NRSG471M100V8X11.5TRF中文资料

合集下载

NRG ELX1225 2022年7月技术数据：EPoxy封封闭径向NTC热感应器商品介绍说明书

NRGEpoxy sealed radial lead NTC thermistorProduct features• Epoxy sealed radial NTC thermistor • Temperature sensing, quick response time • Bead with ring lug• Wide resistance range：1 k Ω to 470 kΩ•Non-linear change in resistance vs temperaturePb HALOGENHF FREEPackaging information• Bulk, Type 3: 250 parts per poly bag •Bulk, Others: 500 parts per poly bagT able 1. Part numberingNRG a xxy b xxxx Bx c xFamily nameNRGRing lug type1/2/3/ (See mechanicalparameters for details)Resistancexxy= x.x * 10y Ωex: 103 = 1.0 * 103 = 1000 ΩResistance tolerance codeF = ±1%, H = ±3%Beta tolerance codeF = ±1%,G = ±2%,H = ±3%Beta type codeB1 = 25/50, B2 = 25/85Beta value ex: 3465, 4215, etcLead styleDifferent lead dimensionsApplications• Industrial Process Control • Commercial appliances•Battery, supercapacitor and energy storage systems• Uninterruptible power supplies • Consumer appliances •Medical devices•Heating, ventilation and air conditioning, Refrigeration (HVACR)• Food service equipment • IoT• White goods/household appliances •Computer and peripheral productsEnvironmental compliance and general specificationsSee electrical specification table for option details2Technical Data ELX1225Effective July 2022NRGEpoxy sealed radial lead NTC thermistor/electronicsMechanical parameters- mmLug type 1Lug type 2Lug type 3• 26AWG black Insulated lead wire with terminals tinned3Technical Data ELX1225Effective July 2022NRGEpoxy sealed radial lead NTC thermistor /electronics Electrical specificationsPart numberZero power resistance @ 25°C R 25 (kΩ)Ring lug type(Part number code)R 25Tolerance (Part number code)Beta type (Part number code)Beta value (K)Betatolerance (Part number code)Maximum power@ +25°C P max (mW)Dissipationfactor (mW/°C)Thermaltime constant T (second)Operation temperature TL~TU(°C)NRGa103bxxxxBxc 1(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)3435±2% (G), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa683bxxxxBxc 6.8(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)3470±2% (G), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa683bxxxxBxc 6.8(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)3975±2% (G), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa104bxxxxBxc 10(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)3435±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa104bxxxxBxc 10(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)3975±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa203bxxxxBxc 2(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)3435±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa224bxxxxBxc 22(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)3740±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa334bxxxxBxc 33(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)3975±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa474bxxxxBxc 47(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)4090±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa504bxxxxBxc 50(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)3950±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa504bxxxxBxc 50(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)4050±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa105bxxxxBxc 100(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)4000±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa105bxxxxBxc 100(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)4190±2% (G), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa105bxxxxBxc 100(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)4360±2% (G), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa475bxxxxBxc 470(1), (2), (3)±1% (F) ,±3% (H)25/85 (B2)4570±2% (G), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa203bxxxxBxc 2(1), (2), (3)±1% (F) ,±3% (H)25/50 (B1)3380±2% (G), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa503bxxxxBxc 5(1), (2), (3)±1% (F) ,±3% (H)25/50 (B1)3420±2% (G), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa503bxxxxBxc 5(1), (2), (3)±1% (F) ,±3% (H)25/50 (B1)3900±2% (G), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa104bxxxxBxc 10(1), (2), (3)±1% (F) ,±3% (H)25/50 (B1)3380±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa104bxxxxBxc 10(1), (2), (3)±1% (F) ,±3% (H)25/50 (B1)4000±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa104bxxxxBxc 10(1), (2), (3)±1% (F) ,±3% (H)25/50 (B1)3950±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa684bxxxxBxc 68(1), (2), (3)±1% (F) ,±3% (H)25/50 (B1)3950±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa224bxxxxBxc 22(1), (2), (3)±1% (F) ,±3% (H)25/50 (B1)3700±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa474bxxxxBxc 47(1), (2), (3)±1% (F) ,±3% (H)25/50 (B1)3950±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa474bxxxxBxc 47(1), (2), (3)±1% (F) ,±3% (H)25/50 (B1)4020±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa105bxxxxBxc 100(1), (2), (3)±1% (F) ,±3% (H)25/50 (B1)3950±1% (F), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa105bxxxxBxc 100(1), (2), (3)±1% (F) ,±3% (H)25/50 (B1)4120±2% (G), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105NRGa225bxxxxBxc220(1), (2), (3)±1% (F) ,±3% (H)25/50 (B1)4370±2% (G), ±3% (H)50≥ 2.5 (type3) ≥ 3.0 (others)≤ 10 (type3) ≤ 9 (others)-30 to +105a= Enter ring lug type from table above (1, 2, 3) See Mechanical parameters for lug type details b= Enter resistance tolerance code from table above (F = ±1%, H = ±3%)Bx= Enter Beta type code from table above (B1 = 25/50, B2 = 25/85)c= Enter Beta tolerance code from table above (F = ±1%, G = ±2%, H = ±3%)4Technical Data ELX1225Effective July 2022NRGEpoxy sealed radial lead NTC thermistor/electronicsPart number NRG1033435NRG2033435NRG1043435NRG1043975NRG2243740NRG3343975B typeB25/85B25/85B25/85B25/85B25/85B25/85Temperature (°C)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance(kΩ)-4020.089532539.55751116.42-3919.1491.71304.8337.47541.351045.23-3818.2488.53286.0135.55509.86978.99-3717.3885.46268.4533.74480.37917.34-3616.5682.51252.0632.03452.75859.93-3515.7879.66236.7630.41426.86806.46-3415.0476.9222.4728.88402.6756.62-3314.3374.25209.1127.43379.85710.15-3213.6671.69196.6326.05358.5666.81-3113.0169.22184.9524.76338.48626.37-3012.466.84174.0323.53319.68588.62-2911.8264.54163.8222.36302.02553.36-2811.2662.32154.2521.26285.44520.42-2710.7360.18145.320.22269.86489.64-2610.2358.11136.9119.23255.21460.85-259.7556.12129.0518.3241.44433.93-249.2954.19121.6817.41228.49408.73-238.8552.34114.7816.57216.3385.14-228.4450.54108.315.77204.83363.06-218.0448.81102.2215.02194.03342.36-207.6747.1496.5114.3183.86322.97-197.3145.5391.1513.62174.28304.79-18 6.9643.9786.1212.98165.24287.74-17 6.6442.4781.412.37156.73271.74-16 6.3341.0276.9511.79148.7256.72-15 6.0339.6272.7811.24141.13242.62-14 5.7538.2768.8510.72133.98229.37-13 5.4936.9665.1610.22127.23216.93-12 5.2335.761.689.75120.86205.23-11 4.9934.4958.419.31114.85194.23-10 4.7633.3155.338.88109.16183.88-9 4.5432.1852.428.48103.79174.15-8 4.3331.0849.698.198.71164.98-7 4.1330.0347.117.7393.91156.35-6 3.942944.687.3989.37148.22-5 3.7628.0242.397.0685.07140.56-4 3.5927.0740.23 6.7481133.34-3 3.4226.1538.19 6.4577.15126.54-2 3.2725.2636.27 6.1673.5120.12-1 3.1224.434.45 5.8970.05114.060 2.9823.5732.73 5.6466.78108.341 2.8522.7731.11 5.3963.67102.942 2.722229.58 5.1660.7397.843 2.621.2628.13 4.9457.9493.024 2.4820.5426.76 4.7355.2988.475 2.3719.8425.46 4.5352.7884.176 2.2719.1724.23 4.3450.480.17 2.1718.5223.07 4.1648.1476.258 2.0717.8921.97 3.9845.9972.69 1.9817.2920.93 3.8243.9469.1510 1.8916.7119.95 3.664265.8911 1.8116.1419.01 3.5140.1662.812 1.7315.618.13 3.3738.4159.8713 1.6615.0717.29 3.2336.7457.0914 1.5914.5616.49 3.135.1654.4615 1.5214.0715.74 2.9833.6551.9616 1.4613.615.02 2.8632.2149.5917 1.413.1414.34 2.7430.8547.35181.3412.713.7 2.6429.5445.21T emperature characteristics5Technical Data ELX1225Effective July 2022NRGEpoxy sealed radial lead NTC thermistor /electronics T emperature characteristics, cont.Part number NRG1033435NRG2033435NRG1043435NRG1043975NRG2243740NRG3343975B typeB25/85B25/85B25/85B25/85B25/85B25/85Temperature (°C)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance(kΩ)191.2812.2713.09 2.5328.343.1920 1.2311.8612.5 2.4327.1241.2721 1.1811.4611.95 2.342639.4422 1.1311.0811.43 2.2524.9337.7123 1.0910.710.93 2.1623.936.0624 1.0410.3510.45 2.0822.9334.49251101022233260.96039.679.57 1.9221.1131.58270.92249.349.16 1.8520.2730.23280.88629.038.77 1.7819.4628.95290.85178.738.4 1.7218.6927.73300.81888.448.05 1.6517.9526.56310.78738.167.71 1.5917.2525.45320.75737.897.39 1.5416.5724.4330.72877.627.09 1.4815.9323.39340.70137.37 6.8 1.4315.3222.43350.67527.13 6.52 1.3814.7321.52360.6502 6.89 6.25 1.3314.1720.64370.6263 6.666 1.2813.6319.81380.6035 6.44 5.76 1.2313.1219.02390.5817 6.23 5.53 1.1912.6318.26400.5608 6.03 5.31 1.1512.1517.54410.5409 5.83 5.1 1.1111.716.84420.5218 5.64 4.9 1.0711.2716.18430.5036 5.45 4.71 1.0410.8615.55440.4861 5.27 4.53110.4614.95450.4693 5.1 4.350.966810.0814.37460.4533 4.94 4.190.93459.7213.82470.438 4.78 4.030.90349.3713.3480.4233 4.62 3.870.87369.0412.79490.4092 4.47 3.730.84498.7212.31500.3957 4.33 3.590.81738.4111.85510.3827 4.19 3.450.79088.1111.41520.3703 4.05 3.330.76537.8310.99530.3584 3.92 3.20.74087.5610.58540.347 3.8 3.090.71737.310.19550.336 3.67 2.970.69467.059.82560.3255 3.56 2.870.6728 6.819.47570.3154 3.44 2.760.6518 6.589.13580.3057 3.34 2.660.6315 6.358.8590.2963 3.23 2.570.6121 6.148.49600.2874 3.13 2.480.5933 5.948.19610.2788 3.03 2.390.5753 5.747.9620.2705 2.93 2.310.5579 5.557.62630.2625 2.84 2.230.5411 5.377.36640.2549 2.75 2.150.525 5.197.1650.2475 2.67 2.080.5094 5.02 6.86660.2404 2.5920.4944 4.86 6.62670.2336 2.51 1.940.4799 4.7 6.4680.227 2.43 1.870.4659 4.55 6.18690.2207 2.35 1.810.4525 4.41 5.97700.2146 2.28 1.750.4395 4.27 5.77710.2087 2.21 1.690.4269 4.13 5.58720.203 2.14 1.630.4148 4.01 5.39730.1976 2.08 1.580.4031 3.88 5.21740.1923 2.02 1.530.3919 3.76 5.04750.1872 1.96 1.480.381 3.64 4.88760.1823 1.9 1.430.3704 3.53 4.72770.1776 1.84 1.380.3603 3.43 4.576Technical Data ELX1225Effective July 2022NRGEpoxy sealed radial lead NTC thermistor/electronicsT emperature characteristics, cont.Part number NRG1033435NRG2033435NRG1043435NRG1043975NRG2243740NRG3343975B typeB25/85B25/85B25/85B25/85B25/85B25/85Temperature (°C)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance(kΩ)780.173 1.79 1.340.3504 3.32 4.42790.1686 1.73 1.30.3409 3.22 4.28800.1643 1.68 1.260.3318 3.12 4.14810.1602 1.63 1.220.3229 3.03 4.01820.1562 1.59 1.180.3143 2.94 3.89830.1524 1.54 1.140.306 2.85 3.77840.1487 1.49 1.110.298 2.77 3.65850.1451 1.45 1.070.2902 2.69 3.54860.1416 1.41 1.040.2827 2.61 3.43870.1383 1.37 1.010.2754 2.54 3.32880.135 1.330.97640.2684 2.46 3.22890.1319 1.290.9470.2615 2.39 3.12900.1288 1.260.91850.2549 2.32 3.03910.1259 1.220.89110.2486 2.26 2.94920.123 1.190.86470.2424 2.2 2.85930.1202 1.150.83910.2364 2.13 2.77940.1176 1.120.81450.2305 2.07 2.68950.115 1.090.79070.2249 2.02 2.61960.1124 1.060.76780.2194 1.96 2.53970.11 1.030.74560.2141 1.91 2.46980.107610.72420.209 1.86 2.39990.10530.97750.70350.204 1.81 2.321000.10310.95130.68350.1992 1.76 2.251010.10090.9260.66410.1945 1.71 2.191020.09880.90140.64550.19 1.66 2.121030.09680.87770.62740.1856 1.62 2.071040.09480.85470.610.1813 1.58 2.011050.09290.83240.59310.1771 1.54 1.957Technical Data ELX1225Effective July 2022NRGEpoxy sealed radial lead NTC thermistor /electronics T emperature characteristicsPart number NRG1054000NRG1054190NRG1054360NRG2033380NRG1043380NRG1044000B type B25/85B25/85B25/85B25/50B25/50B25/50Temperature (°C)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)-4031003300360039.8195325-392910.563098.573377.1937.69184.63305.06-382733.692910.373169.1435.71174.87286.45-372568.52734.472974.7933.84165.67269.05-362414.172570.022793.1932.07157.01252.8-352269.932416.232623.4730.41148.84237.61-342135.072272.352464.7828.84141.14223.4-332008.932137.72316.3727.36133.89210.11-321890.92011.652177.5425.96127.04197.67-311780.431893.632047.6324.64120.58186.03-3016771783.071926.0223.39114.48175.13-291580.121679.481812.1622.21108.73164.93-281489.351582.391705.5121.1103.29155.36-271404.261491.361605.6120.0598.15146.4-261324.491405.991511.9819.0593.3138-251249.661325.91424.2218.1188.71130.12-241179.461250.741341.9317.2284.38122.73-231113.571180.21264.7416.3880.28115.8-221051.71113.951192.3315.5876.39109.29-21993.61051.741124.3814.8372.72103.18-20939.01993.291060.5914.1169.2597.44-19887.7938.351000.713.4465.9692.04-18839.47886.71944.4412.862.8486.98-17794.11838.15891.612.1959.8882.21-16751.44792.48841.9311.6257.0977.74-15711.28749.5795.2511.0754.4373.52-14673.48709.06751.3610.5651.9269.56-13637.88670.98710.0810.0749.5365.83-12604.36635.13671.259.647.2762.32-11572.77601.36634.79.1645.1259.01-10542.99569.54600.318.7443.0855.9-9514.92539.56567.938.3541.1552.96-8488.45511.29537.447.9739.3150.2-7463.47484.63508.717.6137.5647.59-6439.9459.49481.657.2735.945.13-5417.65435.77456.14 6.9534.3342.81-4396.65413.38432.1 6.6432.8340.62-3376.81392.25409.42 6.3531.438.56-2358.06372.29388.04 6.0730.0536.61-1340.35353.45367.87 5.8128.7634.770323.6335.65348.83 5.5627.5333.031307.76318.82330.86 5.3226.3631.382292.78302.92313.9 5.0925.2529.833278.61287.88297.88 4.8824.1928.364265.2273.67282.74 4.6723.1826.975252.5260.22268.45 4.4822.2225.666240.48247.49254.93 4.2921.324.427229.09235.44242.16 4.1120.4323.248218.3224.04230.09 3.9419.5922.139208.07213.25218.66 3.7818.821.0710198.37203.02207.86 3.6318.0420.0711189.18193.33197.64 3.4817.3219.1312180.46184.15187.96 3.3416.6318.2313172.19175.45178.81 3.2115.9717.3814164.33167.2170.13 3.0815.3416.5715156.88159.38161.92 2.9614.7315.8116149.81151.96154.14 2.8414.1615.0817143.08144.92146.77 2.7313.6114.418136.7138.24139.78 2.6213.0913.748Technical Data ELX1225Effective July 2022NRGEpoxy sealed radial lead NTC thermistor/electronicsT emperature characteristics, cont.Part number NRG1054000NRG1054190NRG1054360NRG2033380NRG1043380NRG1044000B type B25/85B25/85B25/85B25/50B25/50B25/50Temperature (°C)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)19130.63131.9133.16 2.5212.5813.1220124.87125.87126.88 2.4212.112.5321119.38120.16120.93 2.3311.6511.9722114.17114.73115.28 2.2411.2111.4423109.21109.57109.92 2.1610.7910.9424104.49104.66104.83 2.0810.3810.4625100100100210102695.7395.5795.41 1.939.639.572791.6691.3591.06 1.859.289.152887.7887.3486.92 1.798.948.762984.0983.5382.99 1.728.628.393080.5779.979.26 1.668.318.033177.2176.4575.71 1.68.017.693274.0273.1672.34 1.547.727.373370.9770.0269.13 1.497.457.063468.0667.0466.07 1.447.19 6.773565.2964.263.17 1.39 6.94 6.493662.6461.4960.41 1.34 6.69 6.223760.1258.9157.78 1.29 6.46 5.973857.7156.4555.27 1.25 6.24 5.723955.4154.152.89 1.2 6.03 5.494053.2151.8650.62 1.16 5.82 5.274151.1149.7348.46 1.12 5.62 5.064249.147.6946.4 1.09 5.43 4.864347.1845.7544.43 1.05 5.25 4.674445.3543.8942.56 1.01 5.08 4.484543.642.1240.780.9809 4.91 4.314641.9240.4339.080.9487 4.75 4.144740.3238.8137.450.9178 4.59 3.984838.7837.2735.910.8881 4.44 3.834937.3235.7934.430.8595 4.3 3.685035.9134.3833.020.832 4.16 3.545134.5733.0431.680.8056 4.03 3.415233.2831.7530.390.7801 3.9 3.285332.0530.5229.160.7556 3.78 3.165430.8629.3427.990.7321 3.66 3.045529.7328.2126.870.7094 3.54 2.935628.6527.1325.810.6875 3.43 2.825727.6126.124.780.6665 3.33 2.725826.6125.1123.810.6462 3.22 2.625925.6524.1722.870.6266 3.12 2.526024.7423.2621.980.6078 3.03 2.436123.8622.3921.130.5896 2.94 2.356223.0121.5620.310.5721 2.85 2.266322.220.7619.530.5553 2.76 2.186421.432018.780.539 2.68 2.116520.6819.2718.060.5233 2.6 2.036619.9618.5717.380.5081 2.52 1.966719.2817.916.720.4935 2.45 1.896818.6117.2516.10.4794 2.38 1.836917.9816.6315.490.4658 2.31 1.777017.3716.0414.920.4526 2.24 1.717116.7815.4714.360.4399 2.18 1.657216.2214.9213.840.4277 2.12 1.597315.6814.413.330.4158 2.06 1.547415.1613.8912.840.40442 1.497514.6513.4112.370.3933 1.94 1.447614.1712.9411.930.3826 1.89 1.397713.7112.511.50.3722 1.84 1.359Technical Data ELX1225Effective July 2022NRGEpoxy sealed radial lead NTC thermistor /electronics T emperature characteristics, cont.Part number NRG1054000NRG1054190NRG1054360NRG2033380NRG1043380NRG1044000B type B25/85B25/85B25/85B25/50B25/50B25/50Temperature (°C)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)7813.2612.0711.090.3622 1.79 1.37912.8311.6610.690.3526 1.74 1.268012.4211.2610.310.3432 1.69 1.228112.0210.889.950.3342 1.64 1.188211.6310.519.60.3254 1.6 1.148311.2610.169.260.3169 1.56 1.118410.919.828.940.3087 1.51 1.078510.579.58.630.3008 1.47 1.048610.239.188.330.2931 1.44 1.01879.928.888.050.2856 1.40.9746889.618.597.770.2784 1.360.9445899.318.317.510.2714 1.330.9156909.038.047.250.2646 1.290.8877918.757.787.010.2581 1.260.8608928.487.53 6.780.2517 1.230.8349938.237.29 6.550.2455 1.190.8098947.987.06 6.330.2396 1.160.7857957.74 6.84 6.120.2338 1.140.7624967.51 6.62 5.920.2281 1.110.7399977.29 6.42 5.730.2227 1.080.7182987.07 6.22 5.540.2174 1.050.697299 6.87 6.02 5.360.2123 1.030.677100 6.67 5.84 5.190.207310.6575101 6.47 5.66 5.020.20240.9770.6386102 6.29 5.48 4.860.19770.95330.6204103 6.1 5.32 4.710.19320.93030.6027104 5.93 5.16 4.560.18870.90790.5857105 5.765 4.420.18440.88630.569310Technical Data ELX1225Effective July 2022NRGEpoxy sealed radial lead NTC thermistor/electronicsT emperature characteristicsPart number NRG1043950NRG2243700NRG1053950NRG1054120NRG2254370B typeB25/50B25/50B25/50B25/50B25/50Temperature (°C)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance(kΩ)-403252056.32300032508728.94-39304.831932.462819.843053.328171.87-38286.011816.682651.42869.427652.85-37268.461708.422493.872697.437169.11-36252.071607.152346.482536.526718.12-35236.771512.42208.542385.946297.51-34222.481423.72079.412244.975905.11-33209.121340.651958.462112.965538.92-32196.641262.861845.161989.315197.08-31184.961189.971738.981873.454877.85-30174.041121.661639.441764.864579.66-29163.831057.611546.091663.054301.03-28154.26997.531458.531567.574040.59-27145.31941.171376.3614783797.08-26136.92888.281299.231393.953569.34-25129.06838.621226.811315.063356.26-24121.69791.991158.781240.993156.86-23114.78748.181094.871171.432970.19-22108.3707.021034.81106.072795.39-21102.22668.32978.321044.662631.66-2096.52631.94925.21986.932478.25-1991.16597.72875.25932.662334.46-1886.13565.53828.23881.612199.66-1781.4535.23783.97833.582073.24-1676.96506.7742.3788.391954.64-1572.78479.84703.05745.851843.36-1468.86454.53666.07705.81738.91-1365.16430.69631.22668.081640.85-1261.69408.22598.37632.551548.75-1158.41387.03567.39599.061462.23-1055.33367.05538.17567.51380.93-952.43348.19510.59537.751304.51-849.69330.41484.57509.691232.66-747.12313.62460483.221165.09-644.69297.76436.81458.241101.53-542.4282.79414.89434.671041.71-440.23268.64394.19412.42985.41-338.19255.28374.62391.4932.4-236.27242.64356.11371.56882.49-134.45230.7338.62352.81835.46032.73219.4322.07335.09791.15131.11208.71306.41318.34749.39229.58198.59291.59302.5710.02328.13189.02277.56287.53672.9426.76179.96264.28273.36637.88525.46171.37251.69259.96604.84624.23163.24239.77247.27573.66723.07155.53228.48235.26544.22821.98148.23217.77223.89516.43920.93141.31207.61213.12490.181019.95134.74197.98202.92465.381119.02128.51188.84193.25441.951218.13122.6180.18184.08419.811317.29117171.95175.4398.871416.5111.67164.13167.16379.071515.74106.62156.72159.35360.341615.02101.82149.67151.94342.621714.3497.26142.97144.9325.851813.792.93136.61138.23309.9811Technical Data ELX1225Effective July 2022NRG Epoxy sealed radial lead NTC thermistor /electronics T emperature characteristics, cont.Part number NRG104 3950NRG2243700NRG1053950NRG1054120NRG2254370B type B25/50B25/50B25/50B25/50B25/50Temperature (°C)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)1913.0988.81130.56131.89294.952012.584.89124.81125.87280.722111.9581.17119.35120.16267.242211.4377.63114.14114.73254.462310.9374.26109.19109.57242.362410.4571.05104.48104.66230.88251068100100220269.5765.0995.7395.57209.68279.1662.3391.6691.35199.89288.7759.6987.7987.34190.6298.457.1884.183.52181.79308.0554.7980.5879.89173.42317.7152.5177.2376.44165.48327.3950.3374.0373.14157.93337.0948.2670.9870.01150.7734 6.846.2868.0867.02143.9635 6.5244.465.364.18137.4936 6.2542.662.6561.47131.3437640.8860.1358.88125.4938 5.7639.2457.7156.42119.9339 5.5337.6755.4154.07114.6440 5.3136.1753.2151.83109.6141 5.134.7451.149.69104.8242 4.933.3849.0947.65100.2643 4.7132.0747.1745.7195.9244 4.5330.8245.3443.8591.7945 4.3529.6343.5842.0887.8546 4.1928.4941.940.3884.147 4.0327.440.338.7780.5348 3.8726.3538.7637.2277.1349 3.7325.3637.2935.7473.8850 3.5924.435.8834.3370.7951 3.4523.4834.5332.9867.8452 3.3322.6133.2431.6965.0353 3.221.7732.0130.4662.3454 3.0920.9630.8229.2859.7855 2.9720.1929.6928.1557.3356 2.8719.4528.627.075557 2.7618.7527.5626.0452.7758 2.6618.0726.5625.0550.6559 2.5717.4225.624.148.6160 2.4816.7924.6823.246.6761 2.3916.1923.822.3344.8262 2.3115.6222.9621.543.0463 2.2315.0722.1520.741.3564 2.1514.5421.3719.9439.7365 2.0814.0320.6219.2138.1866213.5419.918.536.767 1.9413.0819.2117.8335.2868 1.8712.6318.5517.1933.9269 1.8112.1917.9116.5732.6270 1.7511.7817.315.9731.3871 1.6911.3816.7115.430.1972 1.631116.1514.8629.0573 1.5810.6315.6114.3327.9674 1.5310.2715.0913.8326.9175 1.489.9314.5813.3425.9176 1.439.614.112.8824.9577 1.389.2913.6412.4324.03Eaton Electronics Division 1000 Eaton Boulevard Cleveland, OH 44122United States /electronics© 2022 Eaton All Rights Reserved Printed in USA Publication No. ELX1225 BU-ELX22085July 2022NRG Epoxy sealed radial lead NTC thermistor Technical Data ELX1225Effective July 2022Life Support Policy: Eaton does not authorize the use of any of its products for use in life support devices or systems without the express written approval of an officer of the Company. Life support systems are devices which support or sustain life, and whose failure to perform, when properly used in accordance with instructions for use provided in the labeling, can be reasonably expected to result in significant injury to the user.Eaton reserves the right, without notice, to change design or construction of any products and to discontinue or limit distribution of any products. Eaton also reserves the right to change or update, without notice, any technical information contained in this bulletin.Eaton is a registered trademark.All other trademarks are property of their respective owners.Follow us on social media to get thelatest product and support information.Manual solder+360 °C, 2.5 seconds maximum by soldering iron, distance between soldering position and coating 10 mm minimum.T emperature characteristics, cont.Part number NRG104 3950NRG2243700NRG1053950NRG1054120NRG2254370B type B25/50B25/50B25/50B25/50B25/50Temperature (°C)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)Resistance (kΩ)78 1.348.9813.191223.15791.38.6912.7611.5922.31801.268.4112.3411.221.5811.228.1411.9510.8220.72821.187.8811.5610.4519.97831.147.6311.1910.119.26841.117.3910.849.7618.57851.077.1510.499.4317.91861.04 6.9310.169.1217.28871.01 6.719.848.8216.67880.9762 6.59.548.5316.09890.9467 6.39.248.2515.53900.9183 6.118.957.9814.99910.8909 5.928.687.7214.47920.8644 5.748.417.4813.97930.8389 5.578.167.2413.49940.8143 5.47.91713.04950.7905 5.247.67 6.7812.59960.7675 5.087.44 6.5712.17970.7454 4.937.22 6.3611.76980.724 4.787 6.1611.37990.7033 4.64 6.8 5.9710.991000.6833 4.51 6.6 5.7810.631010.6639 4.37 6.4 5.6110.281020.6453 4.25 6.22 5.439.941030.6272 4.13 6.04 5.279.611040.6098 4.01 5.86 5.119.31050.5929 3.89 5.69 4.959。

GF仪表中文说明

改值，并返回到第 3 步 • 第 6 步（按下 ENTER 键）操作也会返回到第 3 步 • 重复第 3~6 步操作，所有的编辑即可完成
第 5 步：设置有误吗？在有闪动位的情况下，同时按上、下方向键。将取消被编辑项的最后的设置内容，并返回到第 3 步。
第 5 页共 8 页
+GF+SIGNET 8550-1
*见辅助电源注意事项
辅助电源注意事项只有当流量传感器需要的电流超过 1.5mA 时才要用辅助电源。含有以下 SIGNET 流量传感器时需要用辅助电源： • 2000 • 2507 • 2540(1999 年 1 月前产品) • 2530 • 2535 • 7002 涡街流量传感器
*见辅助电源注意事项
电气性能
• 电源：12~24VDC±10%,可调，最大 61mA
传感器输入：
• 范围：
0.5~1500Hz
• 传感器电源：2 线制: 1.5 mA @ 5VDC±1%
3 或 4 线制：20mA @5VDC±1%
• 电流回路光学隔离
• 短路保护
电流输出信号：
• 4~20mA，隔离，完全可调，并可反向 • 最大回路阻抗：
3.2 传感器输入连接接线提示
• 不要将传感器的电缆与 AC 电缆敷设在同一根电缆导管内。电子噪音会干扰传感器信号。 • 将电缆敷设在接地的金属电缆管中有助于防止电子噪音与机械损伤。 • 将电缆入口处密封，以防潮汽的侵害。 • 每个端子只能插入一根导线。如果两根导线接入同一端子，要在外部连好。
对于 515/8510-XX,525,2517，以及任何输出正弦波信号的传感器，最大电缆长度为 200ft（61m）。
• 工作温度： -10~70℃（14~158°F） • 储存温度： -15~80℃（5~176°F） • 相对湿度： 0~95%，无露点 • 最大海拔： 2000m（6562 ft） • 绝缘等级： II • 污染级别： 2 标准与认证：

Xsens MTi 1-series 数据手册说明书

MTI-3-8A7G6-DKFeatures▪Full-featured AHRS on 12.1 x 12.1 mm module▪Roll/pitch accuracy (dynamic) 1.0 degFigure 1: MTi 1-seriesTable of ContentsT ABLE OF C ONTENTS (2)1GENERAL INFORMATION (3)1.1O RDERING I NFORMATION (3)1.2B LOCK D IAGRAM (3)1.3T YPICAL A PPLICATION (4)1.4P IN C ONFIGURATION (4)1.5P IN MAP (5)1.6P IN D ESCRIPTIONS (6)1.7P ERIPHERAL INTERFACE SELECTION (6)1.7.1I2C (7)1.7.2SPI (7)1.7.3UART half duplex (7)1.7.4UART full duplex with RTS/CTS flow control (8)1.8R ECOMMENDED EXTERNAL COMPONENTS (8)2MTI 1-SERIES ARCHITECTURE (9)2.1MT I 1-SERIES CONFIGURATIONS (9)2.1.1MTi-1 IMU (9)2.1.2MTi-2 VRU (9)2.1.3MTi-3 AHRS (9)2.2S IGNAL PROCESSING PIPELINE (10)2.2.1Strapdown integration (10)2.2.2XKF3TM Sensor Fusion Algorithm (10)2.2.3Frames of reference used in MTi 1-series (11)33D ORIENTATION AND PERFORMANCE SPECIFICATIONS (12)3.13D O RIENTATION SPECIFICATIONS (12)3.2S ENSORS SPECIFICATIONS (12)4SENSOR CALIBRATION (14)5SYSTEM AND ELECTRICAL SPECIFICATIONS (15)5.1I NTERFACE SPECIFICATIONS (15)5.2S YSTEM SPECIFICATIONS (15)5.3E LECTRICAL SPECIFICATIONS (16)5.4A BSOLUTE MAXIMUM RATINGS (16)6MTI 1-SERIES SETTINGS AND OUTPUTS (17)6.1M ESSAGE STRUCTURE (17)6.2O UTPUT SETTINGS (18)6.3MTD ATA2 (19)6.4S YNCHRONIZATION AND TIMING (20)7MAGNETIC INTERFERENCE (21)7.1M AGNETIC F IELD M APPING (21)7.2A CTIVE H EADING S TABILIZATION (AHS) (21)8PACKAGE AND HANDLING (22)8.1P ACKAGE DRAWING (22)8.2P ACKAGING (23)8.3R EFLOW SPECIFICATION (23)9TRADEMARKS AND REVISIONS (24)9.1T RADEMARKS (24)9.2R EVISIONS (24)Figure 2: MTi 1-series module block diagramFigure 3: Typical application Figure 4: Pin assignmentFigure 8: External components (I2C interface) Figure 9: External components (UART interface)2 MTi 1-series architectureThis section discusses the MTi 1-series architecture including the various configurations and the signal processing pipeline.2.1 MTi 1-series configurationsThe MTi 1-series is a fully-tested self-contained module that can 3D output orientation data (Euler angles (roll, pitch, yaw), rotation matrix (DCM) and quaternions), orientation and velocity increments (∆q and ∆v) and sensors data (acceleration, rate of turn, magnetic field). The MTi 1-series module is available as an Inertial Measurement Unit (IMU), Vertical Reference Unit (VRU) and Attitude and Heading Reference System (AHRS). Depending on the product, output options may be limited to sensors data and/or unreferenced yaw.All MTi’s feature a 3D accelerometer/gyroscope combo-sensor, a magnetometer, a high-accuracy crystal and a low-power MCU. The MCU coordinates the synchronization and timing of the various sensors, it applies calibration models (e.g. temperature modules) and output settings and runs the sensor fusion algorithm. The MCU also generates output messages according to the proprietary XBus communication protocol. The messages and the data output are fully configurable, so that the MTi 1-series limits the load, and thus power consumption, on the application processor.2.1.1 MTi-1 IMUThe MTi-1 module is an Inertial Measurement Unit (IMU) that outputs 3D rate of turn, 3D acceleration and 3D magnetic field. The MTi-1 also outputs coning and sculling compensated orientation increments and velocity increments (∆q and ∆v) from its AttitudeEngine TM. Advantages over a gyroscope-accelerometer combo-sensor are the inclusion of synchronized magnetic field data, on-board signal processing and the easy-to-use communication protocol. Moreover, the testing and calibration performed by Xsens result in a robust and reliable sensor module, that can be integrated within a short time frame. The signal processing pipeline and the suite of output options allow access to the highest possible accuracy at any bandwidth, limiting the load on the application processor.2.1.2 MTi-2 VRUThe MTi-2 is a 3D vertical reference unit (VRU). Its orientation algorithm (XKF3TM) outputs 3D orientation data with respect to a gravity referenced frame: drift-free roll, pitch and unreferenced yaw. In addition, it outputs calibrated sensor data: 3D acceleration, 3D rate of turn and 3D earth-magnetic field data. All modules of the MTi 1-series are also capable of outputting data generated by the strapdown integration algorithm (the AttitudeEngine TM outputting orientation and velocity increments ∆q and ∆v). The3D acceleration is also available as so-called free acceleration which has gravity subtracted. Although the yaw is unreferenced, though still superior to gyroscope integration. With the feature Active Heading Stabilization (AHS, see section 7.2) the drift in unreferenced yaw can be limited to 1 deg after 60 minutes, even in magnetically disturbed environments. 2.1.3 MTi-3 AHRSThe MTi-3 supports all features of the MTi-1 and MTi-2, and in addition is a full gyro-enhanced Attitude and Heading Reference System (AHRS). It outputs drift-free roll, pitch and true/magnetic North referenced yaw and sensors data: 3D acceleration, 3D rate of turn, as well as 3D orientation and velocity increments (∆q and ∆v), and 3D earth-magnetic field data. Free acceleration is also available for the MTi-3 AHRS.2.2 Signal processing pipelineThe MTi 1-series is a self-contained module, so all calculations and processes such as sampling, coning and sculling compensation and the Xsens XKF3TM sensor fusion algorithm run on board.2.2.1 Strapdown integrationThe Xsens optimized strapdown algorithm (AttitudeEngine TM) performs high-speed dead-reckoning calculations at 1 kHz allowing accurate capture of high frequency motions. This approach ensures a high bandwidth. Orientation and velocity increments are calculated with full coning and sculling compensation. At an output data rate of up to 100 Hz, no information is lost, yet the output data rate can be configured low enough for systems with limited communication bandwidth. These orientation and velocity increments are suitable for any 3D motion tracking algorithm. Increments are internally time-synchronized with the magnetometer data.2.2.2 XKF3TM Sensor Fusion AlgorithmXKF3 is a sensor fusion algorithm, based on Extended Kalman Filter framework that uses 3D inertial sensor data (orientation and velocity increments) and 3D magnetometer, also known as ‘9D’ to optimally estimate 3D orientation with respect to an Earth fixed frame.XKF3 takes the orientation and velocity increments together with the magnetic field updates and fuses this to produce a stable orientation (roll, pitch and yaw) with respect to the earth fixed frame. The XKF3 sensor fusion algorithm can be processed with filter profiles. These filter profiles contain predefined filter parameter settings suitable for different user application scenarios.The following filter profiles are available:∙General– suitable for most applications.Supported by the MTi-3 module.∙Dynamic– assumes that the motion is highly dynamic. Supported by the MTi-3 module.∙High_mag_dep– heading corrections rely on the magnetic field measured. To be usedwhen magnetic field is homogeneous.Supported by the MTi-3 module.∙Low_mag_dep– heading corrections are less dependent on the magnetic fieldmeasured. Heading is still based onmagnetic field, but more distortions areexpected with less trust being placed onmagnetic measurements. Supported by theMTi-3 module.∙VRU_general– Roll and pitch are thereferenced to the vertical (gravity), yaw isdetermined by stabilized dead-reckoning,referred to as Active Heading Stabilization(AHS) which significantly reduces headingdrift, see also section 7.2. Consider usingVRU_general in environments that have aheavily disturbed magnetic field. TheVRU_general filter profile is the only filterprofile available for the MTi-2-VRU, alsosupported by the MTi-3 modulezxyFigure 10: Default sensor fixed coordinate system for the MTi 1-series moduleIt is straightforward to apply a rotation matrix to the MTi, so that the velocity and orientation increments, free acceleration and the orientation output is output using that coordinate frame. The default reference coordinate system is East-North-Up (ENU) and the MTi 1-series has predefined output options for North-East-Down (NED) and North-West-Up (NWU). Any arbitrary alignment can be entered. These orientation resets have effect on all outputs that are by default outputted with an ENU reference coordinate system.4 Sensor calibrationEach MTi is individually calibrated and tested over its temperature range. The (simplified) sensor model of the gyroscopes, accelerometers and magnetometers can be represented as following:s=K T−1(u−b T)s = sensor data of the gyroscopes, accelerometers and magnetometers in rad/s, m/s2 or a.u. respectivelyK T-1= gain and misalignment matrix (temperature compensated)u = sensor value before calibration (unsigned 16-bit integers from the sensor)b T= bias (temperature compensated)Xsens’ calibration procedure calibrate s for many parameters, including bias (offset), alignment of the sensors with respect to the module PCB and each other and gain (scale factor). All calibration values are temperature dependent and temperature calibrated. The calibration values are stored in non-volatile memory in the MTi.7 Magnetic interferenceMagnetic interference can be a major source of error for the heading accuracy of any Attitude and Heading Reference System (AHRS). As an AHRS uses the magnetic field to reference the dead-reckoned orientation on the horizontal plane with respect to the (magnetic) North, a severe and prolonged distortion in that magnetic field will cause the magnetic reference to be inaccurate. The MTi 1-series module has several ways to cope with these distortions to minimize the effect on the estimated orientation.7.1 Magnetic Field MappingWhen the distortion is deterministic, i.e. when the distortion moves with the MTi, the MTi can be calibrated for this distortion this type of errors are usually referred to as soft and hard iron distortions. The Magnetic Field Mapping procedure compensates for both hard-iron and soft-iron distortions.In short, the magnetic field mapping (calibration) is performed by moving the MTi together with theobject/platform that is causing the distortion. On an external computer (Windows or Linux), the results are processed and the updated magnetic field calibration values are written to the non-volatile memory of the MTi 1-series module. The magnetic field mapping procedure is extensively documented in the Magnetic Field Mapper User Manual (MT0202P), available in the MT Software Suite. 7.2 Active Heading Stabilization (AHS) It is often not possible or desirable to connect the MTi 1-series module to a high-level processor/host system, so that the Magnetic Field Mapping procedure is not an option. Also, when the distortion is non-deterministic the Magnetic Field Mapping procedure does not yield the desired result. For all these situations, the on-board XKF3 sensor fusion algorithm has integrated an algorithm called Active Heading Stabilization (AHS).The AHS algorithm delivers excellent heading tracking accuracy. Heading tracking drift in the MTi 1-series can be as low as 1 deg per hour, while being fully immune to magnetic distortions.AHS is only available in the VRU_general filter profile. This filter profile is the only filter profile in the MTi-2 VRU and one of the 5 available filter profiles in the MTi-3 AHRS.8 Package and handlingNote that this is a mechanical shock (g) sensitive device. Proper handling is required to prevent damage to the part. Note that this is an ESD-sensitive device. Proper handling is required to prevent damage to the part.8.1 Package drawingThe MTi 1-series module is compatible with JEDEC PLCC28 IC-sockets.Figure 11: General tolerances are +/- 0.1 mmFigure 12: Recommended MTi 1-series module footprint8.2 PackagingThe MTi 1-series module is shipped in trays. Trays are available with a MOQ of 20 modules. A full tray contains 152 modules.Figure 13: A tray containing 20 MTi 1-series modules8.3 Reflow specificationThe moisture sensitivity level of the MTi 1-series modules corresponds to JEDEC MSL Level 3, see also: ∙IPC/JEDEC J-STD-020E “Joint Indus try Standard: Moisture/Reflow Sensitivity Classification for non-hermetic Solid State Surface Mount Devices”∙IPC/JEDEC J-STD-033C “Joint Industry Standard: Handling, Packing, Shipping and Use of Moisture/Reflow Sensitive Surface Mount Devices”.The sensor fulfils the lead-free soldering requirements of the above-mentioned IPC/JEDEC standard, i.e. reflow soldering with a peak temperature up to 260°C. Recommended Preheat Area (t s) is 80-100 sec. The minimum height of the solder after reflow shall be at least 50µm. This is required for good mechanical decoupling between the MTi 1-series module and the printed circuit board (PCB) it is mounted on. Assembled PCB’s may NOT be cleaned with ultrasonic cleaning.MTI-3-8A7G6-DK。

RETSCH 产品说明书

RETSCH 2 X PP 40 40 40/51.5 mm PP 25 32 mm 40 mm
14
12
""
RETSCH
��
PT 100
RETSCH 10 mm 5000
n n
n n
n
n n n n n CE n
RETSCH �
�
1. DIN 51 701 2 AAFCO" "
RETSCH
n PT 100 4
2. 2.5 3
3.
n PK 1000 6
n RT 7
A
A: B: C: D: E:
< 5 mm
2 x 1:7.2
3 x 1:15
*
1 x 1:26
2 x 1:26
3 x 1:26
10 mm
10 mm
10 mm
30 L
��
560 x 1150 x 700 mm
37 kg DR 100
* 10
DIN 45635-31-01-KL3
< 3 mm
LpAeq 63 dBA
PK 1000
50 / 1 2 3
40.411.0001 40.411.0006
42.787.0001 42.787.0003 42.787.0004
22.523.0001 22.523.0002
05.010.0004
RT 6.5 - RT 75
RT 6.5 RT 12.5 3 2.5 L
RT 6.5
12 6.3 mm
8.0 L RT 25RT 37.5RT 50 RT 75

MRF101BN和MRF101AN RF 设备数据手册说明书

MRF101BN MRF101ANMRF101AN MRF101BN1RF Power LDMOS TransistorsHigh Ruggedness N--ChannelEnhancement--Mode Lateral MOSFETsThese devices are designed for use in VHF/UHF communications,VHF TV broadcast and aerospaceapplications as well as industrial,scientific and medical applications.The devices are exceptionally rugged and exhibit high performance up to 250MHz.Typical Performance:V DD =50VdcFrequency (MHz)Signal TypeP out (W)G ps (dB)ηD (%)13.56CW 130CW 27.179.627CW 130CW 24.081.540.68(1)CW 120CW 23.881.550CW 115CW 23.079.581.36CW 130CW 23.280.887.5–108CW 110CW 21.377.1136–174(2,3)CW104CW 21.276.5230(4)Pulse(100μsec,20%Duty Cycle)115Peak21.176.7Load Mismatch/RuggednessFrequency (MHz)Signal TypeVSWR P in (W)Test Voltage Result 40.68CW>65:1at all Phase Angles 0.64Peak (3dB Overdrive)50No Device Degradation 230Pulse(100μsec,20%Duty Cycle)>65:1at all Phase Angles1.8Peak (3dB Overdrive)50No Device Degradation1.Measured in 40.68MHz reference circuit (page 5).2.Measured in 136–174MHz VHF broadband reference circuit (page3.The values shown are the center band performance numbers across the indicated frequency range.4.Measured in 230MHz fixture (page 13).Features ∙Mirror pinout versions (A and B)to simplify use in a push--pull,two--up configuration∙Characterized from 30to 50V ∙Suitable for linear application∙Integrated ESD protection with greater negative gate--source voltage range for improved Class C operation∙Included in NXP product longevity program with assured supply for a minimum of 15years after launchTypical Applications∙Industrial,scientific,medical (ISM)–Laser generation –Plasma etching –Particle accelerators–MRI and other medical applications–Industrial heating,welding and drying systems∙Radio and VHF TV broadcast ∙HF and VHF communications ∙Switch mode power supplies Document Number:MRF101ANRev.0,11/2018Technical Data1.8–250MHz,100W CW,50VWIDEBANDRF POWER LDMOS TRANSISTORSMRF101AN MRF101BNTO--220--3LMRF101BNTO--220--3LMRF101ANGSDDS GNote:Exposed backside of the packageand tab also serves as a source terminal for the transistor.BacksideSS2RF Device Data NXP SemiconductorsMRF101AN MRF101BN Table 1.Maximum RatingsRatingSymbol Value Unit Drain--Source Voltage V DSS –0.5,+133Vdc Gate--Source Voltage V GS –6.0,+10Vdc Operating VoltageV DD 50Vdc Storage Temperature Range T stg –65to +150︒C Case Operating Temperature Range T C –40to +150︒C Operating Junction Temperature Range (1,2)T J –40to +175︒C Total Device Dissipation @T C =25︒C Derate above 25︒CP D1820.91W W/︒CTable 2.Thermal CharacteristicsCharacteristicSymbol Value (2,3)Unit Thermal Resistance,Junction to CaseCW:Case Temperature 77︒C,150W CW,50Vdc,I DQ =100mA,40.68MHz R θJC 1.1︒C/W Thermal Impedance,Junction to CasePulse:Case Temperature 73︒C,113W Peak,100μsec Pulse Width,20%Duty Cycle,50Vdc,I DQ =100mA,230MHzZ θJC0.37︒C/WTable 3.ESD Protection CharacteristicsTest MethodologyClass Human Body Model (per JS--001--2017)1B,passes 1000V Charge Device Model (per JS--002--2014)C3,passes 1200VTable 4.Electrical Characteristics (T A =25︒C unless otherwise noted)CharacteristicSymbolMinTypMaxUnitOff CharacteristicsGate--Source Leakage Current (V GS =5Vdc,V DS =0Vdc)I GSS ——1μAdc Drain--Source Breakdown Voltage (V GS =0Vdc,I D =50mAdc)V (BR)DSS 133——Vdc Zero Gate Voltage Drain Leakage Current (V DS =100Vdc,V GS =0Vdc)I DSS——10μAdcOn CharacteristicsGate Threshold Voltage(V DS =10Vdc,I D =290μAdc)V GS(th) 1.7 2.2 2.7Vdc Gate Quiescent Voltage(V DS =50Vdc,I D =100mAdc)V GS(Q)— 2.5—Vdc Drain--Source On--Voltage (V GS =10Vdc,I D =1Adc)V DS(on)—0.45—Vdc Forward Transconductance (V DS =10Vdc,I D =8.8Adc)g fs—7.1—S1.Continuous use at maximum temperature will affect MTTF.2.MTTF calculator available at /RF/calculators .3.Refer to AN1955,Thermal Measurement Methodology of RF Power Amplifiers.Go to /RF and search for AN1955.(continued)MRF101AN MRF101BN3RF Device DataNXP SemiconductorsTable 4.Electrical Characteristics (T A =25︒C unless otherwise noted)(continued)CharacteristicSymbolMinTypMaxUnitDynamic CharacteristicsReverse Transfer Capacitance(V DS =50Vdc ±30mV(rms)ac @1MHz,V GS =0Vdc)C rss —0.96—pF Output Capacitance(V DS =50Vdc ±30mV(rms)ac @1MHz,V GS =0Vdc)C oss —43.4—pF Input Capacitance(V DS =50Vdc,V GS =0Vdc ±30mV(rms)ac @1MHz)C iss—149—pFTypical Performance —230MHz (In NXP 230MHz Fixture,50ohm system)V DD =50Vdc,I DQ =100mA,P in =0.9W,f =230MHz,100μsec Pulse Width,20%Duty Cycle Common--Source Amplifier Output Power P out —115—W Power Gain G ps —21.1—dB Drain EfficiencyηD—76.7—%Table 5.Load Mismatch/Ruggedness (In NXP 230MHz Fixture,50ohm system)I DQ =100mAFrequency (MHz)Signal TypeVSWR P in (W)Test Voltage,V DDResult230Pulse(100μsec,20%Duty Cycle)>65:1at all Phase Angles1.8Peak (3dB Overdrive)50No Device DegradationTable 6.Ordering InformationDeviceShipping InformationPackageMRF101AN MPQ =250devices (50devices per tube,5tubes per box)TO--220--3L (Pin 1:Gate,Pin 2:Source,Pin 3:Drain)MRF101BNTO--220--3L (Pin 1:Drain,Pin 2:Source,Pin 3:Gate)4RF Device Data NXP SemiconductorsMRF101AN MRF101BNTYPICAL CHARACTERISTICS1100V DS,DRAIN--SOURCE VOLTAGE(VOLTS)Figure1.Capacitance versus Drain--Source Voltage C,CAPACITANCE(pF)1010000.1MRF101AN MRF101BN5RF Device DataNXP Semiconductors40.68MHz COMPACT REFERENCE CIRCUIT (MRF101AN)—0.7"⨯2.0"(1.8cm ⨯5.0cm)Table 7.40.68MHz Performance (In NXP Reference Circuit,50ohm system)V DD =50Vdc,I DQ =100mA,P in =0.50W,CWFrequency (MHz)P out (W)G ps (dB)ηD (%)40.6812023.881.56RF Device Data NXP SemiconductorsMRF101AN MRF101BN 40.68MHz COMPACT REFERENCE CIRCUIT (MRF101AN)—0.7"⨯2.0"(1.8cm ⨯5.0cm)Figure 2.MRF101AN Compact Reference Circuit Component Layout and Assembly Example —40.68MHzFigure 3.MRF101AN Compact Reference CircuitBoardaaa--032274Table 8.MRF101AN Compact Reference Circuit Component Designations and Values —40.68MHzPartDescriptionPart NumberManufacturer B1Short RF Bead 2743019447Fair-Rite C1,C582pF Chip Capacitor GQM2195C2E820GB12D Murata C2,C4200pF Chip Capacitor GQM2195C2A201GB12D Murata C333pF Chip Capacitor GQM2195C2E330GB12D Murata C6,C7,C8,C9,C101000pF Chip Capacitor GRM2165C2A102JA01D Murata C111μF Chip Capacitor GJ821BR71H105KA12L Murata C12,C1310nF Chip Capacitor GRM21BR72A103KA01B Murata C141μF Chip Capacitor C3216X7R2A105K160AA TDK L1150nH Chip Inductor 0805WL151JT ATC L217.5nH,4Turn Inductor GA3095-ACL Coilcraft L3160nH Square Air Core Inductor 2222SQ-161JEC Coilcraft L4110nH Square Air Core Inductor 2222SQ-111JEB Coilcraft Q1RF Power LDMOS Transistor MRF101ANNXP R175Ω,1/4W Chip Resistor SG73P2ATTD75R0F KOA Speer PCBFR40.09",εr =4.8,2oz.CopperD113958MTLMRF101AN MRF101BN7RF Device DataNXP SemiconductorsTYPICAL CHARACTERISTICS —40.68MHz COMPACT REFERENCE CIRCUIT (MRF101AN)V GS ,GATE--SOURCE VOLTAGE (VOLTS)8060P o u t ,O U T P U T P O W E R (W A T T S )40 3.52.51.51100120014020Figure 4.CW Output Power versus Gate--SourceVoltage at a Constant Input PowerP in ,INPUT POWER (WATTS)8060P o u t ,O U T P U T P O W E R (W A T T S )40010012001402040.68101121f (MHz)P1dB (W)P3dB (W)Figure 5.CW Output Power versus Input PowerP out ,OUTPUT POWER (WATTS)Figure 6.Power Gain and Drain Efficiencyversus CW Output PowerG p s ,P O W E R G A I N (d B )ηD ,D R A I N E F F I C I E N C Y (%)25242802090705030302223262729806040201004060801001201400.5230.10.20.30.40.50.60.721201008RF Device Data NXP SemiconductorsMRF101AN MRF101BN40.68MHz COMPACT REFERENCE CIRCUIT(MRF101AN)fMHzZ sourceΩZ loadΩ40.6824.0+j12.614.2–j2.5Z source=Testcircuit impedance as measured fromgate to ground.Z load=Test circuit impedance as measuredfromdrain toground.Figure7.Series Equivalent Source and Load Impedance—40.68MHzZ source Z load50Ω50ΩMRF101AN MRF101BN9RF Device DataNXP Semiconductors136–174MHz COMPACT VHF BROADBAND REFERENCE CIRCUIT (MRF101AN)—0.7"⨯2.0"(1.8cm ⨯5.0cm)Table 9.136–174MHz VHF Broadband Performance (In NXP Reference Circuit,50ohm system)V DD =50Vdc,I DQ =100mA,P in =0.79W,CWFrequency (MHz)P out (W)G ps (dB)ηD (%)13511721.780.015510421.276.517510721.375.4136–174MHz COMPACT VHF BROADBAND REFERENCE CIRCUIT(MRF101AN)—0.7"⨯2.0"(1.8cm⨯5.0cm)Figure8.MRF101AN Compact Reference Circuit Component Layout and Assembly Example—136–174MHzFigure9.MRF101AN Compact Reference Circuit BoardTable10.MRF101AN Compact VHF Broadband Reference Circuit Component Designations and Values—136–174MHz Part Description Part Number ManufacturerB1Short RF Bead2743019447Fair-RiteC139pF Chip Capacitor GQM2195C2E390GB12D MurataC2,C5,C6,C7,C8,C12510pF Chip Capacitor GRM2165C2A511JA01D MurataC368pF Chip Capacitor GQM2195C2E680GB12D MurataC427pF Chip Capacitor GQM2195C2E270GB12D MurataC910pF Chip Capacitor GQM2195C2E100FB12D MurataC111μF Chip Capacitor GJ821BR71H105KA12L MurataC1310nF Chip Capacitor GRM21BR72A103KA01B MurataC141μF Chip Capacitor C3216X7R2A105K160AA TDKL122nH Chip Inductor0805WL220JT ATCL212nH Chip Inductor0805WL120JT ATCL3,L4,L668nH Air Core Inductor1812SMS-68NJLC CoilcraftL512nH,3Turn Inductor GA3094-ALC CoilcraftQ1RF Power LDMOS Transistor MRF101AN NXPR175Ω,1/4W Chip Resistor SG73P2ATTD75R0F KOA SpeerPCB FR40.09",εr=4.8,2oz.Copper D113958MTLTYPICAL CHARACTERISTICS —136–174MHzCOMPACT VHF BROADBAND REFERENCE CIRCUIT (MRF101AN)20150f,FREQUENCY (MHz)26259085807565130120ηD ,D R A I N E F F I C I E N C Y (%)G p s ,P O W E R G A I N (d B )242322211715516016517070110P o u t ,O U T P U T P O W E R (W A T T S )14514017513519100180P in,INPUT POWER (WATTS)0P o u t ,O U T P U T P O W E R (W A T T S )806040200.40.61201000.20.8140 1.027202422807570G p s ,P O W E R G A I N (d B )20406026858025232110012014065605550ηD ,D R A I N E F F I C I E N C Y (%)Figure 10.Power Gain,Drain Efficiency and CW Output Power versus Frequency at a Constant Input PowerFigure 11.CW Output Power versus Input Power and FrequencyP out ,OUTPUT POWER (WATTS)Figure 12.Power Gain and Drain Efficiency versusCW Output Power and Frequency191817454035136–174MHz COMPACT VHF BROADBAND REFERENCE CIRCUIT(MRF101AN)f MHz Z sourceΩZ loadΩ135 6.8+j10.29.5+j5.2145 6.2+j10.29.9+j5.9155 5.3+j10.810.2+j6.2165 4.4+j11.910.0+j5.9175 3.9+j13.48.8+j5.0Z source=Test circuit impedance as measured fromgate to ground.Z load=Test circuit impedance as measured fromdrain to ground.Figure13.Series Equivalent Source and Load Impedance—136–174MHzZ source Z load50Ω50Ω230MHz FIXTURE(MRF101AN)—4.0"⨯5.0"(10.2cm⨯12.7cm)aaa--031939Figure14.MRF101AN Fixture Component Layout—230MHzTable11.MRF101AN Fixture Component Designations and Values—230MHzPart Description Part Number Manufacturer B1Long Ferrite Bead2743021447Fair-RiteC1,C2,C1018pF Chip Capacitor ATC100B180JT500XT ATCC343pF Chip Capacitor ATC100B430JT500XT ATCC4,C131000pF Chip Capacitor ATC800B102JT50XT ATCC50.1μF Chip Capacitor GRM319R72A104KA01D MurataC610nF Chip Capacitor C1210C103J5GACTU KemetC7 2.2μF Chip Capacitor C3225X7R1H225K TDKC847μF,16V Tantalum Capacitor T491D476K016AT KemetC951pF Chip Capacitor ATC100B510JT500XT ATCC1116pF Chip Capacitor ATC100B160JT500XT ATCC12470pF Chip Capacitor ATC800B471JW50XT ATCC140.1μF Chip Capacitor C1812104K1RACTU KemetC15 2.2μF Chip Capacitor C3225X7R2A225K TDKC16 2.2μF Chip Capacitor HMK432B7225KM-T Taiyo YudenC17220μF,100V Electrolytic Capacitor MCGPR100V227M16X26MulticompL139nH Chip Inductor1812SMS-39NJLC CoilcraftL246nH Chip Inductor1010VS-46NME CoilcraftL317.5nH,4Turn Inductor GA3095-ALC CoilcraftR1470Ω,1/4W Chip Resistor CRCW1206470RFKEA VishayPCB Rogers AD255C,0.030",εr=2.55,2oz.Copper D113651MTLTYPICAL CHARACTERISTICS —230MHz FIXTURE,T C =25_C (MRF101AN)0V GS ,GATE--SOURCE VOLTAGE (VOLTS)Figure 15.Output Power versus Gate--SourceVoltage at a Constant Input PowerP o u t ,O U T P U T P O W E R (W A T T S )P E A K755025 1.52 2.531251000.51P in ,INPUT POWER (dBm)PEAK 514943P o u t ,O U T P U T P O W E R (d B m )P E A K4733302127245318230110128f (MHz)P1dB (W)P3dB (W)Figure 16.Output Power versus Input PowerP out ,OUTPUT POWER(WATTS)PEAKFigure 17.Power Gain and Drain Efficiency versus Output Power and Quiescent CurrentG p s ,P O W E R G A I N (d B )ηD ,D R A I N E F F I C I E N C Y (%)3300806040203301080706050403020P out ,OUTPUT POWER (WATTS)PEAKFigure 18.Power Gain and Drain Efficiencyversus Output PowerG p s ,P O W E R G A I N (d B )ηD ,D R A I N E F F I C I E N C Y (%)0P out ,OUTPUT POWER (WATTS)PEAKFigure 19.Power Gain versus Output Powerand Drain--Source Voltage20G p s ,P O W E R G A I N (d B )16145075100182522150451001251503003002441393715230MHz FIXTURE (MRF101AN)f MHz Z sourceΩZ load Ω2302.1+j5.95.5+j3.2Z source =Test circuitimpedance as measured fromgate to ground.Z load=Test circuit impedance asmeasured from drain toground.Figure 20.Series Equivalent Source and Load Impedance —230MHzZ source Z load50Ω50ΩPACKAGE DIMENSIONSPRODUCT DOCUMENTATION,SOFTWARE AND TOOLS Refer to the following resources to aid your design process.Application Notes∙AN1955:Thermal Measurement Methodology of RF Power AmplifiersEngineering Bulletins∙EB212:Using Data Sheet Impedances for RF LDMOS DevicesSoftware∙Electromigration MTTF Calculator∙RF High Power Model∙.s2p FileDevelopment Tools∙Printed Circuit BoardsTo Download Resources Specific to a Given Part Number:1.Go to /RF2.Search by part number3.Click part number link4.Choose the desired resource from the drop down menuREVISION HISTORYThe following table summarizes revisions to this document.Revision Date Description 0Nov.2018∙Initial release of data sheetRF Device DataNXP Semiconductors How to Reach Us:Home Page: Web Support:/support Information in this document is provided solely to enable system and software implementers to use NXP products.There are no express or implied copyright licenses granted hereunder to design or fabricate any integrated circuits based on the information in this document.NXP reserves the right to make changes without further notice to any products herein.NXP makes no warranty,representation,or guarantee regarding the suitability of its products for any particular purpose,nor does NXP assume any liability arising out of the application or use of any product or circuit,and specifically disclaims any and all liability,including without limitation consequential or incidental damages.“Typical”parameters that may be provided in NXP data sheets and/or specifications can and do vary in different applications,and actual performance may vary over time.All operating parameters,including “typicals,”must be validated for each customer application by customer’s technical experts.NXP does not convey any license under its patent rights nor the rights of others.NXP sells products pursuant to standard terms and conditions of sale,which can be found at the following address:/SalesTermsandConditions .NXP and the NXP logo are trademarks of NXP B.V.All other product or service names are the property of their respective owners.E 2018NXP B.V.MRF101BN MRF101AN。

NRLMW222M100V22X35F中文资料

Large Can Aluminum Electrolytic CapacitorsFEATURES• LONG LIFE (105°C, 2000 HOURS)• LOW PROFILE AND HIGH DENSITY DESIGN OPTIONS • EXPANDED CV VALUE RANGE• HIGH RIPPLE CURRENT• CAN-TOP SAFETY VENT • DESIGNED AS INPUT FILTER OF SMPS• STANDARD 10mm (.400") SNAP-IN SPACING NRLMW SeriesSPECIFICATIONSNotice for MountingThe space from the top of the can shall be more than (3mm) from chassis or other construction materials so that safety vent has room to expand in case of emer g en c y.Sleeve Color: Dark BlueCan Top Safety VentInsulation Sleeve and Minus Polarity Marking(4.0mm Leads Available As Option)D+1Max.L ± 26.3 ± 10.810(-)(+)MAXIMUM EX P AN S IONFOR SAFETY VENT Approx. 3.0mmRecommended PC Board Mounting Holes:10 ± .1∅= 2 ± 0.1D ∅ ± 0.5ChassisPC BoardPRECAUTIONSPlease review the notes on correct use, safety and precautions found on pages T10 & T11of NIC’s Electrolytic Capacitor catalog . Operating Temperature Range-40 ~ +105°C -25 ~ +105°C Rated Voltage Range 10 ~ 250Vdc 450Vdc Rated Capacitance Range 180 ~ 68,000µF 56 ~ 470µF Capacitance Tolerance ±20% (M) at 120Hz, +20°CMax. Leakage Current (µA)After 5 minutes (20°C)3 x C(µF)VMax. Tan δat 120Hz/20°CW.V. (Vdc)10162535506380100 ~ 400450Tan δ max.0.550.450.350.300.250.200.170.150.20Surge VoltageW.V. (Vdc)10162535506380100160S.V. (Vdc)132032446379100125200W.V. (Vdc)180200250400450----S.V. (Vdc)220250300450500----Ripple Current Correction Factors Frequency (Hz)50601001205001K 10K ~ 50K --Multiplier at 85°C16 ~ 100Vdc0.930.950.99 1.0 1.05 1.08 1.15--160 ~ 450Vdc0.750.800.95 1.0 1.20 1.25 1.40-Low Temperature Stability (10 to 250Vdc)Temperature (°C)0-25-40------Capacitance Change -5%-10-30%------Impedance Ratio 1.539------Load Life Test 2,000 hours at +105°C Capacitance ChangeWithin ±20% of initial measured valueTan δLess than 200% of speciﬁ ed maximum valueLeakage Current Less than speciﬁ ed maximum value Shelf Life Test 1,000 hours at +105°C(no load)Capacitance ChangeWithin ±20% of initial measured value Tan δLess than 200% of speciﬁ ed maximum valueLeakage Current Less than speciﬁ ed maximum value Surge Voltage TestPer JIS-C-5141 (table #6, #4)Surge voltage applied: 30 seconds "On" and 5.5 minutes no voltage "Off"Capacitance ChangeWithin ±20% of initial measured value Tan δLess than 200% of speciﬁ ed maximum valueLeakage Current Less than speciﬁ ed maximum value Soldering EffectRefer toMIL-STD-202F Method 210ACapacitance ChangeWithin ±10% of initial measured valueTan δLess than speciﬁ ed maximum value Leakage CurrentLess than speciﬁ ed maximum valueRoHSCompliantincludes all homogeneous materials *See Part Number System for DetailsLarge Can Aluminum Electrolytic Capacitors NRLMW SeriesLarge Can Aluminum Electrolytic CapacitorsNRLMW SeriesNRLMW 471 M 250V 30X35 FRoHS compliant Case Size (mm) Voltage Rating Tolerance Code Capacitance Code SeriesPART NUMBER SYSTEM。

WFM200S Wi-Fi Expansion Kit 用户指南说明书

UG407: WFM200S Wi-Fi® Expansion Kit User's GuideThe WFM200S Wi-Fi Expansion Kit is an excellent way to ex-plore and evaluate the WFM200S Wi-Fi Transceiver Module with a Raspberry Pi or an EFM32 MCU for your embedded applica-tion.The WFM200S Wi-Fi Transceiver Module is an easy to use and easy to interface Wi-Fi Network Co-Processor (NCP). Most of the associated complexity of Wi-Fi and the pro-tocol stack is offloaded to the NCP and allows for easy Wi-Fi integration into any em-bedded system.The kit easily integrates and brings Wi-Fi connectivity to a compatible Silicon Labs MCU Starter Kit through the EXP header. The WFM200S Wi-Fi Expansion Kit has also been designed after the Raspberry Pi Hardware Attached on Top (HAT) board specifi-cation, allowing the WFM200S Wi-Fi Expansion Kit to connect to a Raspberry Pi.WFM200S EXPANSION BOARD FEATURES•Selectable SPI or SDIO host interface •EXP connector for interfacing Silicon Labs Starter Kits•Allows board detection andidentification•Raspberry Pi compatible HAT•40-pin header•HAT EEPROM for identificationTable of Contents1. Introduction (3)1.1 Kit Contents (4)2. Hardware Overview (5)2.1 Hardware Layout (5)3. WFM200S Wi-Fi NCP Expansion Kit (6)3.1 Host Interfaces (6)3.2 Power-on and Manual Reset Circuit (7)4. Connectors (8)4.1 EXP Header (9)4.1.1 Pass-through EXP Header (9)4.1.2 EXP Header Pinout (10)4.2 Raspberry Pi Connector (11)4.2.1 Raspberry Pi Connector Pinout (12)4.3 External FEM Connector (13)4.3.1 External FEM Connector Pinout (13)4.4 PTA Connector (14)4.4.1 PTA Connector Pinout (14)4.5 Secondary RF Connector (14)4.6 Power Supply (15)5. Schematics, Assembly Drawings, and BOM (16)6. Kit Revision History (17)6.1 SLEXP8023A Revision History (17)6.2 SLEXP8023C Revision History (17)7. Document Revision History (18)1. IntroductionThis user guide describes the WFM200S Wi-Fi Expansion Kit. The kit connects to either a Silicon Labs EFM32 MCU starter kit (STK), a Silicon Labs EFR32 wireless starter kit (WSTK) or a Raspberry Pi equipped with the 40-pin Raspberry Pi hardware-attached-on-top (HAT) connector. SDIO support is available only with selected hosts.Figures 1.1 and 1.2 shows the kit connected to a Silicon Labs MCU STK through the Expansion Header and a Raspberry Pi, respec-tively.Figure 1.1. WFM200S Wi-Fi Expansion Kit Connected to a Silicon Labs EFM32GG11 MCU STKFigure 1.2. WFM200S Wi-Fi Expansion Kit Connected to a Raspberry Pi Note: Do not connect the kit to both a Silicon Labs MCU STK and a Raspberry Pi at the same time.1.1 Kit ContentsThe WFM200S Wi-Fi Expansion Kit comes in two versions, which differs in what's included in the box:•SLEXP8023A:•BRD8023A WFM200S Wi-Fi EXP Board•8 GB Micro-SD card with software image for Raspberry Pi 2•SLEXP8023C:•BRD8023A WFM200S Wi-Fi EXP Board•8 GB Micro-SD card with software image for Raspberry Pi 2•Raspberry Pi 2 Model B Single-Board Computer•Raspberry Pi Power Supply 5.1 V, 2.5 A2. Hardware Overview2.1 Hardware LayoutThe layout of the WFM200S Wi-Fi Expansion Kit is shown in the figure below.EXP-header for Starter Kits Power source select switchPass-through EXP-header Not mountedRaspberry Pi connectorOn bottom sideCurrent consumptionmeasurement headerNot mountedWFM200S Wi-FiExpansion BoardHost interfaceselect switchSecondary RF outputcoaxial connectorExternal FEM headerNot mountedPTA headerNot mountedReset buttonFigure 2.1. WFM200S Wi-Fi Expansion Kit Hardware LayoutHardware Overview3. WFM200S Wi-Fi NCP Expansion KitThe WFM200S Wi-Fi Transceiver Module is a Wi-Fi Network Co-Processor (NCP) transceiver from Silicon Labs.3.1 Host InterfacesSPI and SDIO are the two available host interfaces (HIF) on the WFM200S Wi-Fi Expansion Kit. A slide switch, whose state is sampled during power-on reset or manually issued reset is used to select the interface. The slide switch must remain in the same position throughout the duration of the session since it also controls HIF selection multiplexer circuits.When the WFM200S Wi-Fi Expansion Kit is connected to an EFM32/EFR32 starter kit through the EXP header, the state of the HIF selection switch can be read (but not controlled) by the kit mcu through a GPIO pin.The WFM200S Wi-Fi Expansion Kit incorporates a set of multiplexer circuits which allows the user to use the same kit for evaluating the WFM200S in both applications requiring SPI or SDIO connectivity to the host. These circuits will normally not be needed in an end-user application since in most cases the interface to use will be fixed.A simplified circuit diagram showing the host interface multiplexer circuits is shown below. The EXP_HEADER9 signal is connected to pin 9 on the EXP header, while the HIF_OEn output enable signal is controlled by the power-on reset circuit (explained later).Figure 3.1. Host Interface Multiplexer Circuit3.2 Power-on and Manual Reset CircuitTo ensure that the state of the host interface selection signal is sampled correctly at the rising edge of the WFM200S RESETn signal, a power-on reset circuit has been added to the WFM200S Wi-Fi Expansion Kit. This circuit achieves this by•Adding a delay of 1ms to the rising edge of the RESETn signal with respect to the rising edge of the power supply•Isolating the host from the WFM200S DAT2/HIF_SEL pin during the rising edge of the RESETn signalThe figure below shows the circuit diagram for the power-on and manual reset circuit. Its functionality is as follows:•NCP_RESETn is the active-low reset signal of the WFM200S. The WFM200S RESETn pin has an internal pull-up of approximately43 kOhms. The on-board reset button is connected to this signal.•HIF_SEL_CTRL is the signal from the HIF selection switch•HIF_OEn is the active-low output enable signal of the HIF multiplexer circuits•WF_DAT2_HIF_SEL is the combined SDIO DAT2 signal and HIF selection signal of the WFM200S•U114 is an open-drain active low output reset monitor which with the installed capacitor connected to the CD pin keeps NCP_RE-SETn tied to ground for about 1 ms after VMCU_NCP has exceeded the threshold voltage of 0.9 V•U115 is a tri-state output buffer with an active low output enable signal connected to NCP_RESETn which pulls the CD pin of U116 low while NCP_RESETn is low•U116 is a push-pull active high output reset monitor which drives HIF_OEn high for 1 ms after the output of U115 is disabled•U109 is a tri-state output buffer with an active high output enable signal which connects the HIF_SEL_CTRL signal to the WF_DAT2_HIF_SEL signal as long as HIF_OEn is highThe NCP_RESETn signal is available on both the EXP header and the Raspberry Pi connector and can be used for issuing a manual reset sequence by pulling it low for at least 1 ms.Note: Reset button is effective when board is not connected to MCU or Raspberry Pi boards. When connected, change of host inter-face is effective after reboot.Figure 3.2. Power-on and Manual Reset Circuit Diagram4. ConnectorsThis chapter gives an overview of the WFM200S Wi-Fi Expansion Kit connectivity and power connections.Pass-through EXP Header(Bottom side)External FEM connector Figure 4.1. WFM200S Wi-Fi Expansion Kit Connector Layout4.1 EXP HeaderOn the left-hand side of the WFM200S Wi-Fi Expansion Kit, a right-angle female 20-pin EXP header is provided to connect to one of Silicon Labs’ supported Starter Kits. The EXP header on the Starter Kits follows a standard which ensures that commonly used periph-erals such as an SPI, a UART, and an I 2C bus, are available on fixed locations on the connector. Additionally, the VMCU, 3V3 and 5 V power rails are also available on the expansion header. For detailed information regarding the pinout to the expansion header on a specific Starter Kit, consult the accompanying user’s guide.The figure below shows how the WFM200S Wi-Fi Transceiver Module is connected to the connector and the peripheral functions that are available.VMCUSPI_MOSI / SDIO_DAT1SPI_MISO / SDIO_DAT0SPI_SCLK / SDIO_CMD SPI_CS / SDIO_CLK SPI_WIRQ / SDIO_DAT3SDIO_DAT2Not Connected (NC)5V3V3GNDGPIO_WUP Not Connected (NC)RESETnHIF_SEL_CTRL Not Connected (NC)Not Connected (NC)Not Connected (NC)BOARD_ID_SDA BOARD_ID_SCL Reserved (Board Identification)WFM200S I/O PinFigure 4.2. Expansion Header4.1.1 Pass-through EXP HeaderThe WFM200S Wi-Fi Expansion Kit features a footprint for a secondary EXP header. All signals from the EXP header, including those that are not connected to any features on the WFM200S Wi-Fi Expansion Kit, are directly tied to the corresponding pins in the footprint,allowing daisy-chaining of additional expansion boards if a connector is soldered in.4.1.2 EXP Header PinoutThe table below shows the pin assignments of the EXP header.Table 4.1. EXP Header Pinout4.2 Raspberry Pi ConnectorOn the bottom side of the WFM200S Wi-Fi Expansion Kit, a dual row, female socket, 0.1" pitch connector is installed to allow the WFM200S Wi-Fi Expansion Kit to act as a Raspberry Pi Hardware Attached on Top (HAT) board.The figure below shows how the WFM200S Wi-Fi Transceiver Module is connected to the connector and the peripheral functions that are available.Reserved (Board Identification)WFM200S I/O PinGNDSDIO_DAT2Not Connected (NC)RESETnGPIO_WIRQNot Connected (NC)RPI_ID_SDGND SPI_SCLKSPI_MISO Not Connected (NC)Not Connected (NC)SPI_WIRQGNDGPIO_WUP GNDRPI_ID_SC Not Connected (NC)SDIO_DAT1SPI_CSSPI_MOSI 3V3SDIO_CLKSDIO_DAT3 Not Connected (NC)GNDNot Connected (NC)Not Connected (NC) Not Connected (NC)3V3GNDSDIO_DAT0SDIO_CMD GNDNot Connected (NC)GPIO_FEM_5GPIO_FEM_6GND5V 5VFigure 4.3. Raspberry Pi Connector4.2.1 Raspberry Pi Connector PinoutThe table below shows the pin assignments of the Raspberry Pi connector, and the port pins and peripheral functions that are available on the WFM200S Wi-Fi Expansion Kit.Table 4.2. Raspberry Pi Connector Pinout4.3 External FEM ConnectorThe WFM200S Wi-Fi Expansion Kit features a 2x5-pin 0.1" pitch connector exposing the WFM200S Wi-Fi Transceiver Module's exter-nal front-end module (FEM) interface, which allows the connection of an external FEM board using a ribbon cable.The WFM200S Wi-Fi Expansion Kit also features a TX/RX activity indicator LED which is connected to the FEM_5 signal. By default, to optimize power consumption, TX/RX activity LED is not enabled. PDS sections PROG_PINS_CFG and FEM_CFG should be updated to enable this functionality.The pinout of the connector is illustrated in the figure below.GNDFEM_PDETFEM_6FEM_5VMCU_NCPFEM_4FEM_3VMCU_NCPFEM_2FEM_1Figure 4.4. External FEM Connector4.3.1 External FEM Connector PinoutThe pin assignment of the external FEM connector on the board is given in the table below.Table 4.3. External FEM Connector Pin Descriptions4.4 PTA ConnectorThe WFM200S' packet transfer arbitration (PTA) interface for managing coexistence in a multi-transceiver application is exposed on a 1x5-pin 0.1" pitch header on the WFM200S Wi-Fi Expansion Kit.The pinout of the connector is illustrated in the figure below.PTA_STATUS / PRIORITY PTA_RF_ACT / REQUESTPTA_FREQ / RHOPTA_TX_CONF / GRANT GNDFigure 4.5. PTA Connector4.4.1 PTA Connector PinoutThe pin assignment of the PTA connector on the board is given in the table below.Table 4.4. PTA Connector Pin Descriptions4.5 Secondary RF ConnectorThe WFM200S' secondary RF output is exposed on the WFM200S Wi-Fi Expansion Kit through a Hirose u.FL coaxial connector.For connecting the secondary RF output to an RF measurement instrument, 50 ohms resistor R641 shall be removed and a u.FL to SMA adapter cable (not included with the kit) can be used. Examples of such adapter cables are the Taoglas CAB.721 (100 mm) or CAB.720 (200 mm) cable assemblies.4.6 Power SupplyThere are two ways to provide power to the kit:•The kit can be connected to, and powered by, a Silicon Labs MCU STK •The kit can be connected to, and powered by, a Raspberry PiNote: Connecting the WFM200S Wi-Fi Expansion Kit to both an EFM32/EFR32 STK and a Raspberry Pi at the same time is not a valid option.When connected to a Silicon Labs MCU STK, the WFM200S Wi-Fi Transceiver Module can either be powered by the VMCU rail present on the EXP header or through an LDO regulator on board the WFM200S Wi-Fi Expansion Kit. If connected to the VMCU rail of the starter kit, the current consumption of the WFM200S Wi-Fi Transceiver Module will be included in the starter kit's on-board Ad-vanced Energy Monitor (AEM) measurements. The LDO regulator draws power from the 5V net, and, hence, the power consumption of the WFM200S Wi-Fi Transceiver Module will not be included in any AEM measurements performed by the MCU STK.A mechanical power switch on the WFM200S Wi-Fi Expansion Kit is used to select between Low Power (AEM) mode and High Power (LDO) mode. When the switch is set to Low Power (AEM) mode, the WFM200S Wi-Fi Transceiver Module is connected to the VMCU net on the Expansion Header. When the switch is set to High Power (LDO) mode, the WFM200S Wi-Fi Transceiver Module is connec-ted to the output of the LDO. For applications requiring high power consumption or when the WFM200S Wi-Fi Expansion Kit is connec-ted to a Raspberry Pi, the power switch must be set to High Power (LDO) mode.A 0.1 ohm current sense resistor accompanied by a 2x2-pin 0.1" unpopulated header is provided to measure the current consumption of the WFM200S Wi-Fi Transceiver Module whenever AEM is not available or when the current consumption exceeds the measure-ment range of AEM.The power topology is illustrated in the figure below.Expansion HeaderRaspberry Pi ConnectorFigure 4.6. WFM200S Wi-Fi Expansion Kit Power TopologySchematics, Assembly Drawings, and BOM 5. Schematics, Assembly Drawings, and BOMSchematics, assembly drawings, and bill of materials (BOM) are available through Simplicity Studio when the kit documentation pack-age has been installed. They are also available from the Silicon Labs website and kit page.6. Kit Revision HistoryThe kit revision can be found printed on the kit packaging label, as outlined in the figure below.SLEXP8023A WFM200S Wi-Fi Expansion Kit194000022401-11-19A01Figure 6.1. Kit Label6.1 SLEXP8023A Revision History6.2 SLEXP8023C Revision History Kit Revision HistoryDocument Revision History 7. Document Revision HistoryRevision 1.02019-11-01•Initial document revision.Simplicity StudioOne-click access to MCU and wireless tools, documentation, software, source code libraries & more. Available for Windows, Mac and Linux!IoT Portfolio /IoTSW/HW/simplicityQuality/qualitySupport and CommunitySilicon Laboratories Inc.400 West Cesar ChavezAustin, TX 78701USADisclaimerSilicon Labs intends to provide customers with the latest, accurate, and in-depth documentation of all peripherals and modules available for system and software implementers using or intending to use the Silicon Labs products. Characterization data, available modules and peripherals, memory sizes and memory addresses refer to each specific device, and "Typical" parameters provided can and do vary in different applications. Application examples described herein are for illustrative purposes only. Silicon Labs reserves the right to make changes without further notice to the product information, specifications, and descriptions herein, and does not give warranties as to the accuracy or completeness of the included information. Without prior notification, Silicon Labs may update product firmware during the manufacturing process for security or reliability reasons. Such changes will not alter the specifications or the performance of the product. Silicon Labs shall have no liability for the consequences of use of the information supplied in this document. This document does not imply or expressly grant any license to design or fabricate any integrated circuits. The products are not designed or authorized to be used within any FDA Class III devices, applications for which FDA premarket approval is required or Life Support Systems without the specific written consent of Silicon Labs. A "Life Support System" is any product or system intended to support or sustain life and/or health, which, if it fails, can be reasonably expected to result in significant personal injury or death. Silicon Labs products are not designed or authorized for military applications. Silicon Labs products shall under no circumstances be used in weapons of mass destruction including (but not limited to) nuclear, biological or chemical weapons, or missiles capable of delivering such weapons. Silicon Labs disclaims all express and implied warranties and shall not be responsible or liable for any injuries or damages related to use of a Silicon Labs product in such unauthorized applications.Trademark InformationSilicon Laboratories Inc.® , Silicon Laboratories®, Silicon Labs®, SiLabs® and the Silicon Labs logo®, Bluegiga®, Bluegiga Logo®, Clock B uilder®, CMEMS®, DSPLL®, EFM®, EFM32®, EFR, Ember®, Energy Micro, Energy Micro logo and combinations thereof, "the world’s most energy friendly microcontrollers", Ember®, EZLink®, EZRadio®, EZRadioPRO®, Gecko®, Gecko OS, Gecko OS Studio, ISOmodem®, Precision32®, ProSLIC®, Simplicity Studio®, SiPHY®, Telegesis, the Telegesis Logo®, USBXpress® , Zentri, the Zentri logo and Zentri DMS, Z-Wave®, and others are trademarks or registered trademarks of Silicon Labs. ARM, CORTEX, Cortex-M3 and THUMB are trademarks or registered trademarks of ARM Holdings. Keil is a registered trademark of ARM Limited. Wi-Fi is a registered trademark of the Wi-Fi Alliance. All other products or brand names mentioned herein are trademarks of their respective。

SD25-471中文资料

Description• Six sizes of shielded drum core inductors with low profiles (as low as 1.0mm) and high power density • Inductance range from .47uH to 1000uH• Current range from 6.00 to 0.088 Amps• Ferrite shielded, low EMIApplications• Digital cameras, CD players, cellular phones, and PDAs • PCMCIA cards• GPS systemsEnvironmental Data• Storage temperature range:-40C to +125C• Operating ambient temperature range:-40C to +85C (range is application specific).T emperature rise is approximately 40C at rated rms current• Infrared reflow temperature:+240C for 30 seconds maximum Packaging• Supplied in tape and reel packaging, 3800 (SD10, SD12 and SD18), 2900 (SD20 and SD25), and 3500 (SD52)per reelSD SeriesHigh Power Density,Low Profile,Shielded Inductors(1) Open Circuit Inductance T est Parameters:100KHz, 0.25Vrms, 0.0Adc.(2) RMS current for an approximate ∆T of 40°C without core loss.It isrecommended that the temperature of the part not exceed 125°C. (3) Peak current for approximate 30% roll off at 20°C.(4) DCR limits @ 20°C.5) Applied Volt-Time product (V-uS) across the inductor at 100kHz necessary togenerate a core loss equal to 10% of the total losses for 40°C temperature rise.Part Number Rated OCL (1)Part Irms (2)Isat (3)DCR (4)Volt Inductance+/-20%Marking Amperes Amperes(Ω)u-sec (µH)(µH)Typ.Typ. SD10-R470.4700.453A 2.59 3.540.0249 2.1 SD10-1R0 1.00 1.119B 1.93 2.250.0448 3.3 SD10-1R5 1.50 1.563C 1.60 1.910.0653 3.9SD10-4R7 4.70 4.893F 1.04 1.080.1535 6.9 SD10-6R2 6.20 6.743G0.940.920.18708.1 SD10-8R28.208.889H0.8000.8000.26079.3 SD10-10010.010.07J0.7600.7520.28889.9 SD10-15015.015.55K0.6130.6050.442912.3 SD10-22022.022.21L0.4980.5060.671814.7 SD10-33033.032.20M0.4120.4200.980717.7SD10-68068.070.01O0.3010.285 1.8426.1 SD10-82082.083.48P0.2580.261 2.5028.5 SD10-101100102.0Q0.2250.236 3.2931.5 SD10-151150149.2R0.2000.195 4.1538.1 SD10-221220222.2S0.1610.160 6.4146.5 SD10-331330330.4T0.1300.1319.8356.7 SD10-471470468.3U0.1170.11012.1067.5 SD12-R470.4700.490A 3.19 3.860.0246 2.84 SD12-1R2 1.20 1.21B 2.62 2.450.0366 4.47 SD12-1R5 1.50 1.69C 2.19 2.080.0521 5.28 SD12-2R2 2.20 2.25D 1.83 1.800.0747 6.09 SD12-3R3 3.30 3.61E 1.55 1.420.10437.71 SD12-4R7 4.70 4.41F 1.46 1.290.11778.53 SD12-6R2 6.20 6.25G 1.21 1.080.169910.15 SD12-8R28.208.41H 1.020.9310.239911.77SD12-22022.022.09L0.6280.5740.633819.08 SD12-33033.032.49M0.5190.4740.928923.14 SD12-47047.047.61N0.4280.391 1.3728.01 SD12-68068.068.89O0.3410.325 2.1633.70 SD12-82082.082.81P0.3260.297 2.3636.95 SD12-10110098.0Q0.3080.273 2.6440.19 SD12-151150151.3R0.2510.220 3.9649.94(1) Open Circuit Inductance T est Parameters:100KHz, 0.25Vrms, 0.0Adc.(2) RMS current for an approximate ∆T of 40°C without core loss.It is recommended that the temperature of the part not exceed 125°C.(3) Peak current for approximate 30% roll off at 20°C.(4) DCR limits @ 20°C.5) Applied Volt-Time product (V-uS) across the inductor at 100kHz necessary to generate a core loss equal to 10% of the total losses for 40°C temperature rise.Part Number Rated OCL (1)Part Irms (2)Isat (3)DCR (4)Volt Inductance+/-20%Marking Amperes Amperes (Ω)u-sec (µH)(µH)Typ.Typ.SD12-331330334.9T 0.1860.1487.2574.30SD12-471470462.3U 0.1670.1268.9587.29SD12-681680670.8V 0.1490.10411.30105SD12-821820800.9W 0.1290.09514.93115SD12-1021000992.3X 0.1210.08617.20128SD18-R470.470.49A 3.58 4.630.0201 2.35SD18-R820.820.81B 3.24 3.600.0247 3.02SD18-1R5 1.50 1.69D 2.73 2.490.0345 4.37SD18-2R2 2.20 2.25E 2.55 2.160.0398 5.04SD18-3R3 3.30 3.61F 2.07 1.710.0605 6.38SD18-4R7 4.70 4.41G 1.77 1.540.08247.06SD18-6R2 6.20 6.25H 1.61 1.300.10008.40SD18-8R28.208.41J 1.38 1.120.13519.74SD18-10010.010.89K 1.280.9820.158411.09SD18-22022.022.09M 0.8760.6890.336615.79SD18-33033.032.49N 0.7150.5680.505719.15SD18-47047.047.61O 0.5780.4700.773223.18SD18-68068.068.89P 0.5140.3900.979827.89SD18-82082.082.81Q 0.4460.356 1.3030.58SD18-101100102.01R 0.4190.321 1.4733.94SD18-151150151.29S 0.3450.263 2.1841.33SD18-221220222.01T 0.2960.217 2.9550.06SD18-471470479.61V 0.2010.148 6.3973.58SD18-681680681.21W 0.1670.1249.2887.70SD18-821820823.69X 0.1450.11312.3596.43SD18-10210001004Y 0.1360.10214.01107SD20-R470.470.490A 3.59 4.000.0200 2.28SD20-1R2 1.20 1.21B 3.07 2.550.0275 3.58SD20-1R5 1.50 1.69C 2.88 2.150.0312 4.23SD20-3R3 3.30 3.61E 2.17 1.470.0547 6.18SD20-4R7 4.70 4.41F 2.05 1.330.0612 6.83SD20-6R2 6.20 6.25G 1.89 1.120.07208.13SD20-8R28.208.41H 1.610.9660.10009.43SD20-10010.09.61J 1.530.9030.110010.08SD20-15015.015.21K 1.250.7180.165512.68SD20-22022.022.09L 1.120.5960.205315.28SD20-47047.047.61N 0.7450.4060.465022.43SD20-68068.068.89O 0.6100.3370.694726.98SD20-82082.082.81P 0.5760.3080.778529.58SD20-10110098.01Q 0.4950.283 1.0632.18SD20-151150151.3R 0.4350.228 1.3739.98SD20-221220222.0S 0.3560.188 2.0448.43SD20-331330327.6T 0.2940.155 2.9958.83SD20-471470470.9U 0.2630.129 3.7470.53SD20-821820823.7W 0.2040.098 6.2293.28SD20-10210001004.9X 0.1720.0888.73103SD25-R470.470.466A 3.88 6.000.0177 2.13SD25-R820.820.770B 3.58 4.670.0208 2.74SD25-1R2 1.20 1.15C 3.33 3.810.0240 3.34SD25-1R5 1.50 1.61D 3.12 3.230.0274 3.95SD25-2R22.202.14E2.932.800.03114.56SD SeriesHigh Power Density,Low Profile,Shielded InductorsMechanical Diagrams TOP VIEWBOTTOM VIEWRECOMMENDED PCB LAYOUTSCHEMATIC215.2Max5.2Max aHT1.5 Typ.Ref.12SIDE VIEWPin #1identifierPart marking(Note A)21R2.2502.9755.9502.97524 PAD LAYOUTR2.2505.9591.02.97525.152.57522 PAD LAYOUT5.9509(see chart below)Part Number Rated OCL (1)Part Irms (2)Isat (3)DCR (4)Volt Inductance+/-20%Marking Amperes Amperes (Ω)u-sec (µH)(µH)Typ.Typ.SD25-3R3 3.30 3.43F 2.64 2.210.0384 5.78SD25-4R7 4.70 5.03G 2.39 1.830.0467 6.99SD25-6R8 6.80 6.93H 2.19 1.560.05568.21SD25-8R28.207.99J 1.92 1.450.07248.82SD25-10010.010.35K 1.80 1.270.082410.03SD25-15015.014.45L 1.67 1.080.095611.86SD25-22022.022.81M 1.340.8570.147814.90SD25-33033.033.07N 1.110.7110.214917.94SD25-47047.047.89O 0.9190.5920.315621.58SD25-68068.068.64P 0.7410.4820.485025.84SD25-82082.082.17Q 0.7130.4410.524228.27SD25-101100100.79R 0.6700.3980.593731.31SD25-151150148.4S 0.5530.3280.872338.00SD25-221220222.4T 0.4460.268 1.3446.51SD25-331330332.2U 0.3590.219 2.0756.85SD25-471470472.4V 0.2930.184 3.1067.79SD25-681680677.2W 0.2620.154 3.8881.17SD25-821820826.7X 0.2300.139 5.0489.68SD25-10210001003.4Y0.2160.1265.7098.80Series HT SD10 1.0mm max SD12 1.2mm max SD18 1.8mm max SD20 2.0mm max SD25 2.5mm max(1) Open Circuit Inductance T est Parameters:100KHz, 0.25Vrms, 0.0Adc.(2) RMS current for an approximate ∆T of 40°C without core loss.It is recommended that the temperature of the part not exceed 125°C.(3) Peak current for approximate 30% roll off at 20°C.(4) DCR limits @ 20°C.5) Applied Volt-Time product (V-uS) across the inductor at 100kHz necessary to generate a core loss equal to 10% of the total losses for 40°C temperature rise.SD SeriesHigh Power Density,Low Profile,Shielded InductorsSD SeriesA) Part Marking:Line 1:(1st digit indicates the inductance value per part marking designator in chart above)(2nd digit is a bi-weekly production date code)(3rd digit is the last digit of the year produced)Line 2:12 (indicates the product size code)Direction of feedSECTION A-ASD20/25 SeriesDimensions are in millimeters.Direction of feedSD12/18 SeriesPackaging Information ACTUAL SIZESD12ACTUAL SIZESD18ACTUAL SIZESD20ACTUAL SIZESD25SD SeriesHigh Power Density,Low Profile,Shielded InductorsAo=5.45mm Bo=5.45mm Ko=2.00mmParts packaged on 13" Diameter reel, 3,800 parts per reel.Direction of feedSECTION A-ASD10 SeriesACTUAL SIZESD10Ao=5.45mm Bo=5.45mm Ko=1.20mmParts packaged on 13" Diameter reel,3,800 parts per reel.Ao=5.45mm Bo=5.45mm Ko=2.70mmParts packaged on 13" Diameter reel,2,900 parts per reel.SD SeriesHigh Power Density,Low Profile,Shielded InductorsDC Current vs.TemperatureIdc (A)T e m p e r a t u r e R i s e (D e g . C)0.000.100.200.300.400.500.600.70Idc (A)T e m p e r a t u r e R i s e (D e g . C )SD10-220Idc (A)T e m p e r a t u r e R i s e (D e g . C)SD10-471Idc (A)T e m p e r a t ur e R i s e (D e g . C )T e m p e r a t u r e R i s e (D e g . C )0.000.100.200.300.400.500.600.700.80Idc (A)T e m p e r a t u r e R i s e (D e g . C )Idc (A)T e m p e r a t u r e R i s e (D e g . C )Idc (A)T e m p e r a t u r e R i s e (D e g . C )Idc (A)T e m p e r a t u r e R i s e (D e g . C )Idc (A)T e m p e r a t u r e R i s e (D e g . C )RolloffCore LossOCL vs Isat SD100102030405060708090100% of Isat O C L (%)OCL vs Isat SD1201020304050607080901000102030405060708090100110120% of Isat O C L (%)OCL vs Isat SD1801020304050607080901000102030405060708090100110120130140150160% of IsatO C L (%)OCL vs Isat SD2001020304050607080901000102030405060708090100110120130140150160170% of IsatO C L (%)OCL vs Isat SD2501020304050607080901000102030405060708090100110120130140150% of IsatO C L (%)Irms DERATING WITH CORE LOSS% of Applied Volt-µSecond% o f L o s s e s f r o m I r m s (m a x i m u m)SD SeriesHigh Power Density,Low Profile,Shielded InductorsSD SeriesHigh Power Density,Low Profile,Shielded InductorsPart Number Rated OCL (1)Part Irms (2)Isat (3)DCR (4)Volt Inductance+/-20%Marking Amperes Amperes (Ω)u-sec (µH)(µH)Typ.Typ.SD52-1R2 1.20 1.20A 2.33 3.140.0279 1.49SD52-2R2 2.20 2.20B 1.98 2.300.0385 2.03SD52-3R5 3.50 3.50C 1.73 1.820.0503 2.57SD52-4R7 4.70 4.70D 1.63 1.640.0568 2.84SD52-6R8 6.80 6.80E 1.39 1.280.0777 3.65SD52-10010.010.0F 1.11 1.110.1215 4.19SD52-15015.015.0G 0.970.880.1618 5.27SD52-22022.022.0H 0.860.730.2042 6.35SD52-27027.027.0J 0.730.650.28647.16SD52-33033.033.0K 0.700.610.30747.70SD52-47047.047.0L 0.580.500.44659.32SD52-68068.068.0M 0.470.420.682911.21SD52-101100100N0.390.351.000013.37RECOMMENDED PCB LAYOUTSCHEMATIC2.02 plcs6.01.32 plcsBOTTOM VIEW1SIDE VIEW±SD52 SeriesA) Part Marking:Line 1:(1st digit indicates the inductance value per part markingdesignator in chart above)(2nd digit is a bi-weekly production date code)(3rd digit is the last digit of the year produced)Line 2:12 (indicates the product size code)Mechanical Diagrams Dimensions are in millimeters.Direction of feedKoSECTION A-A1.5 Dia min.BoB AoA 8.0804.002.00± 0.051.5 Dia.+0.1/-0.0AA1.755.5012.0+/-0.30210.203.0SD52 SeriesACTUAL SIZESD52Ao=5.72mm Bo=5.72mm Ko=2.30mmParts packaged on 13" Diameter reel,3,500 parts per reel.(1) Open Circuit Inductance T est Parameters:100KHz, 0.25Vrms, 0.0Adc.(2) RMS current for an approximate ∆T of 40°C without core loss.It is recommended that the temperature of the part not exceed 125°C.(3) Peak current for approximate 30% roll off at 20°C.(4) DCR limits @ 20°C.5) Applied Volt-Time product (V-uS) across the inductor at 100kHz necessary to generate a core loss equal to 10% of the total losses for 40°C temperature rise.Packaging InformationSD SeriesHigh Power Density,Low Profile,Shielded InductorsOCL vs Isat SD5201020304050607080901000102030405060708090100110120130140% of IsatO C L (%)RolloffDC Current vs.TemperatureIdc (A)T e m p e r a t u r e R i s e (D e g . C)0.00.5 1.0 1.5 2.0 2.5 3.0 3.5 4.0Idc (A)T e m p e r a t u r e R i s e (D e g . C )Visit us on the Web at 3601 Quantum Boulevard Boynton Beach, Florida 33426-8638T el:+1-561-752-5000 T oll Free:+1-888-414-2645 Fax:+1-561-742-1178This bulletin is intended to present product design solutions and technical information that will help the end user with design applications. Cooper Electronic Technologies reserves the right, without notice, to change design or construction of any products and to discontinue or limit distribution of any products. Cooper Electronic Technologies also reserves the right to change or update, without notice, any technical information contained in this bulletin. Once a product has been selected, it should be tested by the user in all possible applications.PM-4311 1/03© Cooper Electronic Technologies 2003。

QSG_LG_IPX-Series_CN说明书

IPX SeriesCompact 2,400/1,200 Watt 2-Channel DSP Controlled Power Amplifier V 1.0介绍Lab.gruppen IPX 系列放大器提供极高的功率密度和强大的集成 DSP 功能，使其适用于广泛的固定式和巡回音响应用。

所有 IPX 系列放大器都具有模拟和 AES3 输入和链接输出；输入混合；全面的 DSP 功能（分频器、参数均衡器、延迟和限幅器控制）；通过屏蔽 Cat-5 电缆上的以太网或使用合适的 WiFi 接入点进行网络控制；IPX 控制器软件和 iPad 原生应用程序；全面的前面板显示和专用静音按钮；以及接线柱和 Neutrik speakON 输出连接器。

本快速入门指南中包含的信息足以正确安装 IPX 系列放大器以及典型应用中的设置配置。

有关复杂安装的维护、冷却要求、保修和配置的详细信息，请参阅完整的操作手册。

除非特别注明， IPX 1200 和 IPX 2400 的所有特性、值和连接都是相同的。

开箱和目视检查每个 Lab.gruppen 放大器在出厂前都经过仔细测试和检查，并应完好无损地到达。

如果发现任何损坏，请立即通知承运商。

保存包装材料以供承运人检查和以后运输。

安装IPX 1200 – 机架耳到背板的深度为 336 毫米 (13.2 英寸)。

重量约为 5.3 千克 (11.7 磅)。

包括后支撑支架，建议在所有应用中使用。

IPX 2400 – 机架耳到背板的深度为 423 毫米 (16.7 英寸)。

重量约为 7 千克 (15.4 磅)。

包括后部支撑支架，建议在所有应用中使用。

冷却请确保每个放大器的前后都有足够的空间，以便空气自由流动。

放大器的前部或后部均不得安装门或盖。

放大器可以直接堆叠在彼此的顶部而没有间距，尽管一些间距可以使后部电缆的安装更方便。

工作电压所有 IPX 系列放大器都有一个通用电源，可在 50 或 60 Hz 的 100 – 240 V 电源上运行。

DELL刀片服务器使用手册

章 2. 初始系统配置....................................................................................................................23
开始之前................................................................................................................................................................23 初始设置顺序........................................................................................................................................................23 初始 CMC 网络配置..............................................................................................................................................23
பைடு நூலகம்
目录
注、小心和警告...........................................................................................................................2
章 1. 关于系统...............................................................................................................................7

MAX14878-MAX14880 高速传输接收器的中文名字说明书

General DescriptionThe MAX14878–MAX14880family of high-speed trans-ceivers improve communication and safety by integrating galvanic isolation between the CAN protocol controller side of the device and the physical wires of the network (CAN)bus.Isolation improves communication by breaking ground loops and reduces noise where there are large differences in ground potential between ports.The MAX14879provides up to2750V RMS(60s)of galvanic isolation,while the MAX14878/MAX14880provide up to 5000V RMS(60s)of galvanic isolation in8-pin and16-pin SOIC packages.All transceivers operate up to the maximum high-speed CAN data rate of1Mbps.The MAX14879/MAX14880fea-ture an integrated standby input(STB)on the isolated side of the transceiver to disable the driver and place the trans-ceiver in a low-power standby mode.The MAX14878does not include the standby input.The MAX14878–MAX14880transceivers feature integrat-ed protection for robust communication.The receiver input common-mode range is±25V,exceeding the ISO11898 specification of-2V to+7V,and are fault tolerant up to ±54V.Driver outputs/receiver inputs are also protected from±15kV electrostatic discharge(ESD)to GNDB on the bus side, as specified by the Human Body Model (HBM). Interfacing with CAN protocol controllers is simplified by the wide1.71V to5.5V supply voltage range(V DDA)on the controller side of the device.This supply voltage sets the interface logic levels between the transceiver and con-troller.The supply voltage range for the CAN bus side of the device is 4.5V to 5.5V (V DDB).The MAX14878–MAX14880are available in a wide-body 16-pin SOIC package with8mm of creepage and clear-ance.The MAX14878is also available in8-pin wide-body SOIC packages with5mm(MAX14878)and8mm (MAX14878W)creepage.All devices operate over the -40°C to +125°C temperature range.Applications●Industrial Controls●HVAC●Building Automation●Switching Gear Benefits and Features●Integrated Protection for Robust Communication• 2.75kV RMS, 3.5kV RMS, or 5kV RMS Withstand Isolation Voltage for 60s (Galvanic Isolation)•±25V Receiver Input Common-Mode Range•±54V Fault Protection on Receiver Inputs●High-Performance Transceiver Enables FlexibleDesigns•Wide 1.71V to 5.5V Supply for the CAN Controller Interface•Available 16-pin and 8-pin SOIC Package Pin Configurations•Data Rates up to 1Mbps (Max)•Dominant Timeout ProtectionSafety Regulatory Approvals●UL According to UL1577 (Basic Insulation) (16-PinPackage Devices Only)Ordering Information appears at end of data sheet.Click here to ask about the production status of specific part numbers.MAX14878–MAX14880 2.75kV, 3.5kV, and 5kV Isolated CANTransceiversSimplified Block DiagramAbsolute Maximum RatingsV DDA to GNDA.........................................................-0.3V to +6V V DDB to GNDB.........................................................-0.3V to +6V TXD to GNDA...........................................................-0.3V to +6V RXD to GNDA...........................................-0.3V to (V DDA+ 0.3V) STB to GNDB...........................................................-0.3V to +6V I.C. to GNDB.............................................-0.3V to (V DDB+ 0.3V) CANH or CANL to GNDB, (Continuous).................-54V to +54V Short-Circuit Duration (CANH to CANL).....................Continuous Short-Circuit Duration (RXD to GNDA or V DDA)........Continuous Continuous Power Dissipation (T A= +70ºC)16-pin W SOIC (derate 14.1mW/°C above +70°C)..1126.8mW 8-pin W SOICW8MS+1 (derate 9.39mW/°C above +70°C)........751.17mW W8MS+5 (derate 11.35mW/°C above +70°C)......908.06mW Operating Temperature Range.............................-40ºC to 125ºC Junction Temperature.......................................................+150ºC Storage Temperature Range..............................-60ºC to +150ºC Lead Temperature (soldering, 10s)...................................+300ºC Soldering Temperature (reflow)........................................+260ºCNOTE:See the Isolation section of the Electrical Characteristics table for maximum voltage from GNDA to GNDBStresses beyond those listed under “Absolute Maximum Ratings” may cause permanent damage to the device. These are stress ratings only, and functional operation of the device at these or any other conditions beyond those indicated in the operational sections of the specifications is not implied. Exposure to absolute maximum rating conditions for extended periods may affect device reliability.Package InformationFor the latest package outline information and land patterns (footprints), go to /packages. Note that a “+”, “#”, or “-” in the package code indicates RoHS status only. Package drawings may show a different suffix character, but the drawing pertains to the package regardless of RoHS status.Package thermal resistances were obtained using the method described in JEDEC specification JESD51-7, using afour-layer board. For detailed information on package thermal considerations, refer to / thermal-tutorial.Electrical Characteristics(V DDA=1.71V to5.5V,V DDB=4.5V to5.5V,T A=-40°C to+125°C,STB or I.C.=GNDB.Typical values are at T A=+25°C with GNDA = GNDB, V DDA= 3.3V, V DDB= 5V. (Notes 1, 2)PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITS POWERProtocol Controller Side(A-Side) Voltage SupplyV DDA 1.71 5.5V CAN Bus Side (B-Side)Voltage SupplyV DDB 4.5 5.5VV DDA Supply Current I DDA V DDA= 5V0.340.83mA V DDA= 3.3V0.340.76V DDA= 1.8V0.330.64V DDB Supply Current I DDB V DDB= 5V, TXD = GNDA,R L= open4.37.3mA V DDB= 5V, TXD = GNDA, R L= 60Ω47.667.3V DDB= 5V, TXD = V DDA, R L= 60Ω 3.2V DDB= 5V, CANH shorted to CANL,TXD = V DDA3.2V DDB= 5V, CANH shorted to CANL,TXD = GNDA94140V DDB= 5V, TXD = V DDA, R L= 60Ω,STB = V DDB(MAX14879/MAX14880)0.40.8V DDA UndervoltageLockout Threshold,RisingV DDAUVLO_R 1.66VV DDA Undervoltage-Lockout Threshold,FallingV DDAUVLO_F 1.3 1.55VV DDB Undervoltage-Lockout Threshold,RisingV DDBUVLO_R 4.25VV DDB Undervoltage-Lockout Threshold,FallingV DDBUVLO_F 3.45V CANH, CANL TRANSMITTERDominant Output Voltage V O(DOM)V TXD= 0V,R L= 50Ω to 65ΩCANH 2.75 4.5VCANL0.5 2.25Electrical Characteristics (continued)(V DDA=1.71V to5.5V,V DDB=4.5V to5.5V,T A=-40°C to+125°C,STB or I.C.=GNDB.Typical values are at T A=+25°C with GNDA = GNDB, V DDA= 3.3V, V DDB= 5V. (Notes 1, 2)PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITSDominant Differential Bus Output Voltage V OD(V CANH- V CANL),V TXD= 0V,R L= 50Ω to65Ω, Figure 1R CM is open 1.53V (V CANH- V CANL),V TXD= 0V,R L= 50Ω to65Ω, Figure 2R CM= 1.25kΩ,-17V < V CM<+17V1.53(V CANH- V CANL),V TXD= 0V,R L= 50Ω to65Ω, Figure 3RCM = 1.25kΩ,-25V < VCM <+25V1.13Recessive Voltage Output V ORV TXD= V DDA,No loadCANH23VCANL23Short-Circuit Current I SHORT V TXD= 0V CANH shorted toGNDB5075100mA CANL shorted toVDDB5075100Recessive Differential Bus Output Voltage V ODR(V CANH- V CANL),V TXD= V DDARL is open-500+50mVRL = 60Ω-120+12CANH/CANL OutputVoltage in Standby Mode V STBMAX14879/MAX14880 only,V TXD= V DDA, No load, STB = V DDB70175mVDC BUS RECEIVER (CANH and CANL externally driven)Common Mode Input Range V CMCANH or CANL toGNDB, RXDoutput validNormal operation-25+25VStandby mode(MAX14879/MAX14880 only)-12+12Differential Input Voltage V DIFF V TXD= V DDA Recessive0.5V Dominant, No load0.9Differential InputHysteresisV DIFF(HYST)125mVStandby Mode Differential Input Voltage MAX14879/MAX14880 only,V TXD= V DDA,V STB= V DDBRecessive0.45VDominant 1.15Common-Mode Input Resistance R INV TXD= V DDA, R IN= ΔV/∆I,∆V = +300mV, V STB= GNDB(MAX14879/MAX14880)1050kΩDifferential Input Resistance R IDV TXD= V DDA, R IN= ∆V/∆I,∆V = +300mV, V STB= GNDB(MAX14879/MAX14880)20100kΩInput Leakage Current I LKG V DDB= 0V, V CANH= V CANL= 5V310μA Input Capacitance C IN CANH or CANL to GNDB (Note 3)14.420pFElectrical Characteristics (continued)(V DDA=1.71V to5.5V,V DDB=4.5V to5.5V,T A=-40°C to+125°C,STB or I.C.=GNDB.Typical values are at T A=+25°C with GNDA = GNDB, V DDA= 3.3V, V DDB= 5V. (Notes 1, 2)PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITS Differential InputCapacitanceC IND CANH to CANL (Note 3)7.210pF LOGIC INTERFACE (RXD, TXD, STB)Input High Voltage V IH TXD 1.71V ≤ V DDA<2.25V0.75 xV DDAV 2.25V ≤ V DDA≤5.5V0.7 xV DDASTB (MAX14879/MAX14880 only)0.7 xV DDBInput Low Voltage V IL TXD, 1.71 ≤ V DDA< 2.25V0.7V TXD, 2.25V ≤ V DDA≤ 5.5V0.8STB (MAX14879/MAX14880 only)0.8Output High Voltage V OH RXD, I SOURCE= 4mA V DDA-0.4VOutput Low Voltage V OL RXD, I SINK= 4mA0.4V Input Pullup Current I PU TXD-10-5-1.5μA Input PulldownResistanceR PD STB (MAX14879/MAX14880 only)75250kΩInput Capacitance5pF PROTECTIONFault Protection Range CANH to GNDB, CANL to GNDB-54+54VESD Protection (CANH and CANL to GNDB)IEC 61000-4-2 Air-Gap Discharge±10kV IEC 61000-4-2 Contact Discharge±5Human Body Model±15ESD Protection (CANH and CANL to GNDA)IEC 61000-4-2 Contact Discharge±3kV IEC 61000-4-2 Air Gap Discharge, 330pFcapacitor connected between GNDA andGNDB±10ESD Protection (AllOther Pins)Human body model±2kV Thermal ShutdownThresholdTemperature rising+160°C Thermal ShutdownHysteresis13°CElectrical Characteristics - Switching(V DDA=1.71V to5.5V,V DDB=4.5V to5.5V,T A=-40°C to+125°C,STB or I.C.=GNDB.Typical values are at T A=+25°C with GNDA = GNDB, V DDA= 3.3V, V DDB= 5V, STB = GNDB.)PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITSDifferential Driver Output Rise Time t RR L= 60Ω, C L= 100pF, R CM isopen, Figure 120nsElectrical Characteristics - Switching (continued)(V DDA=1.71V to5.5V,V DDB=4.5V to5.5V,T A=-40°C to+125°C,STB or I.C.=GNDB.Typical values are at T A=+25°C with GNDA = GNDB, V DDA= 3.3V, V DDB= 5V, STB = GNDB.)PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITSDifferential Driver Output Fall Time t FR L= 60Ω, C L= 100pF, R CM isopen, Figure 133nsTXD to RXD Loop Delay t LOOP R L= 60Ω, C L= 100pF,C RXD= 15pF, Dominant to recessive andrecessive to dominant. Figure 2210nsTXD Propagation Delay t PDTXD_RDR L= 60Ω,C L= 100pF,R CM open,Figure 1Recessive toDominant95ns t PDTXD_DRR L= 60Ω,C L= 100pF,R CM open,Figure 2Dominant toRecessive95RXD Propagation Delay t PDRXD_RDC L= 15pF,Figure 3Recessive toDominant115ns t PDRXD_DRC L= 15pF,Figure 4Dominant toRecessive115TXD Dominant Timeout t DOM(Note 4) 1.4 4.8msUndervoltage Detection Time to Normal Operation t UV(VDDA),t UV(VDDB)110230μsWake-up Time to Dominant State t WAKEMAX14879/MAX14880 only, Instandby mode (V STB= V DDB), Figure 40.55μsStandby Propagation Delay MAX14879/MAX14880 only, RXD,Dominant to recessive, V STB= V DDB,C L= 15pF285500nsStandby to NormalMode Delayt EN MAX14879/MAX14880 only40μsNormal to Standby Dominant Mode Delay MAX14879/MAX14880 only,(V CANH- V CANL) > 1.2V65μsElectrical Characteristics–Package Insulation and Safety Related Specifications: W 16-SOIC(V DDA=1.71V to5.5V,V DDB=4.5V to5.5V,T A=-40°C to+125°C,STB or I.C.=GNDB.Typical values are at T A=+25°C with GNDA = GNDB, V DDA= 3.3V, V DDB= 5V, STB = GNDB.) (Note 5)PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITS Insulation Resistance RIO T A= 25°C, V IO= 500V>1012ΩBarrier Capacitance C IO GNDA to GNDB2pF Minimum CreepageDistanceCPG8mm Minimum ClearanceDistanceCLR8mm Internal Clearance Distance through insulation0.015mmElectrical Characteristics–Package Insulation and Safety Related Specifications: W 16-SOIC (continued)(V DDA=1.71V to5.5V,V DDB=4.5V to5.5V,T A=-40°C to+125°C,STB or I.C.=GNDB.Typical values are at T A=+25°C with GNDA = GNDB, V DDA= 3.3V, V DDB= 5V, STB = GNDB.) (Note 5)PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITS Comparative TrackingIndexCTI550Electrical Characteristics–Package Insulation and Safety Related Specifications: W 8-SOIC(V DDA-V GNDA=1.71V to5.5V,V DDB-V GNDB=1.71V to5.5V,C L=15pF,T A=-40°C to+125°C,unless otherwise noted.Typical values are at V DDA- V GNDA= 3.3V, V DDB- V GNDB= 3.3V, GNDA = GNDB, T A= 25°C, unless otherwise noted.) (Notes 2,3) PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITS Insulation Resistance RIO T A= 25°C, V IO= 500V> 1012ΩBarrier Capacitance C IO GNDA to GNDB2pFMinimum Creepage Distance CPGMAX14878 5.5mm MAX14878W8Minimum Clearance Distance CLRMAX14878 5.5mm MAX14878W8Internal Clearance Distance through insulation0.015mm Comparative TrackingIndexCTI>400Electrical Characteristics–Insulation Characteristics (As Defined by VDE 0884-10): W 16-SOIC(V DDA=1.71V to5.5V,V DDB=4.5V to5.5V,T A=-40°C to+125°C,STB or I.C.=GNDB.Typical values are at T A=+25°C with GNDA = GNDB, V DDA= 3.3V, V DDB= 5V, STB = GNDB.) (Note 5)PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITSPartial Discharge V PR Method B1 =V IORM x 1.875(t = 1s, partialdischarge < 5pC)MAX148791182V PMAX14878/MAX148802250Maximum Repetitive Peak Voltage V IORMMAX14879630V P MAX14878/MAX148801200Maximum Working Voltage V IOWMGNDA to GNDBcontinuousMAX14879445V RMSMAX14878/MAX14880848Maximum Transient Overvoltage V IOTMMAX148794600V P MAX14878/MAX148808400Isolation Voltage V ISO GNDA to GNDB for60sMAX14879 2.75kV RMSMAX14878/MAX148805Electrical Characteristics–Insulation Characteristics (As Defined by VDE 0884-10): W 16-SOIC (continued)(V DDA=1.71V to5.5V,V DDB=4.5V to5.5V,T A=-40°C to+125°C,STB or I.C.=GNDB.Typical values are at T A=+25°C with GNDA = GNDB, V DDA= 3.3V, V DDB= 5V, STB = GNDB.) (Note 5)PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITS Maximum SurgeIsolation VoltageV IOSM IEC 61000-4-5, Basic insulation10kV Barrier Resistance R S T A= +150°C, V IO= 500V>109ΩClimate Category 40/125/21Pollution Degree DIN VDE 0110, Table 12Electrical Characteristics–Insulation Characteristics: W 8-SOIC(V DDA=1.71V to5.5V,V DDB=4.5V to5.5V,T A=-40°C to+125°C,STB or I.C.=GNDB.Typical values are at T A=+25°C with GNDA = GNDB, V DDA= 3.3V, V DDB= 5V, STB = GNDB.) (Note 5)PARAMETER SYMBOL CONDITIONS MIN TYP MAX UNITSMaximum Repetitive Peak Voltage V IORMMAX14878630V P MAX14878W1200Maximum Working Voltage V IOWMGNDA to GNDBcontinuousMAX14878445V RMSMAX14878W848Maximum Transient Overvoltage V IOTMMAX148785000V P MAX14878W8400Isolation Voltage V ISO GNDA to GNDB for60sMAX14878 3.5kV RMSMAX14878W5Maximum SurgeIsolation VoltageV IOSM IEC 61000-4-5, Basic insulation10kV Barrier Resistance R S T A= +150°C, V IO= 500V>109ΩClimate Category 40/125/21Pollution Degree2Note 1:All devices 100% production tested at T A= +25°C. Specifications over temperature are guaranteed by design.Note 2:All currents into the device are positive.All currents out of the device are negative.All voltages referenced to their respective ground (GNDA or GNDB), unless otherwise noted.Note 3:Not production tested. Guaranteed at T A= +25°C.Note 4:The dominant timeout feature releases the bus when TX is held low longer than t DO.CAN protocol guarantees a maximum of11successive dominant bits in any transmission.The minimum data rate allowed by the dominant timeout,then,is11/ t DO(min).Note 5:All16-pin package devices are100%production tested for high voltage conditions(this does not apply to the8-pin MAX14878AWA).Typical Operating Characteristics(V DDA= 3.3V, V DDB= 5V, 60Ω load between CANH and CANL, T A= +25°C, unless otherwise noted.)Typical Operating Characteristics (continued)(V DDA= 3.3V, V DDB= 5V, 60Ω load between CANH and CANL, T A= +25°C, unless otherwise noted.)Pin DescriptionPINNAME FUNCTIONREFSUPPLYTYPEMAX14878 16-PIN MAX148788-PINMAX14879,MAX14880CONTROLLER SIDE (A-SIDE)131V DDA Power Supply Input for theController Side/A-Side. BypassV DDA to GNDA with 0.1μFcapacitor as close to the deviceas possible.V DDA Power2, 842, 8GNDA Controller Side/A-Side Ground V DDA Ground315RXD Receiver Output. RXD is highwhen the bus is in the recessivestate. RXD is low when the bus isin the dominant state.V DDA Digital Output4, 5, 7-4, 6, 7N.C.No Connection. Not internally connected. Connect to GNDA, V DDA, or leave unconnected.623TXD Transmit Data Input. CANH andCANL are in the dominant statewhen TXD is low. CANH andCANL are in the recessive statewhen TXD is high.V DDA Digital InputCAN BUS SIDE (B-SIDE)9, 1559, 15GNDB CAN Bus Side/B-Side Ground V DDB Ground10, 14-10I.C.Internally Connected. Connect to GNDB or leave unconnected.11-11I.C Internally Connected. Connect to GNDB, V DDB, or leave unconnected.12612CANL Low-Level CAN Differential BusLineV DDBDifferentialI/O13713CANH High-Level CAN Differential BusLineV DDBDifferentialI/OPin Description (continued)PINNAME FUNCTIONREFSUPPLYTYPEMAX14878 16-PIN MAX148788-PINMAX14879,MAX14880--14STB Standby Input, Active High. DriveSTB high to disable the CAN busdriver and place the transceiverin low-power standby mode.Drive STB low for normaloperation.V DDB Digital Input16816V DDB Power Supply Input for the CANBus Side/B-Side. Bypass V DDBto GNDB with a 0.1μF capacitoras close to the device aspossible.V DDB PowerDetailed DescriptionThe MAX14878–MAX14880isolated controller area network(CAN)transceivers provide2750V RMS or5000V RMS(60s) of galvanic isolation between the cable side(B-side)of the transceiver and the controller side(A-side).These devices allow up to1Mbps communication across an isolation barrier when a large potential exists between grounds on each side of the barrier.CANH and CANL outputs are short-circuit current limited and are protected against excessive power dissipation by thermal shutdown circuitry that places the driver outputs in a high-impedance state.IsolationData isolation is achieved using integrated capacitive isolation that allows data transmission between the controller side and cable side of the transceiver.Fault ProtectionThe MAX14878–MAX14880feature±54V fault protection on the CANH and CANL bus lines.When CANH or CANL is pulled above+30V(typ)or below-30V(typ),the I/O is set to high impedance.This wide fault protection range simplifies selecting external TVS components for surge protection.TransmitterThe transmitter converts a single-ended input signal(TXD)from the CAN controller to differential outputs for the bus lines (CANH, CANL). The truth table for the transmitter and receiver is given in Table 1.Transmitter Dominant TimeoutThe MAX14878–MAX14880feature a transmitter-dominant timeout(t DOM)that prevents erroneous CAN controllers from clamping the bus to a dominant level by maintaining a continuous low TXD signal.When TXD remains in the dominant state (low) for greater than t DOM, the transmitter is disabled, releasing the bus to a recessive state (Table 1).After a dominant timeout fault, normal transmitter function is re-enabled on the rising edge of a TXD.The transmitter-dominant timeout limits the minimum possible data rate to 9kbps for standard CAN protocol.Driver Output ProtectionThe MAX14878–MAX14880feature integrated circuitry to protect the transmitter output stage against a short-circuit to a positive or negative voltage by limiting the driver current.The transmitter returns to normal operation once the short is removed.Thermal shutdown further protects the transceiver from excessive temperatures that may result from a short by setting the transmitter outputs to high impedance when the junction temperature exceeds+160°C(typ).The transmitter returns to normal operation when the junction temperature falls below the thermal shutdown hysteresis.ReceiverThe receiver reads the differential input from the bus(CANH,CANL)and transfers this data as a single-ended output (RXD)to the CAN controller.During normal operation,a comparator senses the difference between CANH and CANL, V DIFF=(V CANH-V CANL),with respect to an internal threshold of0.7V(typ).If V DIFF>0.9V,a logic-low is present on RXD. If V DIFF< 0.5V, a logic-high is present.The CANH and CANL common-mode range is±25V.RXD is logic-high when CANH and CANL are shorted or terminated and undriven.Thermal ShutdownIf the junction temperature exceeds+160°C(typ),the device is switched off.During thermal shutdown,CANH and CANL are high-impedance and all IC functions are disabled.The transmitter outputs are re-enabled and the device resumes normal operation when the junction temperature drops below 147°C (typ).Table 1. Transmitter and Receiver Truth Table When Not Connected to the Bus TXD TXD LOW TIME CANH CANL BUS STATE RXD LOW< t DOM HIGH LOW DOMINANT LOW LOW> t DOM V DDB/2V DDB/2RECESSIVE HIGH HIGH X V DDB/2V DDB/2RECESSIVE HIGHApplications InformationReduced EMI and ReflectionsIn multidrop CAN applications,it is important to maintain a single linear bus of uniform impedance that is properly terminated at each end. A star configuration should never be used.Any deviation from the end-to-end wiring scheme creates a stub.High-speed data edges on a stub can create reflections back down the bus.These reflections can cause data errors by eroding the noise margin of the system.Although stubs are unavoidable in a multidrop system,care should be taken to keep these stubs as short as possible,especially when operating with high data rates.Typical Operating CircuitOrdering InformationPART NUMBER ISOLATION VOLTAGE (kV RMS)STANDBY OPERATING TEMPERATURE PACKAGE MAX14878AWA+ 3.5NO-40°C to +125°C W 8-SOIC MAX14878AWA+T 3.5NO-40°C to +125°C W 8-SOIC MAX14878AWE+5NO-40°C to +125°C W 16-SOIC MAX14878AWE+T5NO-40°C to +125°C W 16-SOIC MAX14878WAWA+5NO-40°C to +125°C W 8-SOIC MAX14878WAWA+T5NO-40°C to +125°C W 8-SOIC MAX14879AWE+ 2.75YES-40°C to +125°C W 16-SOIC MAX14879AWE+T 2.75YES-40°C to +125°C W 16-SOIC MAX14880AWE+5YES-40°C to +125°C W 16-SOIC MAX14880AWE+T5YES-40°C to +125°C W 16-SOICRevision HistoryREVISION NUMBER REVISIONDATEDESCRIPTIONPAGESCHANGED06/17Initial release—18/17Updated parameters in Electrical Characteristics table and added Typical Operating Circuit7, 14 210/17Corrected the Pin Description section for internally connected pins; updated Figure 29, 12 33/18Updated the Safety Regulatory Approvals section1 46/18Updated Pin Description table1253/19Updated the General Description, Benefits and Features, Package Information, Electrical Characteristics, Pin Configuration, and Pin Description to add a Wide 8-Pin SOIC package;added MAX14878AWA+ and MAX14878AWA+T to the Ordering Information table1, 3, 8,12, 1465/19Updated the General Description, Benefits and Features, Safety Regulatory Approvals,Electrical Characteristics–Package Insulation and Safety Related Specifications: W 8-SOIC, Electrical Characteristics–Insulation Characteristics (As Defined by VDE 0884-10): W16-SOIC, Electrical Characteristics–Insulation Characteristics: W 8-SOIC, and OrderingInformation sections1–16709/20Updated the General Description, Absolute Maximum Ratings, Package Information,Electrical Characteristics–Package Insulation and Safety Related Specifications: W 8-SOIC,Electrical Characteristics–Insulation Characteristics: W 8-SOIC, and Ordering Informationsections1, 3, 8-9,19For pricing, delivery, and ordering information, please visit Maxim Integrated’s online storefront at https:///en/storefront/storefront.html. Maxim Integrated cannot assume responsibility for use of any circuitry other than circuitry entirely embodied in a Maxim Integrated product. No circuit patent licenses are implied. Maxim Integrated reserves the right to change the circuitry and specifications without notice at any time. The parametric values (min and max limits) shown in the Electrical Characteristics table are guaranteed. Other parametric values quoted in this data sheet are provided for guidance.。

JUMO eTron M100

电位器 10...3500 Ω
用户定义表格 1
0,075% (±2,6Ω),100ppm/K
= 0Ω
是
测量电流对于 Pt100: 2 mA, 对于 Pt1000, KTY2X-6, KTY1X-6 和电位器 0,2 mA
导线电阻补偿可通过设置导线电阻补偿参数
和
来实现
探头导线电阻 ( 探头电阻 + 补偿设置值 ) 对于 Pt100: 314Ω, 对于 Pt1000: 3140Ω, 对于 KTY2x-6: 2235 Ω 对于 KTY1x-6: 3400Ω 如上电阻值都为
附加选项 2
x
0 不使用
x
1 通讯接口 RS485
x
2 数据记录 , 实时时钟和通讯接口 RS485
(3) 电源
x
31 AC/DC 12 ... 24V +15/-15 %, 48 ... 63Hz
(4) 可选附件
x
000 不带温度探头 Pt 100
x
236 2 温度探头 Pt 100 (Ø: 6mm, 安装深度 : 50mm, 连接电缆 : 1500mm)
是
是
PTC
Pt 1000 DIN EN 60751 KTY1X-6
-200 … +600°C -50 ... +100 °C
0,05% (±0,4°C),100ppm/K 0,5% (±0,75°C),100ppm/K
是
是
是
是
KTY2X-6
-50 ... +150 °C
0,5% (±1°C), < 100ppm/K
电气数据
数据备份
电气连接
电磁兼容性干扰辐射抗干扰性

GR47-48中文技术手册

ＧＲ４７／ＧＲ４８技术说明书Ｓｏｎｙ　Ｅｒｉｃｓｓｏｎｗｗｗ．ｕｓｓｔｉｎｆｏ．ｃｏｍ1 引言1.1 概述GR47/GR48 是属于 Sony Ericsson 新一代的移动通信 GSM 模块。

本文分别描述900/1800 MHz 和 850/1900 MHz 双波段 GSM 产品 GR47/48 的主要特征和功能。

它们预期使用在机机(machine-to-machine)和人机(man-to-machine)应用中，适合需要发送和接收数据（SMS, CSD, HSCSD, GPRS）的地方，也可以通过 GSM 网络语音呼叫。

GR47/GR48 模块是商业到商业(business-to-business)产品，预期对象是生产商、系统集成商、应用开发者的无线通信解决方案。

模块预期集成到系统集成商的应用内，和构成无线通信系统外部应用。

外部应用的一个典型系统是模块通过串行接口与微处理器通信。

微处理器控制模块，借助于 AT 命令支持完成。

设想系统集成商有高技术知识和能力把模块集成进系统。

以下是GR47/GR48 模块一些有用的应用。

• 车队和财物管理。

• 自动售货机。

• 安全与报警。

• 其它遥感勘测应用。

1.2 特点模块完成电信服务 (TS) 按照 GSM 标准 2+，ETSI 和 ITU-T。

模块功能由 AT 命令通过串行接口实现。

支持第 5 节列出的 AT 命令，更多的定义在 GSM 7.05/7.07 和GR47/GR48 的综合手册里。

1.2.1 移动站类型GR4X 家属是常规的双波段 MS 类型，有下列特性。

GR47GSM 900E-GSM 900GSM 1800频率范围(MHz)TX: 880-915RX: 935-960TX: 880-890RX: 925-935TX: 1710-1785RX: 1805-1880频道间隔200 kHz200 kHz频道号173 载波 *8 (TDMA)GSM: 频道1 - 124E-GSM: 频道975 - 1023374 载波 *8 (TDMA)DCS: 频道512 - 885调制GMSK GMSKTX 相位精度< 5º RMS 相位误差(脉冲) < 5º RMS 相位误差(脉冲) 双向间隔45 MHz 95 MHz有天线接收灵敏度< - 102 dBm < - 102 dBm有天线发射机输出功率 4 类 2W (33 dBm) 1 类 1W (30 dBm)GSM 900 与 GSM 1800 之间自动变换２GR48GSM 850GSM 1900频率范围TX: 824-849RX: 869-894TX: 1850-1910RX: 1930-1990频道间隔200 kHz200 kHz频道号123 carriers *8 (TDMA) 载波GSM: Channels 128 to 251298 Carriers *8 (TDMA)PCS: Channels 512 to 810调制GMSK GMSKTX 相位精度< 5º RMS 相位误差(脉冲)< 5º RMS 相位误差(脉冲)双向间隔45 MHz80 MHz有天线接收灵敏度< - 102 dBm< - 102 dBm有天线发射机输出功率 5 类0.8 W (29 dBm) 1 类 1W (30 dBm)GSM 850 和 GSM 1900 之间自动变换1.2.2 SMS模块支持下列 SMS 服务：• 发送：MO，支持双 PDU 和文本模式。

涡轮 SM-RI-X

4
4
atm
4
8
atm
8
16
atm
4
8
atm
4
8
atm
8
16
atm
4
8
atm
4
8
压损 SM-RI-X涡轮流量计平
均压损是通过采用在大气压下相对密度为0.8的天然气介质，上、下游直管段长度分别为1D（D：流量计管径）测量而得。
高频信号（涡轮）高频信号（参比轮）
口径
DN50 2″
DN80 3″
SM-RI-X
气体涡轮流量计 DN50-600 用于贸易输送计量
应用场合
高、低压气体计量
简要介绍
Elster-Instromet的SM-RI-X型气体涡轮流量计是一款能经受苛刻使用条件的可靠耐用的流量计产品，几十年来的应用已充分证明其在气体流量计量方面具有高精度和使用可靠的特点。
Elster-Instromet的SM-RI-X型气体涡轮流量计以其优良的计量性能和长周期稳定性而成为专用计量设备，广泛应用于天然气贸易输送计量场合，如用于分输站和做为标准表使用。
壳体材质 GGG-40 (钢)
钢钢钢 GGG-40 (钢) 钢钢钢 GGG-40 (钢) 钢钢钢 GGG-40 (钢) 钢钢钢 GGG-40 (钢) 钢钢钢
钢钢钢钢
钢钢钢钢
钢钢钢钢
钢钢钢钢钢钢钢钢
深圳办事处电话：0755-83478895 传真：0755-83478896
Instromet
SM-RI-X：贸易计量用气体涡轮流量计
多功能计数器如图所示为SM-RI流量计上使用的耐

红旗泰(赫茨HZ)RF100系列通用经济型变频器说明书

适用电机 90KW 110KW 132KW 160KW 185KW 200KW 220KW 250KW 280KW 315KW
通用经济型 0.4KW 0.75KW 1.5KW 2.2KW 0.75KW 1.5KW 2.2KW 3.7KW 5.5KW 7.5KW 11KW 15KW 18.5KW 22KW 30KW
目录
安全注意事项： ……………………………………………………………………………2 一产品概况 ……………………………………………………………………………3
1.1 技术特性 ………………………………………………………………………3 1.2 变频器铭牌说明 ………………………………………………………………4 1.3 变频器型号说明 ………………………………………………………………4 1.4 变频器系列机型 ………………………………………………………………4 二安装接线 ……………………………………………………………………………6 2.1 变频器安装。……………………………………………………………………6 2.2 标准接线图 ……………………………………………………………………6 2.3 主回路端子及说明 ……………………………………………………………7 2.4 控制端子及说明 ………………………………………………………………7 三操作说明 ………………………………………………………………………8 3.1 面板结构说明 …………………………………………………………………8 3.2 按键说明 ………………………………………………………………………9 3.3 参数设置 ……………………………………………………………………10 3.4 数码管显示说明 ……………………………………………………………10 3.5 状态指示灯说明 ……………………………………………………………10 3.6 变频器各种状态 ……………………………………………………………10 四制动电阻及选型 …………………………………………………………………11 4.1 选型参考 ……………………………………………………………………11 4.2 连接方法 ……………………………………………………………………13 五变频器功能参数一览表 …………………………………………………………14 六变频器详细功能介绍 ……………………………………………………………22 七 RS485 通讯协议 …………………………………………………………………44 八故障代码及异常处理 ……………………………………………………………51 8.1 故障信息及排除方法 ………………………………………………………51 8.2 常见故障及处理方法 ………………………………………………………51 九变频器的保养维护与保修协议 …………………………………………………52

Exergen TAT-5000 S-TTL 肺活量测量设备使用说明书

Exergen TAT-5000S-TTL Supplemental Instructions for UseFor additional specifications, see GE Healthcare CARESCAPE™ V100 Vital Signs Monitor Operator's Manual, Section 12.method is proprietary. Laboratory testing protocol for laboratory accuracy available upon request.EMERGO EUROPE Prinsessegracht 20 2514 AP The Hague The Netherlands© 2021 Exergen CorporationDocument PN 818735 Rev 9/s1434READ ALL INSTRUCTIONS BEFORE USINGIntended Use: The Exergen TemporalScanner is a handheld infrared thermometer used by medical professionals for the intermittent measurement of human body temperature of people of all ages, by scanning the forehead skin over the temporal artery.Intended users are physicians, nurses, and nursing assistants at all levels who normally provide patient care. The thermometer provides a peak temperature reading from plural readings during the step of scanning. Electronic circuitry processes the measured peak temperature to provide a temperature display based on a model of heat balance relative to a detected arterial temperature, the electronic circuitry computing an internal temperature of the body as a function of ambient temperature (Ta) and sensed surface temperature. Training materials that are supplementary to this instruction manual are available at /s, and recommended for first time users.The TAT5000S series thermometers are used by medical professionals in clinical environments. Such medical professionals include physicians, nurses, nurses’ aides, patient care technicians, and others who are trained to take the temperature of patients. Clinical environments include areas where medical professionals are providing medical services for patients, including hospitals, outpatient clinics, primary care offices, and other settings where temperature is taken as part of patient care. Clinical environments include Emergency Medical Services environments.Additionally, the TAT5000S series thermometers are not for use aboard aircraft or near High Frequency Surgical Equipment or Radio Frequency shielded rooms, such as MRI (Magnetic Resonance Imaging) areas.When using the pro d uct, basic safety precautions should always be followed, including the following:∙Use this product only for its intended use as described in this manual.∙Do not take temperature over scar tissue, open sores, or abrasions.∙The operating environmental temperature range for this product is 60° to 104°F (15.5° to 40°C).∙Always store and transport this thermometer in a clean, dry place where it will not become excessively cold (-4°F/-20°C), or hot (122°F/50°C). Relative humidity 93% Maximum non-condensing, atmosphericpressure 50 kPa to 106 kPa.∙The thermometer is not shockproof. Do not drop it or expose it to electrical shocks.∙Do not autoclave. Please note cleaning procedures in this manual.∙Do not use this thermometer if it is not working properly, if it has been exposed to temperature extremes, damaged, been subject to electrical shocks or immersed in water.∙There are no parts that you can service yourself except for the battery, which you should replace when low by following the instructions in this manual. For service, repair, or adjustments, return yourthermometer to Exergen. Warning: No modification of this equipment is allowed.∙Never drop or insert any object into any opening, unless stated in this manual.∙If your thermometer is not used regularly, remove the battery to prevent possible damage due to chemical leakage.∙Follow the battery manufacturer’s recommendations or your hospital policy for the disposal of used batteries.∙Not suitable for use in the presence of flammable anesthetic mixtures.© 2021 Exergen Corporation page 2∙Communication cables for the TAT5000S that are field replaceable are specific to the model and patient monitor. Only compatible cables may be used, to maintain compliance of the TAT5000S thermometers with requirements for Emissions and Immunity.∙If the device fails to operate as described above, see the FAQ section of this manual. Additionally, ensure that you are not in the presence of electromagnetic disturbances.∙If you have any additional questions regarding use or care of the thermometer, please see or call customer service at (617) 923-9900.The product is internally battery powered and electrically isolated from earth.WARNING: Use of this equipment adjacent to or stacked with other equipment (otherthan TAT5000S compatible patient monitors) should be avoided because itcould result in improper operation. If such use is necessary, this equipmentand the other equipment should be observed to verify that they areoperating normally.WARNING: Use of accessories, transducers and cables other than those specified orprovided by the manufacturer of this equipment could result in increasedelectromagnetic emissions or decreased electromagnetic immunity of thisequipment and result in improper operation.WARNING: Portable RF communications equipment (including peripherals such asantenna cables and external antennas) should be used no closer than 30cm (12 inches) to any part of the TAT5000S thermometer, including cablesspecified by the manufacturer. Otherwise, degradation of the performanceof this equipment could result.SAVE THESE INSTRUCTIONS.© 2021 Exergen Corporation page 3© 2021 Exergen Corporationpage 4Care and Maintenance•Battery: A standard alkaline 9V battery provides approximately 15,000 readings. ** To replace, insert the end of a bent paper clip into thepinhole on the side of the unit to release the battery compartment door. Disconnect the old battery and replace with a new one in the same location. Replace the cover. Use only high quality alkaline batteries.•Handling: The Temporal Scanner is designed and built to industrial durability standards in order to provide long and trouble-free service. However, it is also a high precision optical instrument, and should be accorded the same degree of care in handling as you would provide other precision optical instruments, such as cameras or otoscopes.•Cleaning the case: The TemporalScanner case can be wiped down using a cloth dampened with 70%isopropyl alcohol. The industrial grade housing and design of the electronic components allow for completely safe cleaning with 70% isopropyl alcohol, but should not be immersed or autoclaved.•Cleaning the sensor lens: With normal use, the only maintenance required is to keep the lens on the end of the probe clean. It is made of special mirror-like, silicon infrared-transmitting material. However, dirt, greasy films or moisture on the lens will interfere with the passage of infrared heat and affect the accuracy of the instrument. Regularly clean the lens with a cotton swab dampened with an alcohol wipe. Use only light force for cleaning, to avoid damaging the lens. Water can be used to remove any residual film left by the alcohol. Do not use bleach or other cleaning solutions on the sensor lens. Use 70% isopropyl alcohol.CLEANING INSTRUCTIONS•Calibration: Factory calibration data is installed via a computer which communicates with the Temporal Scanner’s microprocessor. The instrument automatically self-calibrates each time it is turned on using this data, and will neverrequire recalibration. If readings are not correct, the instrument should be returned for repair. See the repair instructions below for the return process.Instructions for Fahrenheit or Celsius ConversionThe Temporal Scanner can be used in either °F or °C. The Temporal Scanner will come preset based on your preference at the time of purchase. To convert from one scale to the other, the only tool necessary is a small screwdriver.For °F/°C Conversion:• Insert the end of a bent paper clip into the pinhole on the side to release and remove the cover. Remove the battery from the compartment.• Locate the switch in the battery compartment (shown in the photo), and with the tip of the screwdriver, slide left or right to the desired scale.• Remove the screwdriver.•Replace battery and cover.RepairIf repair is required: • ContactExergenat(617)***************************************Materials Authorization (RMA) Number.• Mark the RMA number on the outside of your package and packing slips. • Include a description of the fault if possible. •Send theinstrument to:Exergen Corporation 400 Pleasant Street Watertown, MA 02472 USA •Include the address the instrument should be returned to.pinholeF/C switchFAQsHow does the temperature from a temporal scanner relate to core temperature?Temporal artery temperature is considered a core temperature because it has been demonstrated as accurate as the temperature measured by a pulmonary artery and esophageal catheter, and as accurate as a rectal temperature on a stable patient. Rule of thumb: Rectal temperature is about 1°F (0.5°C) higher than an oral temperature and 2°F (1°C) higher than an axillary temperature. It will be easy to remember if you think of core temperature as a rectal temperature, and apply the same protocol you would use for a rectal temperature.If your thermometer is marked Arterial/Oral and has a serial number beginning with “O” (standard model start with “A”), it is programmed to compute the normal average cooling effect at the mouth, and automatically reduces the higher arterial temperature by that amount. This calibration allows the hospital to maintain existing protocols for fever workups based on oral temperature, and results in a reading consistent with the 98.6°F (37°C) mean normal oral temperature, in the range of 96.6 - 99.5°F (35.9 - 37.5°C).What should I do if I get an abnormally high or low reading, how do I confirm my reading?• Repeat the reading with the same Temporal Scanner; a correct reading will be reproducible.• Repeat the reading with another Temporal Scanner. Two Temporal Scanners with the same reading will confirm the reading.• Sequential readings on the same patient in rapid succession will cool the skin; it is best to wait about 30 seconds for theskin to recover from the cold probe.Possible causes of abnormal readings.DISPLAY DIAGNOSTICS CHARTThe following chart summarizes the conditions that may occur while© 2021 Exergen Corporation page 5© 2021 Exergen Corporation page 6© 2021 Exergen Corporation page 7© 2021 Exergen Corporation page 8。

NETGEAR G54 N150 无线路由器 WNR1000 说明书

Performance & UseThe NETGEAR Difference - WNR1000Overview• G54 & N150 WiFi Speed• Wirelessly share an Internet connection• Ideal for web, email, & social networking • Vertical stand for flexible placement• NETGEAR ® genie ®• Live Parental Controls• Faster N150 WiFi speed—works with 802.11gG54/N150 Wireless RouterData Sheet WNR1000The NETGEAR G54/N150 Wireless Router (WNR1000) offers a simple and secure way to share your Internet connection for web, email and social networking. This router delivers good wireless speeds of up to 150 Mbps and is a good router for small to medium-sized homes. And, the WNR1000 is backward compatible with Wireless-G (G54) networks for a hassle-free connection. TheWNR1000 includes features such as Live Parental Controls for safer web surfing on connected devices and NETGEAR genie ® home network manager for easy installation and home network management.• Home network manager• Makes any printer AirPrint ® compatible to print from an iPad ® or iPhone ®• MyMedia ™—Find & play media files in your network• EZ Mobile connect—Scan QR code to connect to your home network • For PC, Mac ®, iPhone ®, iPad ®, & Android ™ devicesNETGEAR genie ® Home Networking SimplifiedG54/N150 Wireless RouterData Sheet WNR1000Relive memories and share them with others. Find photos, videos and music stored on a shared USB hard drive. If it's secure and shared storage access you want NETGEAR has easy ways to do it.SharingWiFi RangeWIRELESS-G/N —Email, chat, surf, m usic, videoRANGE—For small to medium-sized homesGood WiFi Range Share & stream your movies, music, photos Homes come in all shapes and sizes. The NETGEAR G54/N150 Wireless Router provides good WiFi connectivity throughout your home for your Internet enabled devices.G54/N150 Wireless RouterData Sheet WNR1000NETGEAR makes it easy to do more with your digital devices. Manage your network with genie ® App—a personal, icon-based dashboard that can control and monitor all your devices. Or, use Push ‘N’ Connect to add devices to your WiFi network with a push of a button. And the simple browser-based installation with no CD makes router installation easy using an iPad, tablet, smartphone, or computer.Keep your Internet browsing experience safe and secure with the free parental controls. It allows you to limit access to certain web sites at certain times. For example no social networking or gaming site access after dinner time. Guest networks create a completely separate WiFi network for your guests’ devices so they do not have accessto your home network or to the shared USB hard drive with all your personal data. Secure WiFi connections offer high level WPA/WPA2 security.With the G54/N150 Wireless Router create a good home network for applications such a fast reliable connection to the Internet and a secure wireless connection.Ease Of UseSecurityApplicationsEASY INSTALL—Easy setup for iPad ®, tablets, smartphones & computersPARENTAL CONTROLS—Safer web surfing for all your connected devicesEMAIL, CHAT, SURF, MUSIC, VIDEO—Enjoy a fast, reliable and secure wireless connection to the InternetNETGEAR GENIE ® APP—Personal dashboard to monitor, control & repair your home networkGUEST NETWORK ACCESS—Separate & secure access for guests PUSH ‘N’ CONNECT —Easy push button WiFi connections (WPS) SCHEDULED WIFI ON/OFF—Conveniently program access timesand conserve up to 30% of powerSECURE WIFI CONNECTIONS—High level wireless security with WPA/WPA2Simple network management Safeguard your network Ideal UsesG54/N150 Wireless RouterData Sheet WNR1000Connection DiagramInternetPower Reset/WPSFast Ethernet*24/7 basic technical phone support provided for 90 days from purchase date when purchased from a NETGEAR authorized reseller.†Maximum wireless signal rate derived from IEEE standard 802.11 specifications. Actual data throughput and wireless coverage will vary. Network conditions and environmentalfactors, including volume of network traffic, interference, and building construction may lower actual data throughput and wireless coverage. NETGEAR makes no express or implied representations or warranties about this product’s compatibility with any future standards.‡This product comes with a limited warranty that is valid only if purchased from a NETGEAR authorized reseller. For full warranty details, please go to /about/warranty.NETGEAR, the NETGEAR Logo, ReadySHARE, and NETGEAR genie, are trademarks and/or registered trademarks of NETGEAR, Inc. and/or subsidiaries in the United States and/or other countries. Other brand names mentioned herein are for identification purposes only and may be trademarks of their respective holder(s). Information is subject to change without notice. ©2016 NETGEAR, Inc. All rights reserved.NETGEAR,Inc.350E.PlumeriaDrive,SanJose,CA95134-1911USA,1-888-NETGEAR(638-4327),E-mail:****************,D-WNR1000v4-2G54/N150 Wireless RouterData Sheet Package Contents• G54/N150 Wireless Router (WNR1000v4)• Stand• Quick Install Guide • Ethernet cable • Power adapterPhysical Specifications• Dimensions: 172.74 x 139.98 x 34.6 mm(6.8 x 5.5 x 1.36 in)• Weight: 242 g (0.534 lb)Warranty• F or warranty details visit/about/warrantySupport• 24/7 basic technical phone support for 90 days from date of purchaseTechnical Specifications• G 54/N150 WiFi Speed• S upports Wireless Multimedia (WMM) based QoSStandards• IEEE 802.11 b/g 2.4GHz with 11n features• F ive (5) 10/100 (1 WAN and 4 LAN) Ethernet portswith auto-sensing technologySystem Requirements• B roadband (cable, DSL) modem with Ethernet port • 802.11 b/g/n 2.4GHz wireless adapter or Ethernet adapter and cable for each computer •M icrosoft ® Windows ® 7, 8, Vista ®, XP, 2000, Mac ® OS, UNIX ®, or Linux ®•M icrosoft ® Internet Explorer ® 5.0, Firefox ® 2.0 or Safari 1.4 or higher• U se with an N150 Wireless USB Adapter (WNA1100 or WNA1000M) for maximum performance Security• W i-Fi Protected Access ® (WPA/WPA2—PSK) and WEP• D ouble firewall protection (SPI and NAT firewall)• D enial-of-service (DoS) attack preventionWNR1000。

RF设备技术规范说明书

Technical SpecificationSpecificationsRF UpstreamFrequency Range (MHz)5 to 85 (5 to 65 with Software Release 1.0)ModulationQPSK, 8 QAM, 16 QAM, 32 QAM, 64 QAM (No 8 QAM Support in Software Release 1.0)Channel TypeTDMA, ATDMA, TDMA/ATDMA, SCDMA (No SCDMA Support in Software Release 1.0)Data Rate (Mbps) (Max.)30.72 per channel RF Input Level (dBmV)-16 to +29Frequency Resolution (KHz)< 1Symbol Rate (Ksym/sec)160, 320, 640, 1280, 2560, 5120Bandwidth per Channel (MHz)0.2, 0.4, 0.8, 1.6, 3.2, 6.4PhysicalPower-48 V DC (-40 to -72 V DC )Power Consumption170 W nominal and TBD W max at -48 V DC , 77°F (25°C)Operating Temperature :Short Term °F (°C)+23 to +131 (-5 to +55)Long Term °F (°C)+41 to +104 (+5 to +40)Storage Temperature °F (°C)-40 to +158 (-40 to +70)Operating Humidity (Min.-Max.)5 to 85% (Non condensing)Dimensions (H x W x D) in. (cm)13.8 x 1.2 x 17. 8 (35.0 x 3.0 x 45.3) Weight lbs. (kg)approx. 4.6 (2.1)Support with Software Release 1.0 (Partial Feature List)Upstream CAM Flexible Mapping of Upstream Channels to RF Connectors Up to 12 Upstream Channels per RF Connector 24 RF (MCX) Connectors per Physical Interface Card (PIC)Up to 5+1 RF Sparing BPI/BPI+ Support DOCSIS ®3.0 Multicast IP Video Support via IGMPv3 Control IPv6 Features Cable modem management Dual-Stack CPE IS-IS Routing with Multi-topology support Cable Source Verify with DHCP Lease Query Route Injection (RI) for DHCPv6 Prefix Delegation OSPFv3Prefix Stability Distribute Lists TFTP Enforce / Dynamic Shared Secret DS and US Subscriber Management FiltersPolicy-Based RoutingDOCSIS 3.0 24 Channel Bonding (Downstream)DOCSIS 3.0 Four Channel Bonding (Upstream)IS-IS, BGPv4PacketCable™ Multimedia SupportDynamic Cable Modem Load BalancingSII Lawful Intercept (RFC 3924)802.1Q VLAN taggingExtended ACLs & Named ACLsSecure Shell v2 (SSHv2)DOCSIS PingDHCP Relay Agent (Option 82)DNS ClientTFTP Enforce and Dynamic Shared SecretBSoD L2 VPNBPI+ EnforceIPDR/SPContinued on the next page…E6000™Converged Edge Router (CER)Upstream Cable Access Module (UCAM) Technical SpecificationsARRIS Technical SpecificationsOrdering InformationPart Number DescriptionUCAM Kits799008E6000 CER 48 US UCAM Kit (Active) -1 UCAM, Active UCAM PIC, and 48 DOCSIS US Licenses801026E6000 CER 48 US UCAM Kit (Spare) -1 UCAM, Spare UCAM PIC, and 48 DOCSIS US Licenses802221E6000 CER 96 US UCAM Kit (Active) -1 UCAM, Active UCAM PIC, and 96 DOCSIS US Licenses802222E6000 CER 96 US UCAM Kit (Spare) -1 UCAM, Spare UCAM PIC, and 96 DOCSIS US LicensesLicense Bundles801062E6000 CER 48 DOCSIS US License BundleMaintenance Plan (required)801169E6000 Software Maintenance –Phone Plus GoldSpecifications are subject to change without notice.The capabilities, system requirements and/or compatibility with third-party products described herein are subject to change without notice. ARRIS, the ARRIS logo,Auspice®, BigBand Networks®, BigBand Networks and Design®, BME®, BME 50®, BMR®, BMR100®, BMR1200®, C3™, C4®, C4c™, C-COR®, CHP Max5000®,ConvergeMedia™, Cornerstone®, CORWave™, CXM™, D5®, Digicon®, E6000™, ENCORE®, EventAssure™, Flex Max®, FTTMax™, HEMi®, MONARCH®, MOXI®, n5®,nABLE®, nVision®, OpsLogic®, OpsLogic® Service Visibility Portal™, Opti Max™, PLEXiS®, PowerSense™, QUARTET®, Rateshaping®, Regal®, ServAssure™, ServiceVisibility Portal™, TeleWire Supply®, TLX®, Touchstone®, Trans Max™, VIPr™, VSM™, and WorkAssure™ are all trademarks of ARRIS Group, Inc. Other trademarks andtrade names may be used in this document to refer to either the entities claiming the marks and the names of their products. ARRIS disclaims proprietary interest inthe marks and names of others. © Copyright 2013 ARRIS Group, Inc. All rights reserved. Reproduction in any manner whatsoever without the express writtenpermission of ARRIS Group, Inc. is strictly forbidden. For more information, contact E6000UCAM_TS_20FEB13。

M100红外热像组件技术参数

接口
外部电源ቤተ መጻሕፍቲ ባይዱ入接口
有
通讯口
RS-232
模拟视频输出口
BNC(75Ω);支持两路RS170 CCIR/PAL复合视频
数字视频输出口（可定制）
16Bit(50Hz)
键盘
4按键键盘
专利无挡片技术，连续图像输出；小尺寸，重量轻；超低功耗；瞬时启动；
镜头
可选配
热像调节
极性反转
黑热/白热
图像镜像
水平/垂直
图像放大
X2，X4电子变倍
手动增益
可循环调整
自动增益
自动调整
电源
工作电压范围
DC: +2.2V～+5.5V
典型工作电压
DC: +3.6V
功耗
〈0.6W
反接保护
有
过欠压保护
有
环境参数
工作温度范围
-20℃～60℃（商用）；-40℃～60℃（特种用途）
非晶硅红外微测辐射热计(无TEC)
分辨率/像元间距
384x288/25um
灵敏度
≤80mk@ 300K,50HZ
帧频
50Hz
响应波段
8～14um
图像处理
非均匀性校正技术
采用NST专利无挡片技术
最短热成像时间
〈3秒
图像降噪
数字滤波
图像显示分辨率
768X576
图像帧频
50Hz(PAL) / 60Hz(NTSC)
M100红外热像组件技术参数
M100是一种无挡片﹑无TEC﹑高灵敏度、高可靠性的非制冷红外热成像仪。紧凑设计使其完全适合OEM组装和集成。M100具有多种配置，并且可选装多款镜头，几乎可以满足所有应用需求。最适合需要轻便、小型、低功耗低成本热成像机芯的应用场合。

TVS-1000系列温度和速度测量系统说明书

ߜ High Accuracy
ߜ Air Velocity and Temperature Measurements in One Sensor
ߜ Research Quality Results
seSmnhitsTioshnohwaisreannuftTpouasVprrcleilSetgiu-each1adcat0llhnw0ysd4ciillztahehserase.gontreinincereeksl.
C-23
TVS-1004 Kit, $3025, includes 4 calibrated sensors, scanner, analysis software, power cord and complete operator’s manual.
TVS-1132, $12,103, shown smaller than actual size.
TVS-1000 Series PC software with thermal analysis module.
MOST POPULAR MODELS HIGHLIGHTED!
To Order (Specify Model Number)
Model No.
Price Description
TVS-1004
TVS-1000-RP sensor, $281, shown actual size.
PCB components. These systems require a PC to operate and utilize the provided software for data acquisition and reporting.
6WDPIRUG &7
&$1$'$ ZZZRPHJDFD /DYDO 4XHEHF 7&20(*$