Output Current 9 ⍀ LoadSFDR –54 dBc @ 1 MHzDifferential Gain Error 0.04%, f = 4.43 MHz Differential Phase Error 0.06؇, f = 4.43 MHzMaintains Video Specifications Driving Eight Parallel 75 ⍀ Loads0.02% Differential Gain 0.03؇ Differential Phase0.1 dB Gain Flatness to 60 MHz THD –72 dBc @ 1 MHz, R L = 18.75 ⍀IP3 42 dBm @ 5 MHz, R L = 18.75 ⍀1 dB Gain Compression 21 dBm @ 5 MHz, R L = 100 ⍀230 MHz –3 dB Bandwidth, G = +1, R L = 18.75 ⍀800 V/s Slew Rate, R L = 18.75 ⍀25 ns Settling Time to 0.1%Available in 8-Lead DIP, 16-Lead Wide Body SOIC and Thermally Enhanced 8-Lead SOIC APPLICATIONSVideo Distribution Amplifier VDSL, xDSL Line Driver Communications ATEInstrumentation查询AD8010供应商捷多邦，专业PCB打样工厂，24小时加急出货AD8010–SPECIFICATIONS(@ +25؇C, V S = ؎5 V, G = +2, R L = 18.75 ⍀, R S+ = 150 ⍀, R F = R G = 604 ⍀ (R-16), R F = R G = 562 ⍀ (N-8), R F = R G = 499 ⍀ (R-8). T MIN = –40؇C, T MAX = +85؇C unless otherwise noted)M odel Conditions Min Typ Max Units DYNAMIC PERFORMANCE–3 dB Bandwidth G = +1, V OUT = 0.2 V p-p180230MHzG = +2, V OUT = 0.2 V p-p130190MHz0.1 dB Bandwidth V OUT = 0.2 V p-p3060MHzLarge Signal Bandwidth V OUT = 4 V p-p90MHz Peaking V OUT = 0.2 V p-p, < 5 MHz0.02dB Slew V OUT = 2 V p-p800V/µs Rise and Fall Time V OUT = 2 V p-p 2.0ns Settling Time0.1%, V OUT = 2 V p-p25ns NOISE/HARMONIC PERFORMANCEDistortion V OUT = 2 V p-p2nd Harmonic 1 MHz–73dBc5 MHz–58dBc10 MHz–53dBc10 MHz, R L = 39 Ω–67dBc20 MHz–44dBc3rd Harmonic 1 MHz–77dBc5 MHz–63dBc10 MHz–57dBc10 MHz, R L = 39 Ω–63dBc20 MHz–50dBcIMD 5 MHz ∆f = 10 kHz–73dBc IP3 5 MHz42dBm1 dB Gain Compression 5 MHz21dBmInput Noise Voltage f = 10 kHz2nV√Hz Input Noise Current f = 10 kHz, +In3pA√Hzf = 20 kHz, –In20pA√HzDifferential Gain f = 4.43 MHz, R L = 150 Ω0.02%f = 4.43 MHz, R L = 18.75 Ω0.02%Differential Phase f = 4.43 MHz, R L = 150 Ω0.02Degreesf = 4.43 MHz, R L =18.75 Ω0.03Degrees DC PERFORMANCEInput Offset Voltage512mVT MIN–T MAX15mV Offset Drift10µV/°C Input Bias Current (–)10135µAT MIN–T MAX200µA Input Bias Current (+)612µAT MIN–T MAX20µA INPUT CHARACTERISTICSInput Resistance+Input125kΩ–Input12.5ΩInput Capacitance 2.75pF Common-Mode Rejection Ratio V CM = ±2.5 V5054dB Input Common-Mode Voltage Range±2.5V Open Loop Transresistance V OUT = ±2.5 V300500kΩT MIN–T MAX250kΩOUTPUT CHARACTERISTICSOutput Voltage SwingR L = 18.75 Ω±2.1±2.5V R L = 150 Ω±2.7±3.0V Output Current R L = 9 Ω175200mA Short-Circuit Current240mA Capacitive Load Drive40pF POWER SUPPLYOperating Range±4.5±6.0V Quiescent Current15.517mAT MIN to T MAX20mA Power Supply Rejection Ratio+V S = +4 V to +6 V, –V S = +5 V6066dB+V S = +5 V, –V S = –4 V to –6 V5056dBAD8010ABSOLUTE MAXIMUM RATINGS 1Supply␣Voltage . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .12.6␣V Internal␣Power␣Dissipation 2Plastic␣Package (N) . . . . . . .Observe Power Derating Curves Small␣Outline␣Package (R) . .Observe Power Derating Curves Wide Body SOIC (R-16) . . . .Observe Power Derating Curves Input Voltage (Common-Mode) . . . . . . . . . . . . . . . . . . . .±V S Differential␣Input␣Voltage . . . . . . . . . . . . . . . . . . . . . .±1.2␣V Output Short Circuit Duration.␣. . . . . . . . . . . . . . . . . . . . . .Observe Power Derating Curves Storage Temperature Range N, R . . . . . . . .–65°C to +125°C Operating Temperature Range (A Grade) . . .–40°C to +85°C Lead Temperature Range (Soldering␣10␣sec) . . . . . . . .+300°CNOTES1Stresses above those listed under Absolute Maximum Ratings may cause perma-nent damage to the device. This is a stress rating only; functional operation of the device at these or any other conditions above those indicated in the operational section of this specification is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability.2Specification is for device in free air:8-Lead Plastic Package: θJA = 90°C/Watt 8-Lead SOIC Package: θJA = 122°C/Watt 16-Lead SOIC Package: θJA = 73°C/WattAMBIENT TEMPERATURE – ؇C–50M A X I M U M P O W E R D I S S I P A T I O N – W a t t s–40–30–20–100102030405060708090Figure 2.Plot of Maximum Power Dissipation vs. TemperatureCAUTIONESD (electrostatic discharge) sensitive device. Electrostatic charges as high as 4000V readily accumulate on the human body and test equipment and can discharge without detection.Although the AD8010 features proprietary ESD protection circuitry, permanent damage may occur on devices subjected to high energy electrostatic discharges. Therefore, proper ESD precautions are recommended to avoid performance degradation or loss of functionality.ORDERING GUIDEModelTemperature Range Package Description Package Options AD8010AN –40°C to +85°C 8-Lead Plastic DIP N-8AD8010AR –40°C to +85°C 8-Lead Plastic SOICSO-8AD8010AR-16–40°C to +85°C16-Lead Wide Body SOIC R-16AD8010AR-REEL REEL SOIC 13" REEL AD8010AR-REEL7REEL SOIC 7" REEL AD8010AR-16-REEL REEL SOIC 13" REEL AD8010AR-16-REEL7REEL SOIC7" REELMAXIMUM POWER DISSIPATIONThe maximum power that can be safely dissipated by the AD8010 is limited by the associated rise in junction tempera-ture. The maximum safe junction temperature for plasticencapsulated devices is determined by the glass transition tem-perature of the plastic, approximately +150°C. Temporarily exceeding this limit may cause a shift in parametric perfor-mance due to a change in the stresses exerted on the die by the package. Exceeding a junction temperature of +175°C for an extended period can result in device failure.While the AD8010 is internally short circuit protected, this may not be sufficient to guarantee that the maximum junction temperature (+150°C) is not exceeded under all conditions. To ensure proper operation, it is necessary to observe the maximum power derating curves.AD8010dG (%)/d – Degrees60300.130.01P E R C E N T A G E O F U N I T S0.020.030.040.050.060.070.080.090.100.110.12504020100Figure 3.Distribution of Differential Gain (dG) andDifferential Phase (d φ); R L = 18.75 ΩFREQUENCY – MHzH A R M O N I C D I S T O R T I O N – d B cFigure 4.Harmonic Distortion vs. Frequency; G = +2Figure 5.Gain Flatness vs. Frequency Over Temperature (–40°C to +85°C)NUMBER OF VIDEO LOADS0.050.041624681012140.030.020.01D I F F E R E N T I A L G A I N – %10.100.080.060.040.02D I F FE R E N T I A LP H A S E – D e g r e e sFigure 6.Differential Gain and Phase vs. Number of Video Loads Over Temperature (–40°C to +85°C); f = 4.43 MHzFigure 7.Two-Tone, 3rd Order IMD Intercept vs.Frequency; G = +2, RL = 18.75 Ω6.56.46.36.26.16.05.95.85.75.65.5FREQUENCY – MHzG A I N F L A T N E S S – d BFigure 8.Gain Flatness vs. Frequency vs. Number of Video Loads–Typical Performance CharacteristicsAD8010FREQUENCY – MHzI N T E R M O D U L A T I O N D I S T O R T I O N – d B mFigure 9.Intermodulation DistortionP OUT – dBm–35–75–105–1012–8T O T A L H A R M O N I C D I S T O R T I O N – d B c–6–4–2246810–45–55–85–95–65Figure 10.Total Harmonic Distortion vs. P OUT ; G = +2FREQUENCY – MHz21–7N O R M A L I Z E D G A I N – d B0–1–6–2–3–4–5 Figure 11.Small Signal Closed-Loop Frequency Response; R L = 18.75ΩFREQUENCY – MHz10123456789–10–90P M E A S U R E – d B m–50–60–70–80–30–40–20Figure 12. Multitone Distortion; R L = 100 ΩLOAD – ⍀–55–60–65–70–75–80–85–9015100200300400500H A R M O N I C D I S T O R T I O N – d B cFigure 13.Harmonic Distortion vs. LoadFigure 14.Closed-Loop Frequency Response vs. Number of Video LoadsAD8010FREQUENCY – MHz–10–200.035000.1P S R R – d B110100–30–40–80–50–60–70Figure 15.PSRR vs. FrequencyFREQUENCY – MHz0.15001C L O S ED -L O O P O U T P U T RE S I S T A N C E – ⍀1010031010031103.110.310.1Figure 16.Closed-Loop Output Resistance vs. FrequencyFREQUENCY – MHz21N O R M A L I Z E D G A I N – d B–1–2–7–3–4–5–60Figure rge Signal Frequency Response; V O = 2 V p-pFREQUENCY – MHz0.15001C M R R – d B101000–10–100–20–30–40–50–60–70–80–90Figure 18.CMRR vs. FrequencyFREQUENCY – Hz3160.31610k1G100kT R A N S R E S I S T A N C E – k ⍀1M 10M 100M10031.6103.16190P H A S E – D e g r e e s451000Figure 19.Transresistance and Phase vs. Frequency;R L = 18.75 ΩFREQUENCY – MHz0.1N O R M A L I Z E D G A I N – d B1003.02.0–7.01.00.0–1.0–2.0–3.0–4.0–5.0–6.0Figure rge Signal Frequency Response; V O = 4 V p-pAD8010Figure 21.Small-Signal Pulse Response; G = +1Figure 22.Small-Signal Pulse Response; G = +2, –110010FREQUENCY – Hz 1k 1010010k 100k 1M 1I N P U T V O L T A G EN O I S E – n V / H z10MFigure 23.Input Voltage Noise vs. FrequencyV O L T SFigure rge-Signal Pulse Response; G = +1Figure 25.Large-Signal Pulse Response; G = +2, –1100101FREQUENCY – HzI N P U T C U R R E N T N O I S E – P A H z1000Figure 26.Input Current Noise vs. FrequencyAD8010V O L T SFigure 27.Overdrive Recovery; G = +6OVERDRIVE RECOVERYOverdrive of an amplifier occurs when the output and/or input range are exceeded. The amplifier must recover from this over-drive condition. As shown in Figure 27, the AD8010 recovers within 35 ns from negative overdrive and within 75 ns from positive overdrive.THEORY OF OPERATIONThe AD8010 is a current feedback amplifier optimized for high current output while maintaining excellent performance with respect to flatness, distortion and differential gain/phase. As a video distribution amplifier, the AD8010 will drive up to 12parallel video loads (12.5 Ω) from a single output with 0.04%differential gain and 0.04° differential phase errors. This means that, unlike designs with one driver per output, any output is a true reflection of the signal on all other outputs.The high output current capability of the AD8010 also make it useful in xDSL applications. The AD8010 can drive a 12.5 Ωsingle-ended or 25 Ω differential load with low harmonic distor-tion. This makes it useful in designs that utilize a step-up trans-former to drive a twisted-pair transmission line.To achieve these levels of performance special precautions with respect to supply bypassing are recommended (Figure 29). This configuration minimizes the contribution from high frequency supply rejection to differential gain and phase errors as well as reducing distortion due to harmonic energy in the power supplies.R S – ⍀205C A P A C I T I V E L O AD – p F1015Figure 28.Capacitive Load Drive vs. Series Resistor for Various GainsDriving Capacitance LoadsThe AD8010 was designed primarily to drive nonreactive loads.If driving loads with a capacitive component is desired, best frequency response is obtained by the addition of a small series resistance as shown in Figure 28. The inset figure shows the optimum value for R SERIES vs. capacitive load. It is worth noting that the frequency response of the circuit when driving large capacitive loads will be dominated by the passive roll-off of R SERIES and C L.LAYOUT CONSIDERATIONSThe specified high speed performance of the AD8010 requires careful attention to board layout and component selection.Proper R F design techniques and low-pass parasitic component selection are necessary.The PCB should have a ground plane covering all unused por-tions of the component side of the board to provide low imped-ance path. The ground plane should be removed from the area near the input pins to reduce the parasitic capacitance.Figure 29.Standard Noninverting Closed-Loop Configura-tion with Recommended Bypassing TechniqueThe standard noninverting closed-loop configuration with the recommended power supply bypassing technique is shown in Figure 29. Ferrite beads (Amidon Associates, Torrance CA,Part Number 43101) are used to suppress high frequency power supply energy on the DUT supply lines at the DUT. C1 and C2each represent the parallel combination of a 47 µF (16 V) tanta-lum electrolytic capacitor, a 10 µF (10 V) tantalum electrolytic capacitor and a 0.1 µF ceramic chip capacitor. Connect C1from the +V S pin to the –V S pin. Connect C2 from the –V S pin to signal ground.The feedback resistor should be located close to the inverting input pin in order to keep the parasitic capacitance at this node to a minimum. Parasitic capacitances of less than 1 pF at the inverting input can significantly affect high speed performance.Stripline design techniques should be used for long traces (greater than about 3 cm). These should be designed with a characteristic impedance (Z O ) of 50 Ω or 75 Ω and be properly terminated at each end.AD8010APPLICATIONSVideo Distribution AmplifierThe AD8010 is optimized for the specific function of providing excellent video performance when driving multiple video loads in parallel. Significant power is saved and heat sinking is greatly simplified because of the ability of the AD8010 to obtain this performance when running on a ±5 V supply. However, due to the high currents that flow when driving many parallel video loads, special layout and bypassing techniques are required to assure optimal performance.When designing a video distribution amplifier with the AD8010, it is very important to keep in mind where the high (ac) currents will flow. These paths include the power supply pins of the chip along with the bypass capacitors and the return path for these capacitors, the output circuits and the return path of the output current from the loads.In general, any loops that are formed by any of the above paths should be made as small as possible. Large loops are both gen-erators and receivers of magnetic fields and can cause undesired coupling of signals that lowers the performance of the amplifier.Effects that have not been seen before in other op amp circuits might arise because of the high currents. Most op amp circuits output, at most, tens of milliamps and do not require extremely tight video specifications, while a video distribution amplifier can output hundreds of milliamps and require extremely low differential gain and phase errors.The bypassing scheme that is used for the AD8010 requires special attention. It was found that the conventional technique of bypassing each power pin individually to ground can have an adverse effect on the differential phase error of the circuit. The cause of this is attributed to the fact that there is an internal compensation capacitor in the AD8010 that is referenced to the negative supply.The recommended technique is to connect parallel bypass capacitors from the positive supply to the negative supply and then to bypass the negative supply to ground. For high fre-quency bypassing, 0.1 µF ceramic capacitors are recommended.These should be placed within a few millimeters of the power pins and should preferably be chip type capacitors.The high currents that can potentially flow through the power supply pins require large bypassing capacitors. These should be low inductance tantalum types and at least 47 µF. The ground side of the capacitor that bypasses the negative supply should be brought to a single point ground that is the common for the returns of the outputs.Figure 30 shows a circuit for making an N-channel video distri-bution amplifier. As a practical matter, the AD8010 can readily drive eight standard 150 Ω video loads. When driving up to 12video loads, there is minimal degradation in video performance.Another important consideration when driving multiple cables is the high frequency isolation between the outputs of the cables. Due to its low output impedance, the AD8010 achieves better than 46 dB of output-to-output isolation at 5 MHz driv-ing back terminated 75 Ω cables.Figure 30.An N-Channel Video Distribution Amplifier Using An AD8010.NOTE: Please see Figure 29 for Recommended Bypassing Technique.V L1L2LNAD8010Differential Line DriverTwisted pair transmission lines are more often being used for high frequency analog and digital signals. Over long distances,however, the attenuation characteristics of these lines can degrade the performance of the transmission system. To com-pensate for this, larger signals are transmitted, which after the attenuation, will still have useful signal strength.The high output current of two AD8010s can be used along with a transformer to create a high power differential line driver.The differential configuration effectively doubles the output swing, while the step-up transformer further increases the out-put voltage.In the circuit in Figure 31 the A device is configured as a gain-of-two follower, while the B device is a gain-of-two inverter.These will produce a differential output signal whose maximum value is twice the peak-to-peak value of the maximum output of one device. For this circuit a 12 V peak-to-peak output can be obtained.The op amps drive a 1:2 step-up transformer that drives a 100 Ω transmission line. Since the impedance reflected back to the primary varies as the square of the turns ratio, it will appear as 25 Ω at the primary. This source terminating resistor is split as a 12.4 Ω resistor at the output of each device.The circuit shown is capable of delivering 12 V p-p to the line and operates with a –3 dB bandwidth of 40 MHz. The peak current output of either op amp is 100 mA.Figure 31.High Output Differential Line Driver Using Two AD8010s.NOTE: Please see Figure 29 for Recommended Bypassing Technique.V ⍀AD8010 Closed-Loop Gain and BandwidthThe AD8010 is a current feedback amplifier optimized for usein high performance video and data acquisition applications.Since it uses a current feedback architecture, its closed-loop–3 dB bandwidth is dependent on the magnitude of the feed-back resistor. The desired closed-loop bandwidth and gain areobtained by varying the feedback resistor (R F) to set the band-width, and varying the gain resistor (R G) to set the desired gain.The characteristic curves and specifications for this data sheetreflect the performance of the AD8010 using the values of R Fnoted at the top of the specifications table. If a greater –3dB band-width and/or slew rate is required (at the expense of video per-formance), Table I provides the recommended resistor values.Figure 32 shows the test circuit and conditions used to produceTable I.Effect of Feedback Resistor Tolerance on Gain FlatnessBecause of the relationship between the 3 dB bandwidth and thefeedback resistor, the fine scale gain flatness will, to some ex-tent, vary with feedback resistor tolerance. It is therefore recom-mended that resistors with a 1% tolerance be used if it is desiredto maintain flatness over a wide range of production lots. Inaddition, resistors of different construction have different associ-ated parasitic capacitance and inductance. Metal-film resistorswere used for the bulk of the characterization for this data sheet.It is possible that values other than those indicated will be opti-mal for other resistor types.Quality of Coaxial CableOptimum flatness when driving a coax cable is possible onlywhen the driven cable is terminated at each end with a resistormatching its characteristic impedance. If the coax was ideal, then the resulting flatness would not be affected by the length of the cable. While outstanding results can be achieved using inex-pensive cables, it should be noted that some variation in flatness due to varying cable lengths may be experienced.OUTVFigure 32.Test Circuit for Table INOTES1VO= 0.2 V p-p for –3 dB Bandwidth.2VO= 2 V p-p for Slew Rate.3Bypassing per Figure 29.Table I.–3 dB Bandwidth and Slew Rate vs. Closed-Loop Gain and Resistor ValuesPackage: N-8Closed-Loop–3 dB BW Slew Rate Gain R F (⍀)R G (⍀)(MHz) (V/s) +1453∞285900+2374374255900+534886.6200800+1056261.9120550 Package: R-16Closed-Loop–3 dB BW Slew Rate Gain R F (⍀)R G (⍀)(MHz) (V/s) +1412∞245900+2392392220900+539297.6160800+1060466.595550 Package: SO-8Closed-Loop–3 dB BW Slew Rate Gain R F (⍀)R G (⍀)(MHz) (V/s) +1392∞345950+23743743051000+534886.62201000+1049954.9135650OUTLINE DIMENSIONSDimensions shown in inches and (mm).C 3208a –0–10/98P R I N T E D I N U .S .A .AD80108-Lead Plastic Mini-DIP(N-8)PLANE0.014 (0.356)0.045 (1.15)(2.54)BSC0.325 (8.25)0.300 (7.62)0.008 (0.204)8-Lead SOIC (SO-8)PLANE BSC ؇16-Lead Wide Body SOIC(R-16)PLANE0.0138 (0.35)(1.27)BSC0.0091 (0.23)。
MC2000超声波检验MC2100 总则MC2110 适用范围MC2120 一般要求MC2121 检验人员资格MC2122 超声波检验文件MC2130 超声波检验设备MC2131 超声波检验仪器MC2132 探头MC2133 耦合介质MC2134 标定试块和对比试块MC2134.1 标定试块MC2134.2 对比试块MC2140 检验实施要求MC2141 表面准备MC2142 探头的校正与时基校准MC2143 灵敏度调节MC2143.1 用底面回波进行调节MC2144 扫查方式MC2150 缺陷显示表征MC2151 以底面回波为基准的标定法MC2151.1 波幅标定MC2151.2 尺寸标定MC2151.3 成组缺陷显示MC2152 以底面回波衰减为基准的标定法MC2152.1 波幅标定MC2152.2 尺寸标定MC2153 以人工反射体为基准的标定法MC2153.1 幅度标定MC2153.2 尺寸标定MC2153.3 成组缺陷显示MC2160 检验报告MC2170 自动捡验方法的专门要求MC2200 铸件超声波检验MC2210 适用范围MC2220 一般要求MC2230 检验条件MC2231 检验时间MC2232 检验区域MC2233 扫查方式MC2234 对比试块MC2235 距离一波幅校正曲线MC2236 缺陷显示表征MC2236.1 幅度MC2236.2 尺寸MC2300 锻件超声波检验MC2310 总则MC2311 一般要求MC2312 检验条件MC2313 扫查方式MC2314 超声波检验文件MC2315 检验报告MC2316 检验人员的资格(代替AFNOR标准10.1节)MC2320 横波法检验和(或)斜射纵波法检验MC232l 对比试块MC2322 调节和信号显示的表征MC2400 厚度≥6mm的奥氏体钢和合金钢钢板的超声波检验MC2410 总则MC2411 耦合介质MC2412 阶梯形试块的钢种MC2413 衰减测量MC2413.1 原理MC2413.2 方法MC2500 管件超声波检验MC2510 适用范围MC2520 一般要求MC2530 检验条件MC2531 检验时间MC2532检验区域MC2533 扫查方式MC2534.1 无缝钢管MC2534.2 无填充材料的卷焊管MC2540 检验设备MC254 l 手工检验设备MC2542 自动检验设备MC2550 功率和增益调节MC2560 自动装置调节校验MC2570 缺陷显示表征MC2580 检验报告MC2600 全焊透焊缝超声波检验MC2610 适用范围MC2620 一般要求MC2630 检验条件MC2631 检验时间MC2632 检验区域MC2633 表面准备MC2633.1 对接焊缝MC2633.2 角焊缝和支管连接MC2634 扫查方式MC2634.1 对接焊缝MC2635 对比试块MC2635.1 几何形状MC2635.2 人工反射体MC2636 功率和增益调节MC2637 缺陷显示表征MC2639 焊补区检验MC2700 隔离焊层、堆焊层及复合层超声波检验MC27l0 适用范围MC2720 一般要求MC2730 检验条件MC2731 检验时间MC2732 检验区域C2733 表面准备MC2734 扫查方式MC2734.1 隔离焊层和堆焊层MC2734.2 复合层MC2735 对比试块MC2735.1 型式和几何形状、MC2735.2 人工反射体MC2740 缺陷显示表征MC2741 堆焊层MC2741.1 幅度评定MC2741.2 尺寸评定MC2741.3 成组缺陷显示MC2741.3.1 体积型缺陷显示MC2741.3.2 连续未结合型缺陷显示MC2742 隔离焊层MC2742.1 幅度评定MC2742.2 尺寸评定MC2742.3 成组缺陷信号显示MC2743 复合层MC2743.1 幅度评定MC2743.2 尺寸评定MC2750 焊补区检验MC3000射线照相检验MC3100 总则MC3110 适用范围MC3120 一般要求MC312l 检验人员资格MC3122 射线照相检验文件MC3123 基准底片MC3130 射线照相检验设备MC3131 射线源MC3132 胶片系统MC3133 增感屏MC3134 滤光板MC3135 遮挡物质（屏蔽板）MC3136 透度计MC3137 标志和定位标记MC3138 观察设备MC3138.1 黑度计MC3138.2 黑度基准胶片和标准样MC3138.3 观片灯MC3139 胶片的储存MC3139.1 胶片封装MC3139.2 存档柜MC3139.3 档案室MC3139.4 环境条件MC3139.5 胶片的归档MC3140 检验条件MC314l 表面准备MC3142 射线源的选择MC3143 几何参数MC3143.1 几何不清晰度MC3143.2 射线源尺寸MC3143.3 胶片与零件间的距离MC3144 射线照相胶片和射线源相对位置MC3144.1 单壁透照MC3144.2 双壁透照MC3144.3 多件全景透照MC3145 透度计MC3145.1 透度计选择MC3145.2 透度计位置MC3146 暗盒组成MC3146.1 胶片MC3146.2 增感屏MC3147 滤光板MC3147.1 电压＜400KV的X射线MC3147.2 γ射线源MC3147.3 直线加速器和电子感应加速器MC3148 遮挡物质(屏蔽板)MC3149 胶片标志MC3149.1 射线透照件的标志和标记MC3149.2 射线照相胶片的标志和标记MC3149.3 曝光次数和胶片重叠MC3150 射线照相胶片处置和检验MC315l 射线照相胶片处置MC3152 灰雾度MC3153 射线照相底片检验MC3160 射线照相胶片质量MC3161 黑度MC3162 图象质量MC3162.1 焊接件MC3162.2 铸件MC3170 检验报告MC3200 钢铸件射线照相检验MC3210 适用范围MC3220 一般要求MC3230 检验条件MC3231 检验时间MC3232 检验区域MC3233 表面准备MC3234 胶片类型MC3235 特殊检验条件MC3235.1 滤光板MC3147.2规定的滤光板是非强制性的。
M C R P -09032P r i n t e d i n U .S .A .M C R P -09033P r i n t e d*N o t e : S .S .i s a n a b b r e v i a t i o n f o r s t a i n l e s s s t e e l.M C R P -09034P r i n t e dM C R P -09035P r i n t e dM C R P -09036P r i n t e dN O T E SM C R P -09037P r i n t e dN O T E SHATCO CORPORATIONP.O. Box 340500, Milwaukee, WI 53234-0500 U.S.A.(800) 558-0607 (414) 671-6350Parts &Service Fax (800) 690-2966 Int’l. Fax (414) 671-3976HATCO AUTHORIZED PARTS DISTRIBUTORSALABAMAJones McLeod Appl. Svc.Birmingham 205-251-0159ARIZONAAuth. Comm. Food Equip.Phoenix 602-234-2443Byassee Equipment Co.Phoenix 602-252-0402CALIFORNIA Industrial Electric Huntington Beach714-379-7100Chapman Appl. Service San Diego 619-298-7106P & D Appliance S. San Francisco 650-635-1900COLORADOHawkins Commercial Appliance Englewood 303-781-5548DELAWAREFood Equipment Service Wilmington 302-996-9363FLORIDAWhaley Foodservice Repair Jacksonville 904-725-7800Nass Service Co., Inc.Orlando 407-425-2681B.G.S.I.Pompano Beach954-971-0456Comm. Appliance Service Tampa 813-663-0313GEORGIA Adcox Service Co.Atlanta404-361-8010Southeastern Rest. Svc.Norcross 770-446-6177HAWAIIBurney’s Comm. Service, Inc.Honolulu 808-848-1466Food Equip Parts & Service Honolulu 808-847-4871ILLINOIS Parts Town Lombard708-865-7278Eichenauer Elec. Service Decatur 217-429-4229Midwest Elec. Appl. Service Elmhurst 630-279-8000Cone’s Repair Service Moline 309-797-5323INDIANA GCS Service Indianapolis317-545-9655IOWAElectric Motor Service Co.Davenport 319-323-1823KENTUCKY GCS Service Louisville 502-367-1788LOUISIANAChandlers Parts & Service Baton Rouge 225-272-6620Bana Comm. Parts, Inc.Shreveport 318-631-6550MARYLANDElectric Motor Service Baltimore 410-467-8080GCS Service Silver Spring 301-585-7550MASSACHUSETTSAce Service Co., Inc.Needham 781-449-4220MICHIGANCommercial Kitchen Service Bay City 517-893-4561Bildons Appliance Service Detroit 248-478-3320Midwest Food Equip. Service Grandville 616-261-2000MINNESOTA GCS Service Minneapolis 612-546-4221MISSOURI GCS Service Kansas City816-920-5999Commercial Kitchen Services St. Louis 314-890-0700Kaemmerlen Parts & Service St. Louis 314-535-2222NEBRASKA Anderson Electric Omaha 402-341-1414NEVADABurney’s Commercial Las Vegas 702-736-0006Hi. Tech Commercial Service N. Las Vegas 702-649-4616NEW JERSEY Jay Hill Repair Fairfield 973-575-9145Service Plus Flanders 973-691-6300NEW YORKAcme American Repairs, Inc.Brooklyn 718-456-6544NEW YORK (continued)Alpro Service Co.Brooklyn718-386-2515Appliance Installation Buffalo 716-884-7425Northern Parts Dist.Plattsburgh 518-563-3200J. B. Brady, Inc.Syracuse315-422-9271NORTH CAROLINAAuthorized Appliance Charlotte 704-377-4501OHIOAkron/Canton Comm. Svc. Inc.Akron 330-753-6635Certified Service Center Cincinnati 513-772-6600GCS Service Columbus614-476-3225Electrical Appl. Repair Service Independence 216-459-8700E. A. Wichman Co.Toledo 419-385-9121OKLAHOMAHagar Rest. Service, Inc.Oklahoma City 405-235-2184Krueger, Inc.Oklahoma City 405-528-8883OREGONBressie Electric Co.Portland503-231-7171Ron’s Service, Inc.Portland 503-624-0890PENNSYLVANIAFAST Comm. Appl. Service Philadelphia 215-288-4800GCS Service Pittsburgh 412-787-1970K & D Service Co.Harrisburg717-236-9039Elmer Schultz Services Philadelphia 215-627-5401Electric Repair Co.Reading 610-376-5444RHODE ISLANDMarshall Electric Co.Providence 401-331-1163SOUTH CAROLINAWhaley Foodservice Repair W. Columbia 803-791-4420TENNESSEE Camp Electric Memphis901-527-7543TEXASStove Parts Supply Fort Worth817-831-0381Armstrong Repair Service Houston 713-666-7100Commercial Kitchen Repair Co.San Antonio 210-735-2811San Antonio Rest. Equip.San Antonio 210-532-1660UTAH GCS Service Salt Lake City 801-487-3653VIRGINIA Daubers Norfolk 757-855-4097Daubers Springfield 703-866-3600WASHINGTONRestaurant Appl. Service Seattle 206-524-8200WISCONSIN A.S.C., Inc.Madison 608-246-3160A.S.C., waukee414-543-6460CANADABRITISH COLUMBIAKey Food Equipment Service Vancouver 604-433-4484ONTARIOR.G. Henderson Ltd.Toronto 416-422-5580Choquette CKS Ottawa 613-739-8458QUÉBEC Choquette CKS Montreal 514-722-2000Choquette CKS Québec City418-681-3944。
