Honeywell CC-TAOX11 Analog Output Module 51308353-175 Rev C Rosemount PLC

Honeywell CC-TAOX11 Analog Output Module 51308353-175 Rev C Rosemount PLC
 
 

• HONEYWELL
• MEASUREX
• CC-TAOX11
• CC-TAOX11
• CONTROLLER I/O TERMINATION ASSEMBLY
• AVAILABLE
• REBUILT SURPLUS
• NEW SURPLUS
• REPAIR YOURS
• 24-48 HOUR RUSH REPAIR
• 2 - 15 DAY REPAIR
• 2 YEAR RADWELL WARRANTY

• Brand :Honeywell
• Quality:Original
• Use: DCS
• Custom processing: Yes
• Application:Petrochemical and other fields
• Professional to provide a Honeywell DCS card, integrity services, absolute guarantee is part of the original Honeywell new card, the scope of services involved S9000, plantscape, TDC2000 TDC3000 (US operation station), TPS (Gus operation station), PKS and Honeywell DCS distributed control system

 
OTHER SUPERIOR PRODUCTS

 
SIMILAR PRODUCTS
CC-PAIH01 HLAI - HART CC-GAIX11 GI/IS Analog Input, Redundant 
CC-PAIH01 HLAI - HART CC-GAIX21 GI/IS Analog Input, Non-Redundant 
CC-PAIH01 HLAI - HART CC-TAIX01 AI, Non-Redundant, Coated
CC-PAIH01 HLAI - HART CC-TAIX11 AI, Redundant, Coated
CC-PAIX01 HLAI CC-GAIX11 GI/IS Analog Input, Redundant 
CC-PAIX01 HLAI CC-GAIX21 GI/IS Analog Input, Non-Redundant 
CC-PAIX01 HLAI CC-TAIX01 AI, Non-Redundant, Coated
CC-PAIX01 HLAI CC-TAIX11 AI, Redundant, Coated
CC-PAIM01 AI - LLMUX CC-TAIM01 AI, Low Level Mux, Non-Redundant, Coated
CC-PAIM01 AI- LLMUX MC-TAMR04 LLMUX-RTD; SINGLE IOP INTERFACE;COMP TERM, Coated
CC-PAIM01 AI- LLMUX MC-TAMT04 LLMUX-TC; LOCAL CJR SINGLE IOP INTERFACE;COMP TERM, Coated
CC-PAIM01 AI- LLMUX MC-TAMT14 LLMUX-TC; LOCAL CJR SINGLE IOP INTERFACE;COMP TERM, Coated
CC-PAOH01 AO - HART CC-GAOX11 GI/IS Analog Output, Redundant 
CC-PAOH01 AO - HART CC-GAOX21 GI/IS Analog Output, Non-Redundant 
CC-PAOH01 AO - HART CC-TAOX01 AO, Non-Redundant, Coated
CC-PAOH01 AO - HART CC-TAOX11 AO, Redundant, Coated
CC-PAOX01 AO CC-GAOX11 GI/IS Analog Output, Redundant
CC-PAOX01 AO CC-GAOX21 GI/IS Analog Output, Non-Redundant 
CC-PAOX01 AO CC-TAOX01 AO, Non-Redundant, Coated
CC-PAOX01 AO CC-TAOX11 AO, Redundant, Coated
CC-PDIH01 DI - HV CC-TDI110 120 VAC Digital Input High Voltage, Non-Redundant
CC-PDIH01 DI - HV CC-TDI120 120 VAC Digital Input High Voltage, Redundant
CC-PDIH01 DI - HV CC-TDI220 240 VAC Digital Input High Voltage, Non-Redundant
CC-PDIH01 DI - HV CC-TDI230 240 VAC Digital Input High Voltage, Redundant
CC-PDIL01 DI - 24 CC-GDIL01 GI/IS Digital Input, Redundant 
CC-PDIL01 DI - 24 CC-GDIL11 GI/IS Digital Input, Redundant 
CC-PDIL01 DI - 24 CC-GDIL21 GI/IS Digital Input, Non-Redundant 
CC-PDIL01 DI - 24 CC-SDIL01 GI/IS Digital Input Expander 
CC-PDIL01 DI - 24 CC-TDIL01 24V DI, Redundant, Coated
CC-PDIL01 DI - 24 CC-TDIL11 24V DI, Redundant, Coated
CC-PDIS01 DI -SOE CC-TDIL01 24V DI, Redundant, Coated
CC-PDIS01 DI -SOE CC-TDIL11 24V DI, Redundant, Coated
CC-PDIS01 DI -SOE CC-GDIL01 GI/IS Digital Input, Redundant 
CC-PDIS01 DI -SOE CC-GDIL11 GI/IS Digital Input, Redundant 
CC-PDIS01 DI -SOE CC-GDIL21 GI/IS Digital Input, No-Redundant 
CC-PDIS01 DI -SOE CC-SDXX01 GI-1I I/O Expander 
CC-PDOB01 DO_24B CC-GDOL11 GI/IS Digital Output 
CC-PDOB01 DO_24B CC-SDOR01 Digital Output HV Relay Module
CC-PDOB01 DO_24B CC-TDOB01 Digital Output 24V, Bussed, Non-Redundant
CC-PDOB01 DO_24B CC-TDOB11 Digital Output 24V, Bussed, Redundant
CC-PDOB01 DO_24B CC-SDXX01 GI-1I I/O Expander 
CC-PFB401 FFB CC-TFB401 FIM4 Non-Redundant IO
CC-PFB401 FFB CC-TFB402 FIM4 Non-Redundant IO
CC-PFB401 FFB CC-TFB412 FIM4 Redundant IO

 

 

 

 

The tolerance of the REF5025 will produce gain errors in the ADC transfer function as shown in Equation ( 30 ). 100 500.25ppm 1 0.05% 0.05% 100 1 V V Gain ErrorV V 0.05% REF Tol REF Tol REF REF Tol           ( 30 ) In current mode, the shunt resistor is a 0.1% precision resistor which will also introduce gain error. The INL is typically specified in either number of ADC codes or in ppm FSR. Because INL is not a gain error, it must be multiplied by the full-scale input voltage of the ADC rather than VIN_MAX, as shown in Equation ( 31 ). In the +/-10 V Voltage mode, VIN_MAX range is 4V. 7.5ppm 4 V 3 0 μV INL Error (ppm) 3 0 μV V V 1 2 2.5V 1,000,000 6 ppm Gain 2 V 1,000,000 INL INL Error (V) ADC REF ADC          ( 31 ) Since the INA826, INA159 and ADS1248 errors are uncorrelated, a probable total TUE of the industrial input range of +/-10V output can be calculated by taking the root of the sum of squares (RSS) of their individual errors, as shown in Equation ( 32 ). V V V V 37 128 503 520ppm 2 2 2 2 ADS1248 2 INA159 2 TUE_PLC  INA826       ( 32 ) Multiply VTUE_PLC by the full-scale input range to calculate the total error in volts. For +/-10V output range, the output error voltage is 10.38mV as calculated in Equation ( 33 ). Verror_PLC  VFS * VTUE_PLC  20V* 520ppm 10.38mV ( 33 ) The total current error caused by INA826, INA159, ADS124

 

 

 

 

The PLC input circuit performance is based on the specifications of INA826, INA159 and ADS1248. Due to the high differential impedance of 20G Ω of the INA826, the offset caused by the input bias current flowing through the filter resistor is negligible. INL, offset voltage, gain error and CMRR of the INA826 at room temperature are displayed in Table 6. The gain for INA826 is 1, VOSI (Input stage offset voltage) and VOSO(output stage offset voltage) can be added together directly and get the final VOS as 240uV.