variable speed drive, Altivar Machine ATV340, 3kW, heavy duty, 400V, 3 phases, Ethernet

variable speed drive, Altivar Machine ATV340, 3kW, heavy duty, 400V, 3 phases, Ethernet

SQDATV340U30N4E ATV340U30N4E 3606480967016
1638.12 / EA
http://schema.org/OutOfStock
  • Country of Origin: Indonesia
This Altivar 340 variable speed drive can feed 3-phase synchronous and asynchronous motors in open and closed loop control. Altivar Machine ATV340 drives are sized heavy duty as standard. It works at a rated power up to 3kW / 3hp and a rated voltage from
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  • Product Description
  • Features
  • Specifications
This Altivar 340 variable speed drive can feed 3-phase synchronous and asynchronous motors in open and closed loop control. Altivar Machine ATV340 drives are sized heavy duty as standard. It works at a rated power up to 3kW / 3hp and a rated voltage from
  • Insulation Resistance
    • > 1 MOhm 500 V DC for 1 minute to earth
  • Environmental Class During Storage
    • class 1C3 according to EN 60721-3-1
    • class 1S2 according to EN 60721-3-1
  • Power Range
    • 2.2-3 kW 380-440 V 3 phase
    • 2.2-3 kW 480-500 V 3 phase
  • Connector Type
    • 1 x RJ45, Modbus serial on front face
    • 1 x RJ45, Modbus serial HMI on front face
    • 1 x RJ45, Modbus s
  • US Rated Supply Voltage
    • 380...480 V - 15...10 %
  • Input Output Type
    • programmable as logic input/output DQ1 0-1 kHz, <= 30 V DC, 100 mA
    • programmable as logic input/output DQ1 0-1 kHz, <= 30
  • Exchange Mode
    • half duplex, full duplex, autonegotiation Ethernet IP/Modbus TCP
  • CAD
    • https://download.schneider-electric.com/files?p_Doc_Ref=MCADID0005931_3D-CAD&p_File_name=MCADID0005931_3D-simplified.stp
    • https://download.schneider-electric.com/files?p_Doc_Ref=MCADID0005931_3D-CAD&p_File_name=mcadid0005931_3d-simplified_2D-back.dwg
  • Analogue Input Type
    • AI1 software-configurable current 0...20 mA 250 Ohm 12 bits
    • AI1 software-c
  • Continuous Output Current
    • 9.3 A 4 kHz normal duty
    • 7.2 A 4 kHz heavy duty
  • Prop 65
    • WARNING: This product can expose you to chemicals including: Lead and lead compounds, which is known to the State of California to cause cancer and birth defects or other reproductive harm. For more information go to www.P65Warnings.ca.gov
  • Analogue Output Type
    • software-configurable voltage AQ1 0...10 V DC 470 Ohm 10 bits
    • softwa
  • Carbon Footprint Of The Installation Phase A5
    • 0.8 kg CO2 eq.
    • 0.7761877631145165
  • Carbon Footprint Of The End Of Life Phase C1 To C4
    • 5.056873360601701
    • 5 kg CO2 eq.
  • Encoder Protocol
    • 1 Vpp
    • EnDat 2.2
    • resolver
    • RS 422
    • SSI 24V
    • SSI 5V
    • TTL/HTL
  • Discrete Input Type
    • PTI programmable as pulse input 0-30 kHz, 24 V DC 30 V)
    • PTI programmable as pulse inpu
  • Electrical Connection
    • screw terminal 1.5...4 mm² line side
    • screw terminal 4...6 mm² DC bus
    • screw terminal 1.5...4 mm² motor
    • screw terminal
  • Carbon Footprint Of The Manufacturing Phase A1 To A3
    • 78 kg CO2 eq.
    • 78.35013418938736
  • Method Of Access
    • slave Modbus RTU
    • slave Modbus TCP
  • Line Current
    • 8.6 A 380 V normal duty)
    • 6.8 A 480 V normal duty)
    • 10.7 A 380 V heavy duty)
    • 8.5 A 480 V heavy duty)
    • 8.5 A
  • Motor Slip Compensation
    • adjustable
    • not available in permanent magnet motor law
    • can be suppressed
    • automatic whatever the load
  • Maximum Switching Current
    • relay output R1C resistive, cos phi = 1 3 A 250 V AC
    • relay output R1C resistive, cos phi = 1 3
  • Relay Output Type
    • relay outputs R1A
    • relay outputs R1C 100000 cycles
    • relay outputs R2A
    • relay outputs R2C 100000 cycles
    • relay outputs R2C 1000
  • Input Compatibility
    • DI1...DI5 discrete input level 1 PLC IEC 61131-2
    • PTI pulse input level 1 PLC IEC 65A-68
    • PTI pulse input lev
  • Protection Type
    • thermal protection motor
    • safe torque off motor
    • motor phase loss motor
    • thermal protection drive
    • safe torque off drive
    • overheating drive
    • ov
  • Sampling Duration
    • 2 ms +/- 0.5 ms DI1...DI5) - discrete input
    • 5 ms +/- 1 ms PTI) - pulse input
    • 5 ms +/- 1 m
  • Linearity Error
    • AI1, AI2 +/- 0.15 % of maximum value analog input
    • AQ1 +/- 0.2 % analog output
  • Environmental Class During Operation
    • class 3C3 according to IEC 60721-3-3
    • class 3S3 according to IEC 60721-3-3
  • Maximum Horse Power Rating
    • 3 hp heavy duty
    • 5 hp normal duty
  • Vibration Resistance
    • 1.5 mm peak to peak 2-19 Hz)IEC 60721-3-3 class 3M3
    • 1 gn 9-200 Hz)IEC 60721-3-3 class 3M3
    • 1 gn 9-2
  • Persona Type Names
    • End User
    • Original Equipment Manufacturer
    • OEM - Control Panelbuilder
    • System Integrator
  • Motor Power KW
    • 4 kW normal duty
    • 3 kW heavy duty
  • Refresh Time
    • relay output R1, R2)5 ms +/- 0.5 ms)
  • Carbon Footprint Of The Use Phase B2 B3 B4 B6
    • 2 585 kg CO2 eq.
    • 2585.11213676559
  • Electromagnetic Compatibility
    • electrostatic discharge immunity test level 3 conforming to IEC 61000-4-2
    • radiated radio-frequency electro
  • Supply Frequency
    • 50...60 Hz +/- 5 %
  • Apparent Power
    • 6.7 kVA 480 V normal duty)
    • 7.1 kVA 480 V heavy duty)
  • Persona Type Ids
    • EU
    • OM
    • OM8
    • SI
  • Environmental Class During Transport
    • class 2C3 according to EN 60721-3-2
    • class 2S1 according to EN 60721-3-2
  • Carbon Footprint Of The Distribution Phase A4
    • 0.5670622940827047
    • 0.6 kg CO2 eq.
  • Synchronous Motor Control Profile
    • reluctance motor
    • permanent magnet motor
  • Minimum Switching Current
    • relay output R1B 5 mA 24 V DC
    • relay output R2C 5 mA 24 V DC
    • relay output R
  • Operating Altitude
    • <= 9842.52 ft (3000 m) with current derating above 1000m
  • Safety Function
    • STO (safe torque off) SIL 3
  • Discrete Input Logic
    • positive logic (source) DI1...DI5), < 5 V, > 11 V
    • negative logic (sink) DI1...DI5), > 16 V, < 10 V
    • negat
  • Asynchronous Motor Control Profile
    • optimized torque mode
    • variable torque standard
    • constant torque standard
  • Discrete Output Type
    • programmable output DQ1, DQ2 30 V DC 100 mA
  • Shock Resistance
    • 15 gn 11 ms, class 3M3 IEC 60721-3-3
  • Maximum Transient Current
    • 10.2 A 60 s normal duty)
    • 12.6 A 2 s normal duty)
    • 13 A 2 s heavy duty)
    • 11 A 60 s heavy duty)
  • Discrete And Process Manufacturing
    • hoisting tower crane
    • hoisting other application
    • material handling grouping conveyor
    • material handling palletizer - high performance
    • material handling palletizer - high pe
  • Power Dissipation In W
    • natural convection 78 W 380 V 4 kHz heavy duty)
    • forced convect
  • Ambient Air Temperature For Operation
    • -15-50 °C without derating vertical position)
    • 50-60 °C with derating factor vertical position)
    • 50-60 °C with dera
  • UE Rated Operational Voltage
    • 380...480 V 4 kW normal duty
    • 380...480 V 3 kW heavy duty
    • 380...480 V 3 hp normal duty
    • 380...480 V 3 hp normal d
  • Switching Frequency
    • 2...16 kHz adjustable
    • 7...16 kHz with derating factor
  • Communications & Management Attributes
    • Communication : VW3A3800
  • Complementary Attributes
    • Brake Chopper Integrated : true
    • Maximum Associated Fuse Rating : 20.0 A
    • Maximum Input Current Per Phase : 10.7 A
    • Maximum Output Voltage : 480 V
    • Maximum Acceleration Under Shock Impact During Operation : 70 m/s² at 22 ms
    • Maximum Acceleration Under Shock Load During Storage : 70 m/s² at 22 ms
    • Maximum Acceleration Under Shock Load During Transport : 70 m/s² at 22 ms
    • Maximum Acceleration Under Vibrational Stress During Operation : 5 m/s² at 9...200 Hz
    • Maximum Acceleration Under Vibratory Load During Storage : 5 m/s² at 9...200 Hz
    • Maximum Acceleration Under Vibratory Load During Transport : 5 m/s² at 9...200 Hz
    • Maximum Deflection Under Vibratory Load During Operation : 1.5 mm at 2...9 Hz
    • Maximum Deflection Under Vibratory Load During Storage : 1.5 mm at 2...9 Hz
    • Maximum Deflection Under Vibratory Load During Transport : 1.5 mm at 2...9 Hz
  • Important Information Attributes
    • Local Data Status : Publishable
    • Local Publishable Date : 2025-08-18
    • Device Type : Variable speed drive - VSD Compacts
    • Serviceability : No
    • Traceability : Yes
    • Field Service Division : IDIBS
    • Average Life Duration : 10 year(s)
    • Manufacturing Carbon Footprint : 78.3501341893874
    • Distribution Carbon Footprint : 0.567062294082705
    • Installation Carbon Footprint : 0.776187763114517
    • Use Carbon Footprint : 2585.11213676559
    • End Of Life Carbon Footprint : 5.0568733606017
    • Legacy WEEE Scope : In
    • WEEE Product Category : 5
    • Scope Perimeter : At least in Europe
    • EOLI Availability Display : Yes
    • End Of Life Doc Ref : ENVEOLI2311030EN
    • Reach Full Compliance Status : Reference contains Substances of Very High Concern above the threshold
    • Reach Full Compliance Status Id : CONTAINS_SVHC
    • Reach Compliance Directive : Reference contains Substances of Very High Concern above the threshold
    • ROHS EUR In Scope : No
    • ROHS EUR Status : Compliant with Exemptions
    • ROHS EUR Conformity Date : 1923
    • ROHS EUR Full Compliance Status : Pro-active compliance (Product out of EU RoHS legal scope)
    • ROHS EUR Full Compliance Status Id : PRO_ACTIVE_COMPLIANCE
    • China ROHS In Scope : Yes
    • China ROHS Label : 5
    • Green Premium Status For Reporting : Green Premium product
    • With Recycled Cardboard : Yes
    • Without Single Use Plastic : Yes
    • Product Contributes To Saved And Avoided Emissions : YES_SSI2
    • Return Indicator : Y
    • WD Status : 1 - GSC certified
    • Tier Id : 1
    • Tier : 1
    • Function Option Id : STANDARD
    • Function Option : Standard
    • Market Segmentation Id : INDUSTRIAL
    • Market Segmentation : Industrial
    • 1 Phase Low Current Possible : false
    • 4 Quadrant Operation Possible : true
    • Application In Domestic And Commercial Area Permitted : false
    • Assembly Style : with heat sink
    • Base Load Current At High Overload : 7.2 A
    • Base Load Current At Low Overload : 9.3 A
    • Braking To Standstill : by DC injection
    • Capacity Of Dc Link : 390.0 µF
    • Computer Port : true
    • Design Of Frequency Changer : U converter
    • Housing Material : plastic
    • Isolation : between power and control terminals
    • Maximum Associated Fuse Rating : 20.0 A
    • Maximum Input Current Per Phase : 10.7 A
    • Motor Starter Type : variable speed drive
    • Nominal Switching Frequency : 4 kHz
    • Number Of Hw Interfaces Industrial Ethernet : 2
    • Number Of Hw Interfaces Other : 0
    • Number Of Hw Interfaces Parallel : 0
    • Number Of Hw Interfaces Profinet : 0
    • Number Of Hw Interfaces Serial Rs232 : 0
    • Number Of Hw Interfaces Serial Rs422 : 0
    • Number Of Hw Interfaces Serial Rs485 : 1
    • Number Of Hw Interfaces Serial Tty : 0
    • Number Of Hw Interfaces Usb : 0
    • Number Of Output Phases : 3
    • Operating Element Present : true
    • Optical Interface Present : false
    • Package Weight Lbs : 2.910 kg
    • Power Loss Per Device Current Dependent : 112.0 W
    • Power Loss Static Current Independent : 16.0 W
    • Product Availability : Stock - Normally stocked in distribution facility
    • Product Or Component Type : variable speed drive
    • Product Specific Application : machine
    • Range Of Product : Altivar Machine ATV340
    • Relative Symmetric Mains Voltage Tolerance : 10 %
    • Relative Symmetric Network Frequency Tolerance : 5 %
    • Returnability : Yes
    • Specific Application : machine
    • Supporting Protocol For As Interface Safety At Work : false
    • Supporting Protocol For Asi : false
    • Supporting Protocol For Bacnet : false
    • Supporting Protocol For Can : false
    • Supporting Protocol For Data Highway : false
    • Supporting Protocol For Devicenet : false
    • Supporting Protocol For Devicenet Safety : false
    • Supporting Protocol For Ethernet Ip : true
    • Supporting Protocol For Foundation Fieldbus : false
    • Supporting Protocol For Interbus : false
    • Supporting Protocol For Knx : false
    • Supporting Protocol For Lon : false
    • Supporting Protocol For Modbus : true
    • Supporting Protocol For Other Bus Systems : false
    • Supporting Protocol For Profibus : false
    • Supporting Protocol For Profinet Cba : false
    • Supporting Protocol For Profinet Io : false
    • Supporting Protocol For Profisafe : false
    • Supporting Protocol For Safetybus P : false
    • Supporting Protocol For Sercos : false
    • Supporting Protocol For Suconet : false
    • Supporting Protocol For TCP IP : true
    • Sustainable Packaging : Yes
    • Total Lifecycle Carbon Footprint : 2 670 kg CO2 eq.
    • Variant : standard version
    • Volume Of Cooling Air : 19.0 m3/h
    • Weee Label : The product must be disposed on European Union markets following specific waste collection and never end up in rubbish bins.
    • With Safety Function Safe Programmable Logic : false
    • EMC Limit Value Complied : true
    • Number Of Inputs Bidirectional Not Potential Free : 0
    • Number Of Inputs Potential Free : 0
    • Permitted Relative Humidity During Transport : class 2K5 according to EN 60721-3
    • With Safety Function Safe Brake Management Sbc Sbt : true
    • With Safety Function Safe Direction SDI : false
    • With Safety Function Safe Operating Stop Sos : false
    • With Safety Function Safe Position Sp : false
    • With Safety Function Safe Speed Monitor Ssm : false
    • With Safety Function Safe Stop 1 SS1 : true
    • With Safety Function Safe Torque Off Sto : true
    • With Safety Function Safely Limited Position Slp : false
    • With Safety Function Safely Limited Speed Sls : true
    • With Sft Fct Safe Stop 2 Ss2 : false
    • Carbon Footprint Kg Co2 Eq Total Life Cycle : 2669.8623943727766
    • Relationship Type : Compatible relationship
    • Accessories : VW3A4430
    • Application In Industrial Area Permitted : true
    • Supporting Protocol For Interbus Safety : false
    • Pep Code : ENVPEP2311030EN
    • Pep Verification Date : 2024-10-01
    • PCR Version : PCR-4-ed4-EN-2021 09 06
    • PSR Version : PSR-0005-ed3.1-EN-2023 12 08
    • Type Of Verification For The Pep : Independent external review
    • Product Weight In G : 2910
    • Functional Unit Description : To adapt the speed and torque of synchronous, asynchronous or reluctance motor to the machine's operating point for 4 kW for heavy duty electric motors for fluid management and industrial applications in IP20/UL type 1 conditions, at 380V to 480V ra
    • Functional Unit Quantity : 1
    • Functional Unit Unit : Unit
    • Reference Lifetime In Y : 10
    • Energy Consumption On Product Lifetime In Kwh : 6307.2
    • Energy Model Manufacturing A1 A3 : Indonesia, ID
    • Energy Model Installation A5 : Electricity Mix; Low voltage; 2018; Europe, EU-27
    • Energy Model Use B6 : Electricity Mix; Low voltage; 2018; Europe, EU-27
    • Energy Model End Of Life C1 C4 : Electricity Mix; Low voltage; 2018; Europe, EU-27
    • Recyclability Potential In : 47
    • Acidification Ap Mole Of H Equiv Total Life Cycle : 15.338335160684544
    • Acidification Ap Mole Of H Equiv Manufacturing A1 A3 : 0.5715249761928188
    • Acidification Ap Mole Of H Equiv Distribution A4 : 0.0035879308382111546
    • Acidification Ap Mole Of H Equiv Installation A5 : 0.002250666424533195
    • Acidification Ap Mole Of H Equiv Maintenance B2 : 0
    • Acidification Ap Mole Of H Equiv Repair B3 : 0
    • Acidification Ap Mole Of H Equiv Replacement B4 : 0
    • Acidification Ap Mole Of H Equiv Operational Energy Use B6 : 14.751186194224616
    • Acidification Ap Mole Of H Equiv End Of Life C1 C4 : 0.009785393004364073
    • Acidification Ap Mole Of H Equiv Benefits Loads Beyond System Boundaries D : -0.03193559656049992
    • Biogenic Carbon Content Of The Associated Packaging Kg Of C Total Life Cycle : 0
    • Biogenic Carbon Content Of The Associated Packaging Kg Of C Manufacturing A1 A3 : 0
    • Biogenic Carbon Content Of The Associated Packaging Kg Of C Distribution A4 : 0
    • Biogenic Carbon Content Of The Associated Packaging Kg Of C Installation A5 : 0
    • Biogenic Carbon Content Of The Associated Packaging Kg Of C Maintenance B2 : 0
    • Biogenic Carbon Content Of The Associated Packaging Kg Of C Repair B3 : 0
    • Biogenic Carbon Content Of The Associated Packaging Kg Of C Replacement B4 : 0
    • Biogenic Carbon Content Of The Associated Packaging Kg Of C Operational Energy Use B6 : 0
    • Biogenic Carbon Content Of The Associated Packaging Kg Of C End Of Life C1 C4 : 0
    • Biogenic Carbon Content Of The Associated Packaging Kg Of C Benefits Loads Beyond System Boundaries D : 0
    • Biogenic Carbon Content Of The Product Kg Of C Total Life Cycle : 0
    • Biogenic Carbon Content Of The Product Kg Of C Manufacturing A1 A3 : 0
    • Biogenic Carbon Content Of The Product Kg Of C Distribution A4 : 0
    • Biogenic Carbon Content Of The Product Kg Of C Installation A5 : 0
    • Biogenic Carbon Content Of The Product Kg Of C Maintenance B2 : 0
    • Biogenic Carbon Content Of The Product Kg Of C Repair B3 : 0
    • Biogenic Carbon Content Of The Product Kg Of C Replacement B4 : 0
    • Biogenic Carbon Content Of The Product Kg Of C Operational Energy Use B6 : 0
    • Biogenic Carbon Content Of The Product Kg Of C End Of Life C1 C4 : 0
    • Biogenic Carbon Content Of The Product Kg Of C Benefits Loads Beyond System Boundaries D : 0
    • Climate Change Biogenics Kg Co2 Eq Total Life Cycle : 3.981433528426598
    • Climate Change Biogenics Kg Co2 Eq Manufacturing A1 A3 : 0.47676577142973564
    • Climate Change Biogenics Kg Co2 Eq Distribution A4 : 0
    • Climate Change Biogenics Kg Co2 Eq Installation A5 : 0.03641870884869458
    • Climate Change Biogenics Kg Co2 Eq Maintenance B2 : 0
    • Climate Change Biogenics Kg Co2 Eq Repair B3 : 0
    • Climate Change Biogenics Kg Co2 Eq Replacement B4 : 0
    • Climate Change Biogenics Kg Co2 Eq Operational Energy Use B6 : 3.4484927734788138
    • Climate Change Biogenics Kg Co2 Eq End Of Life C1 C4 : 0.019756274669353924
    • Climate Change Biogenics Kg Co2 Eq Benefits Loads Beyond System Boundaries D : -0.1891435960825552
    • Climate Change Fossil Fuels Kg Co2 Eq Total Life Cycle : 2665.8802761791135
    • Climate Change Fossil Fuels Kg Co2 Eq Manufacturing A1 A3 : 77.8726842050405
    • Climate Change Fossil Fuels Kg Co2 Eq Distribution A4 : 0.5670622940827047
    • Climate Change Fossil Fuels Kg Co2 Eq Installation A5 : 0.7397689908231406
    • Climate Change Fossil Fuels Kg Co2 Eq Maintenance B2 : 0
    • Climate Change Fossil Fuels Kg Co2 Eq Repair B3 : 0
    • Climate Change Fossil Fuels Kg Co2 Eq Replacement B4 : 0
    • Climate Change Fossil Fuels Kg Co2 Eq Operational Energy Use B6 : 2581.6636439921117
    • Climate Change Fossil Fuels Kg Co2 Eq End Of Life C1 C4 : 5.037116697055429
    • Climate Change Fossil Fuels Kg Co2 Eq Benefits Loads Beyond System Boundaries D : -5.96571417464202
    • Climate Change Total Kg Co2 Eq Total Life Cycle : 2669.8623943727766
    • Climate Change Total Kg Co2 Eq Manufacturing A1 A3 : 78.35013418938736
    • Climate Change Total Kg Co2 Eq Distribution A4 : 0.5670622940827047
    • Climate Change Total Kg Co2 Eq Installation A5 : 0.7761877631145165
    • Climate Change Total Kg Co2 Eq Maintenance B2 : 0
    • Climate Change Total Kg Co2 Eq Repair B3 : 0
    • Climate Change Total Kg Co2 Eq Replacement B4 : 0
    • Climate Change Total Kg Co2 Eq Operational Energy Use B6 : 2585.11213676559
    • Climate Change Total Kg Co2 Eq End Of Life C1 C4 : 5.056873360601701
    • Climate Change Total Kg Co2 Eq Benefits Loads Beyond System Boundaries D : -6.1555307210326395
    • Components For Re Use Kg Total Life Cycle : 0
    • Components For Re Use Kg Manufacturing A1 A3 : 0
    • Components For Re Use Kg Distribution A4 : 0
    • Components For Re Use Kg Installation A5 : 0
    • Components For Re Use Kg Maintenance B2 : 0
    • Components For Re Use Kg Repair B3 : 0
    • Components For Re Use Kg Replacement B4 : 0
    • Components For Re Use Kg Operational Energy Use B6 : 0
    • Components For Re Use Kg End Of Life C1 C4 : 0
    • Components For Re Use Kg Benefits Loads Beyond System Boundaries D : 0
    • Depletion Of Abiotic Resources Elements Kg Equivalent Sb Total Life Cycle : 0.012554860076511328
    • Depletion Of Abiotic Resources Elements Kg Equivalent Sb Manufacturing A1 A3 : 0.012365924746716411
    • Depletion Of Abiotic Resources Elements Kg Equivalent Sb Distribution A4 : 0.00000002230282894526
    • Depletion Of Abiotic Resources Elements Kg Equivalent Sb Installation A5 : 0.00000001991017020666
    • Depletion Of Abiotic Resources Elements Kg Equivalent Sb Maintenance B2 : 0
    • Depletion Of Abiotic Resources Elements Kg Equivalent Sb Repair B3 : 0
    • Depletion Of Abiotic Resources Elements Kg Equivalent Sb Replacement B4 : 0
    • Depletion Of Abiotic Resources Elements Kg Equivalent Sb Operational Energy Use B6 : 0.00018726791471599533
    • Depletion Of Abiotic Resources Elements Kg Equivalent Sb End Of Life C1 C4 : 0.00000162520207977022
    • Depletion Of Abiotic Resources Elements Kg Equivalent Sb Benefits Loads Beyond System Boundaries D : -0.00013900077096845346
    • Depletion Of Abiotic Resources Fossil Fuels Mj Total Life Cycle : 67227.90530964776
    • Depletion Of Abiotic Resources Fossil Fuels Mj Manufacturing A1 A3 : 1307.7285844852665
    • Depletion Of Abiotic Resources Fossil Fuels Mj Distribution A4 : 7.9032485860930874
    • Depletion Of Abiotic Resources Fossil Fuels Mj Installation A5 : 7.605026561079475
    • Depletion Of Abiotic Resources Fossil Fuels Mj Maintenance B2 : 0
    • Depletion Of Abiotic Resources Fossil Fuels Mj Repair B3 : 0
    • Depletion Of Abiotic Resources Fossil Fuels Mj Replacement B4 : 0
    • Depletion Of Abiotic Resources Fossil Fuels Mj Operational Energy Use B6 : 65860.9702403462
    • Depletion Of Abiotic Resources Fossil Fuels Mj End Of Life C1 C4 : 43.69820966912564
    • Depletion Of Abiotic Resources Fossil Fuels Mj Benefits Loads Beyond System Boundaries D : -106.54153839600707
    • Ecotoxicity Fresh Water Ctue Total Life Cycle : 30086.2393906547
    • Ecotoxicity Fresh Water Ctue Manufacturing A1 A3 : 1706.7977548124659
    • Ecotoxicity Fresh Water Ctue Distribution A4 : 0.38162050785289287
    • Ecotoxicity Fresh Water Ctue Installation A5 : 8.805355822476795
    • Ecotoxicity Fresh Water Ctue Maintenance B2 : 0
    • Ecotoxicity Fresh Water Ctue Repair B3 : 0
    • Ecotoxicity Fresh Water Ctue Replacement B4 : 0
    • Ecotoxicity Fresh Water Ctue Operational Energy Use B6 : 27839.680487930054
    • Ecotoxicity Fresh Water Ctue End Of Life C1 C4 : 530.5741715818496
    • Ecotoxicity Fresh Water Ctue Benefits Loads Beyond System Boundaries D : -320.89034932983685
    • Emission Of Fine Particles Incidence Of Diseases Total Life Cycle : 0.00011785915802940695
    • Emission Of Fine Particles Incidence Of Diseases Manufacturing A1 A3 : 0.00000329839424257953
    • Emission Of Fine Particles Incidence Of Diseases Distribution A4 : 0.00000002917800132079
    • Emission Of Fine Particles Incidence Of Diseases Installation A5 : 0.00000001357838193925
    • Emission Of Fine Particles Incidence Of Diseases Maintenance B2 : 0
    • Emission Of Fine Particles Incidence Of Diseases Repair B3 : 0
    • Emission Of Fine Particles Incidence Of Diseases Replacement B4 : 0
    • Emission Of Fine Particles Incidence Of Diseases Operational Energy Use B6 : 0.00011444604437754589
    • Emission Of Fine Particles Incidence Of Diseases End Of Life C1 C4 : 0.0000000719630260215
    • Emission Of Fine Particles Incidence Of Diseases Benefits Loads Beyond System Boundaries D : -0.00000046764497509045
    • Exported Energy Mj By Energy Vector Total Life Cycle : 0.03246276313829134
    • Exported Energy Mj By Energy Vector Manufacturing A1 A3 : 0.0006639568528836513
    • Exported Energy Mj By Energy Vector Distribution A4 : 0
    • Exported Energy Mj By Energy Vector Installation A5 : 0.03134138094020926
    • Exported Energy Mj By Energy Vector Maintenance B2 : 0
    • Exported Energy Mj By Energy Vector Repair B3 : 0
    • Exported Energy Mj By Energy Vector Replacement B4 : 0
    • Exported Energy Mj By Energy Vector Operational Energy Use B6 : 0
    • Exported Energy Mj By Energy Vector End Of Life C1 C4 : 0.0004574253451984265
    • Exported Energy Mj By Energy Vector Benefits Loads Beyond System Boundaries D : 0
    • Freshwater Eutrophication Kg P Eq Total Life Cycle : 0.007840878879690217
    • Freshwater Eutrophication Kg P Eq Manufacturing A1 A3 : 0.0006681686673379229
    • Freshwater Eutrophication Kg P Eq Distribution A4 : 0.00000021250676251133
    • Freshwater Eutrophication Kg P Eq Installation A5 : 0.00001770434403218862
    • Freshwater Eutrophication Kg P Eq Maintenance B2 : 0
    • Freshwater Eutrophication Kg P Eq Repair B3 : 0
    • Freshwater Eutrophication Kg P Eq Replacement B4 : 0
    • Freshwater Eutrophication Kg P Eq Operational Energy Use B6 : 0.007077750425306961
    • Freshwater Eutrophication Kg P Eq End Of Life C1 C4 : 0.00007704293625063342
    • Freshwater Eutrophication Kg P Eq Benefits Loads Beyond System Boundaries D : -0.00002526811752684456
    • Hazardous Waste Disposed Of Kg Total Life Cycle : 180.40570724341825
    • Hazardous Waste Disposed Of Kg Manufacturing A1 A3 : 179.23811782625128
    • Hazardous Waste Disposed Of Kg Distribution A4 : 0
    • Hazardous Waste Disposed Of Kg Installation A5 : 0.019133062979425016
    • Hazardous Waste Disposed Of Kg Maintenance B2 : 0
    • Hazardous Waste Disposed Of Kg Repair B3 : 0
    • Hazardous Waste Disposed Of Kg Replacement B4 : 0
    • Hazardous Waste Disposed Of Kg Operational Energy Use B6 : 0
    • Hazardous Waste Disposed Of Kg End Of Life C1 C4 : 1.1484563541875343
    • Hazardous Waste Disposed Of Kg Benefits Loads Beyond System Boundaries D : -11.307844023504817
    • Human Toxicity Carcinogenic Effects Ctuh Total Life Cycle : 0.00000452246579813114
    • Human Toxicity Carcinogenic Effects Ctuh Manufacturing A1 A3 : 0.00000242965052106764
    • Human Toxicity Carcinogenic Effects Ctuh Distribution A4 : 0.00000000000995569056
    • Human Toxicity Carcinogenic Effects Ctuh Installation A5 : 0.00000008671106547411
    • Human Toxicity Carcinogenic Effects Ctuh Maintenance B2 : 0
    • Human Toxicity Carcinogenic Effects Ctuh Repair B3 : 0
    • Human Toxicity Carcinogenic Effects Ctuh Replacement B4 : 0
    • Human Toxicity Carcinogenic Effects Ctuh Operational Energy Use B6 : 0.00000030146231722556
    • Human Toxicity Carcinogenic Effects Ctuh End Of Life C1 C4 : 0.00000170463193867326
    • Human Toxicity Carcinogenic Effects Ctuh Benefits Loads Beyond System Boundaries D : -0.00000161752377183488
    • Human Toxicity Non Carcinogenic Effects Ctuh Total Life Cycle : 0.00001452638415146332
    • Human Toxicity Non Carcinogenic Effects Ctuh Manufacturing A1 A3 : 0.00000243297772850953
    • Human Toxicity Non Carcinogenic Effects Ctuh Distribution A4 : 0.00000000107737388292
    • Human Toxicity Non Carcinogenic Effects Ctuh Installation A5 : 0.000000003199658171
    • Human Toxicity Non Carcinogenic Effects Ctuh Maintenance B2 : 0
    • Human Toxicity Non Carcinogenic Effects Ctuh Repair B3 : 0
    • Human Toxicity Non Carcinogenic Effects Ctuh Replacement B4 : 0
    • Human Toxicity Non Carcinogenic Effects Ctuh Operational Energy Use B6 : 0.0000119576718940131
    • Human Toxicity Non Carcinogenic Effects Ctuh End Of Life C1 C4 : 0.00000013145749688677
    • Human Toxicity Non Carcinogenic Effects Ctuh Benefits Loads Beyond System Boundaries D : -0.00000008066184378601
    • Impacts Related To Land Use Soil Quality Total Life Cycle : 54.44297969444189
    • Impacts Related To Land Use Soil Quality Manufacturing A1 A3 : 2.2534757592814256
    • Impacts Related To Land Use Soil Quality Distribution A4 : 0
    • Impacts Related To Land Use Soil Quality Installation A5 : 0.027179349906245886
    • Impacts Related To Land Use Soil Quality Maintenance B2 : 0
    • Impacts Related To Land Use Soil Quality Repair B3 : 0
    • Impacts Related To Land Use Soil Quality Replacement B4 : 0
    • Impacts Related To Land Use Soil Quality Operational Energy Use B6 : 51.43613762702069
    • Impacts Related To Land Use Soil Quality End Of Life C1 C4 : 0.7261869582335251
    • Impacts Related To Land Use Soil Quality Benefits Loads Beyond System Boundaries D : -1.8777192585513007
    • Ionizing Radiation Human Health Kbq Of U235 Equiv Total Life Cycle : 4931.6696375316415
    • Ionizing Radiation Human Health Kbq Of U235 Equiv Manufacturing A1 A3 : 1071.2035016033203
    • Ionizing Radiation Human Health Kbq Of U235 Equiv Distribution A4 : 0.0013798816625027908
    • Ionizing Radiation Human Health Kbq Of U235 Equiv Installation A5 : 0.11815577406740947
    • Ionizing Radiation Human Health Kbq Of U235 Equiv Maintenance B2 : 0
    • Ionizing Radiation Human Health Kbq Of U235 Equiv Repair B3 : 0
    • Ionizing Radiation Human Health Kbq Of U235 Equiv Replacement B4 : 0
    • Ionizing Radiation Human Health Kbq Of U235 Equiv Operational Energy Use B6 : 3843.669473313307
    • Ionizing Radiation Human Health Kbq Of U235 Equiv End Of Life C1 C4 : 16.677126959283882
    • Ionizing Radiation Human Health Kbq Of U235 Equiv Benefits Loads Beyond System Boundaries D : -4.138638421165581
    • Marine Aquatic Eutrophication Kg Of N Equiv Total Life Cycle : 1.745144361200125
    • Marine Aquatic Eutrophication Kg Of N Equiv Manufacturing A1 A3 : 0.06388404085812799
    • Marine Aquatic Eutrophication Kg Of N Equiv Distribution A4 : 0.0016817607072309706
    • Marine Aquatic Eutrophication Kg Of N Equiv Installation A5 : 0.0009779712200424081
    • Marine Aquatic Eutrophication Kg Of N Equiv Maintenance B2 : 0
    • Marine Aquatic Eutrophication Kg Of N Equiv Repair B3 : 0
    • Marine Aquatic Eutrophication Kg Of N Equiv Replacement B4 : 0
    • Marine Aquatic Eutrophication Kg Of N Equiv Operational Energy Use B6 : 1.6757635434559368
    • Marine Aquatic Eutrophication Kg Of N Equiv End Of Life C1 C4 : 0.0028370449587867045
    • Marine Aquatic Eutrophication Kg Of N Equiv Benefits Loads Beyond System Boundaries D : -0.0031241254798801995
    • Materials For Energy Recovery Kg Total Life Cycle : 0.00000001100149940582
    • Materials For Energy Recovery Kg Manufacturing A1 A3 : 0.00000001100149940582
    • Materials For Energy Recovery Kg Distribution A4 : 0
    • Materials For Energy Recovery Kg Installation A5 : 0
    • Materials For Energy Recovery Kg Maintenance B2 : 0
    • Materials For Energy Recovery Kg Repair B3 : 0
    • Materials For Energy Recovery Kg Replacement B4 : 0
    • Materials For Energy Recovery Kg Operational Energy Use B6 : 0
    • Materials For Energy Recovery Kg End Of Life C1 C4 : 0
    • Materials For Energy Recovery Kg Benefits Loads Beyond System Boundaries D : 0
    • Materials For Recycling Kg Total Life Cycle : 1.115567797680137
    • Materials For Recycling Kg Manufacturing A1 A3 : 0.06366838905554088
    • Materials For Recycling Kg Distribution A4 : 0
    • Materials For Recycling Kg Installation A5 : 0.0024194963213563796
    • Materials For Recycling Kg Maintenance B2 : 0
    • Materials For Recycling Kg Repair B3 : 0
    • Materials For Recycling Kg Replacement B4 : 0
    • Materials For Recycling Kg Operational Energy Use B6 : 0
    • Materials For Recycling Kg End Of Life C1 C4 : 1.0494799123032397
    • Materials For Recycling Kg Benefits Loads Beyond System Boundaries D : 0
    • Net Use Of Fresh Water M3 Total Life Cycle : 2.8259122695121808
    • Net Use Of Fresh Water M3 Manufacturing A1 A3 : 0.6819621466332719
    • Net Use Of Fresh Water M3 Distribution A4 : 0.00005009075990298275
    • Net Use Of Fresh Water M3 Installation A5 : 0.001509396216645059
    • Net Use Of Fresh Water M3 Maintenance B2 : 0
    • Net Use Of Fresh Water M3 Repair B3 : 0
    • Net Use Of Fresh Water M3 Replacement B4 : 0
    • Net Use Of Fresh Water M3 Operational Energy Use B6 : 2.129725667397729
    • Net Use Of Fresh Water M3 End Of Life C1 C4 : 0.012664968504631623
    • Net Use Of Fresh Water M3 Benefits Loads Beyond System Boundaries D : -0.03007089011896474
    • Non Hazardous Waste Disposed Of Kg Total Life Cycle : 400.14283667059254
    • Non Hazardous Waste Disposed Of Kg Manufacturing A1 A3 : 26.45338623611399
    • Non Hazardous Waste Disposed Of Kg Distribution A4 : 0.019886162170030558
    • Non Hazardous Waste Disposed Of Kg Installation A5 : 0.33283009528255275
    • Non Hazardous Waste Disposed Of Kg Maintenance B2 : 0
    • Non Hazardous Waste Disposed Of Kg Repair B3 : 0
    • Non Hazardous Waste Disposed Of Kg Replacement B4 : 0
    • Non Hazardous Waste Disposed Of Kg Operational Energy Use B6 : 371.9425837501281
    • Non Hazardous Waste Disposed Of Kg End Of Life C1 C4 : 1.3941504268978608
    • Non Hazardous Waste Disposed Of Kg Benefits Loads Beyond System Boundaries D : -8.273770373279408
    • Ozone Depletion Kg Equivalent Cfc 11 Total Life Cycle : 0.00002241274457316135
    • Ozone Depletion Kg Equivalent Cfc 11 Manufacturing A1 A3 : 0.00001117719548768914
    • Ozone Depletion Kg Equivalent Cfc 11 Distribution A4 : 0.00000000086845053601
    • Ozone Depletion Kg Equivalent Cfc 11 Installation A5 : 0.00000001009126248696
    • Ozone Depletion Kg Equivalent Cfc 11 Maintenance B2 : 0
    • Ozone Depletion Kg Equivalent Cfc 11 Repair B3 : 0
    • Ozone Depletion Kg Equivalent Cfc 11 Replacement B4 : 0
    • Ozone Depletion Kg Equivalent Cfc 11 Operational Energy Use B6 : 0.00001105385860556377
    • Ozone Depletion Kg Equivalent Cfc 11 End Of Life C1 C4 : 0.00000017073076688547
    • Ozone Depletion Kg Equivalent Cfc 11 Benefits Loads Beyond System Boundaries D : -0.00000063258600354966
    • Photochemical Ozone Formation Kg Of Nmvoc Equiv Total Life Cycle : 5.63154916217769
    • Photochemical Ozone Formation Kg Of Nmvoc Equiv Manufacturing A1 A3 : 0.2367391297013026
    • Photochemical Ozone Formation Kg Of Nmvoc Equiv Distribution A4 : 0.004653494030375124
    • Photochemical Ozone Formation Kg Of Nmvoc Equiv Installation A5 : 0.0015614724958440541
    • Photochemical Ozone Formation Kg Of Nmvoc Equiv Maintenance B2 : 0
    • Photochemical Ozone Formation Kg Of Nmvoc Equiv Repair B3 : 0
    • Photochemical Ozone Formation Kg Of Nmvoc Equiv Replacement B4 : 0
    • Photochemical Ozone Formation Kg Of Nmvoc Equiv Operational Energy Use B6 : 5.380559140879081
    • Photochemical Ozone Formation Kg Of Nmvoc Equiv End Of Life C1 C4 : 0.00803592507108691
    • Photochemical Ozone Formation Kg Of Nmvoc Equiv Benefits Loads Beyond System Boundaries D : -0.011653361960041405
    • Radioactive Waste Disposed Of Kg Total Life Cycle : 0.09684695323080979
    • Radioactive Waste Disposed Of Kg Manufacturing A1 A3 : 0.017852104532763282
    • Radioactive Waste Disposed Of Kg Distribution A4 : 0.00001416352985672503
    • Radioactive Waste Disposed Of Kg Installation A5 : 0.00004098502081920827
    • Radioactive Waste Disposed Of Kg Maintenance B2 : 0
    • Radioactive Waste Disposed Of Kg Repair B3 : 0
    • Radioactive Waste Disposed Of Kg Replacement B4 : 0
    • Radioactive Waste Disposed Of Kg Operational Energy Use B6 : 0.07785092215898266
    • Radioactive Waste Disposed Of Kg End Of Life C1 C4 : 0.0010887779883879116
    • Radioactive Waste Disposed Of Kg Benefits Loads Beyond System Boundaries D : -0.006132708353695919
    • Terrestrial Eutrophication Mole Of N Equiv Total Life Cycle : 25.911718385496304
    • Terrestrial Eutrophication Mole Of N Equiv Manufacturing A1 A3 : 0.6758709761521221
    • Terrestrial Eutrophication Mole Of N Equiv Distribution A4 : 0.018449726381862302
    • Terrestrial Eutrophication Mole Of N Equiv Installation A5 : 0.006810240886014966
    • Terrestrial Eutrophication Mole Of N Equiv Maintenance B2 : 0
    • Terrestrial Eutrophication Mole Of N Equiv Repair B3 : 0
    • Terrestrial Eutrophication Mole Of N Equiv Replacement B4 : 0
    • Terrestrial Eutrophication Mole Of N Equiv Operational Energy Use B6 : 25.18112279573196
    • Terrestrial Eutrophication Mole Of N Equiv End Of Life C1 C4 : 0.029464646344344918
    • Terrestrial Eutrophication Mole Of N Equiv Benefits Loads Beyond System Boundaries D : -0.034576748211942655
    • Total Use Of Non Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Total Life Cycle : 41.114615040195645
    • Total Use Of Non Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Manufacturing A1 A3 : 41.114615040195645
    • Total Use Of Non Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Distribution A4 : 0
    • Total Use Of Non Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Installation A5 : 0
    • Total Use Of Non Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Maintenance B2 : 0
    • Total Use Of Non Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Repair B3 : 0
    • Total Use Of Non Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Replacement B4 : 0
    • Total Use Of Non Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Operational Energy Use B6 : 0
    • Total Use Of Non Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj End Of Life C1 C4 : 0
    • Total Use Of Non Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Benefits Loads Beyond System Boundaries D : -15.551978380468908
    • Total Use Of Primary Energy During The Life Cycle Mj Total Life Cycle : 79909.82394127602
    • Total Use Of Primary Energy During The Life Cycle Mj Manufacturing A1 A3 : 1340.6557954801526
    • Total Use Of Primary Energy During The Life Cycle Mj Distribution A4 : 7.913795106306069
    • Total Use Of Primary Energy During The Life Cycle Mj Installation A5 : 8.603065378576567
    • Total Use Of Primary Energy During The Life Cycle Mj Maintenance B2 : 0
    • Total Use Of Primary Energy During The Life Cycle Mj Repair B3 : 0
    • Total Use Of Primary Energy During The Life Cycle Mj Replacement B4 : 0
    • Total Use Of Primary Energy During The Life Cycle Mj Operational Energy Use B6 : 78507.98536095038
    • Total Use Of Primary Energy During The Life Cycle Mj End Of Life C1 C4 : 44.66592436060082
    • Total Use Of Primary Energy During The Life Cycle Mj Benefits Loads Beyond System Boundaries D : -110.9458398788222
    • Total Use Of Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Total Life Cycle : 12681.918631628258
    • Total Use Of Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Manufacturing A1 A3 : 32.92721099488551
    • Total Use Of Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Distribution A4 : 0.010546520212981286
    • Total Use Of Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Installation A5 : 0.998038817497094
    • Total Use Of Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Maintenance B2 : 0
    • Total Use Of Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Repair B3 : 0
    • Total Use Of Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Replacement B4 : 0
    • Total Use Of Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Operational Energy Use B6 : 12647.015120604188
    • Total Use Of Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj End Of Life C1 C4 : 0.9677146914751785
    • Total Use Of Renewable Primary Energy Resources Primary Energy And Primary Energy Resources Used As Raw Materials Mj Benefits Loads Beyond System Boundaries D : -4.404301482815076
    • Use Of Non Renewable Primary Energy Resources Used As Raw Materials Mj Total Life Cycle : 41.114615040195645
    • Use Of Non Renewable Primary Energy Resources Used As Raw Materials Mj Manufacturing A1 A3 : 41.114615040195645
    • Use Of Non Renewable Primary Energy Resources Used As Raw Materials Mj Distribution A4 : 0
    • Use Of Non Renewable Primary Energy Resources Used As Raw Materials Mj Installation A5 : 0
    • Use Of Non Renewable Primary Energy Resources Used As Raw Materials Mj Maintenance B2 : 0
    • Use Of Non Renewable Primary Energy Resources Used As Raw Materials Mj Repair B3 : 0
    • Use Of Non Renewable Primary Energy Resources Used As Raw Materials Mj Replacement B4 : 0
    • Use Of Non Renewable Primary Energy Resources Used As Raw Materials Mj Operational Energy Use B6 : 0
    • Use Of Non Renewable Primary Energy Resources Used As Raw Materials Mj End Of Life C1 C4 : 0
    • Use Of Non Renewable Primary Energy Resources Used As Raw Materials Mj Benefits Loads Beyond System Boundaries D : -15.551978380468908
    • Use Of Non Renewable Primary Energy Excluding Non Renewable Primary Energy Resources Used As Raw Materials Mj Total Life Cycle : 67186.79069460757
    • Use Of Non Renewable Primary Energy Excluding Non Renewable Primary Energy Resources Used As Raw Materials Mj Manufacturing A1 A3 : 1266.6139694450708
    • Use Of Non Renewable Primary Energy Excluding Non Renewable Primary Energy Resources Used As Raw Materials Mj Distribution A4 : 7.9032485860930874
    • Use Of Non Renewable Primary Energy Excluding Non Renewable Primary Energy Resources Used As Raw Materials Mj Installation A5 : 7.605026561079475
    • Use Of Non Renewable Primary Energy Excluding Non Renewable Primary Energy Resources Used As Raw Materials Mj Maintenance B2 : 0
    • Use Of Non Renewable Primary Energy Excluding Non Renewable Primary Energy Resources Used As Raw Materials Mj Repair B3 : 0
    • Use Of Non Renewable Primary Energy Excluding Non Renewable Primary Energy Resources Used As Raw Materials Mj Replacement B4 : 0
    • Use Of Non Renewable Primary Energy Excluding Non Renewable Primary Energy Resources Used As Raw Materials Mj Operational Energy Use B6 : 65860.9702403462
    • Use Of Non Renewable Primary Energy Excluding Non Renewable Primary Energy Resources Used As Raw Materials Mj End Of Life C1 C4 : 43.69820966912564
    • Use Of Non Renewable Primary Energy Excluding Non Renewable Primary Energy Resources Used As Raw Materials Mj Benefits Loads Beyond System Boundaries D : -90.98956001553825
    • Use Of Non Renewable Secondary Fuels Mj Total Life Cycle : 0
    • Use Of Non Renewable Secondary Fuels Mj Manufacturing A1 A3 : 0
    • Use Of Non Renewable Secondary Fuels Mj Distribution A4 : 0
    • Use Of Non Renewable Secondary Fuels Mj Installation A5 : 0
    • Use Of Non Renewable Secondary Fuels Mj Maintenance B2 : 0
    • Use Of Non Renewable Secondary Fuels Mj Repair B3 : 0
    • Use Of Non Renewable Secondary Fuels Mj Replacement B4 : 0
    • Use Of Non Renewable Secondary Fuels Mj Operational Energy Use B6 : 0
    • Use Of Non Renewable Secondary Fuels Mj End Of Life C1 C4 : 0
    • Use Of Non Renewable Secondary Fuels Mj Benefits Loads Beyond System Boundaries D : 0
    • Use Of Renewable Primary Energy Resources Used As Raw Materials Mj Total Life Cycle : 4.001901081158762
    • Use Of Renewable Primary Energy Resources Used As Raw Materials Mj Manufacturing A1 A3 : 4.001901081158762
    • Use Of Renewable Primary Energy Resources Used As Raw Materials Mj Distribution A4 : 0
    • Use Of Renewable Primary Energy Resources Used As Raw Materials Mj Installation A5 : 0
    • Use Of Renewable Primary Energy Resources Used As Raw Materials Mj Maintenance B2 : 0
    • Use Of Renewable Primary Energy Resources Used As Raw Materials Mj Repair B3 : 0
    • Use Of Renewable Primary Energy Resources Used As Raw Materials Mj Replacement B4 : 0
    • Use Of Renewable Primary Energy Resources Used As Raw Materials Mj Operational Energy Use B6 : 0
    • Use Of Renewable Primary Energy Resources Used As Raw Materials Mj End Of Life C1 C4 : 0
    • Use Of Renewable Primary Energy Resources Used As Raw Materials Mj Benefits Loads Beyond System Boundaries D : 1.0610342340812544
    • Use Of Renewable Primary Energy Excluding Renewable Primary Energy Resources Used As Raw Materials Mj Total Life Cycle : 12677.9167305471
    • Use Of Renewable Primary Energy Excluding Renewable Primary Energy Resources Used As Raw Materials Mj Manufacturing A1 A3 : 28.92530991372676
    • Use Of Renewable Primary Energy Excluding Renewable Primary Energy Resources Used As Raw Materials Mj Distribution A4 : 0.010546520212981286
    • Use Of Renewable Primary Energy Excluding Renewable Primary Energy Resources Used As Raw Materials Mj Installation A5 : 0.998038817497094
    • Use Of Renewable Primary Energy Excluding Renewable Primary Energy Resources Used As Raw Materials Mj Maintenance B2 : 0
    • Use Of Renewable Primary Energy Excluding Renewable Primary Energy Resources Used As Raw Materials Mj Repair B3 : 0
    • Use Of Renewable Primary Energy Excluding Renewable Primary Energy Resources Used As Raw Materials Mj Replacement B4 : 0
    • Use Of Renewable Primary Energy Excluding Renewable Primary Energy Resources Used As Raw Materials Mj Operational Energy Use B6 : 12647.015120604188
    • Use Of Renewable Primary Energy Excluding Renewable Primary Energy Resources Used As Raw Materials Mj End Of Life C1 C4 : 0.9677146914751785
    • Use Of Renewable Primary Energy Excluding Renewable Primary Energy Resources Used As Raw Materials Mj Benefits Loads Beyond System Boundaries D : -5.465335716896331
    • Use Of Renewable Secondary Fuels Mj Total Life Cycle : 0
    • Use Of Renewable Secondary Fuels Mj Manufacturing A1 A3 : 0
    • Use Of Renewable Secondary Fuels Mj Distribution A4 : 0
    • Use Of Renewable Secondary Fuels Mj Installation A5 : 0
    • Use Of Renewable Secondary Fuels Mj Maintenance B2 : 0
    • Use Of Renewable Secondary Fuels Mj Repair B3 : 0
    • Use Of Renewable Secondary Fuels Mj Replacement B4 : 0
    • Use Of Renewable Secondary Fuels Mj Operational Energy Use B6 : 0
    • Use Of Renewable Secondary Fuels Mj End Of Life C1 C4 : 0
    • Use Of Renewable Secondary Fuels Mj Benefits Loads Beyond System Boundaries D : 0
    • Use Of Secondary Materials Kg Total Life Cycle : 0.745031589150174
    • Use Of Secondary Materials Kg Manufacturing A1 A3 : 0.745031589150174
    • Use Of Secondary Materials Kg Distribution A4 : 0
    • Use Of Secondary Materials Kg Installation A5 : 0
    • Use Of Secondary Materials Kg Maintenance B2 : 0
    • Use Of Secondary Materials Kg Repair B3 : 0
    • Use Of Secondary Materials Kg Replacement B4 : 0
    • Use Of Secondary Materials Kg Operational Energy Use B6 : 0
    • Use Of Secondary Materials Kg End Of Life C1 C4 : 0
    • Use Of Secondary Materials Kg Benefits Loads Beyond System Boundaries D : 0
    • Water Use M3 Eq Total Life Cycle : 121.02677047153759
    • Water Use M3 Eq Manufacturing A1 A3 : 28.944130530463845
    • Water Use M3 Eq Distribution A4 : 0.0021513981378331083
    • Water Use M3 Eq Installation A5 : 0.0648111654251057
    • Water Use M3 Eq Maintenance B2 : 0
    • Water Use M3 Eq Repair B3 : 0
    • Water Use M3 Eq Replacement B4 : 0
    • Water Use M3 Eq Operational Energy Use B6 : 91.47171741473245
    • Water Use M3 Eq End Of Life C1 C4 : 0.5439599627783621
    • Water Use M3 Eq Benefits Loads Beyond System Boundaries D : -0.9510096249534565
    • Air Pollution M3 Total Life Cycle : 0
    • Air Pollution M3 Manufacturing A1 A3 : 0
    • Air Pollution M3 Distribution A4 : 0
    • Air Pollution M3 Installation A5 : 0
    • Air Pollution M3 Maintenance B2 : 0
    • Air Pollution M3 Repair B3 : 0
    • Air Pollution M3 Replacement B4 : 0
    • Air Pollution M3 Operational Energy Use B6 : 0
    • Air Pollution M3 End Of Life C1 C4 : 0
    • Air Pollution M3 Benefits Loads Beyond System Boundaries D : 0
    • Water Pollution M3 Total Life Cycle : 0
    • Water Pollution M3 Manufacturing A1 A3 : 0
    • Water Pollution M3 Distribution A4 : 0
    • Water Pollution M3 Installation A5 : 0
    • Water Pollution M3 Maintenance B2 : 0
    • Water Pollution M3 Repair B3 : 0
    • Water Pollution M3 Replacement B4 : 0
    • Water Pollution M3 Operational Energy Use B6 : 0
    • Water Pollution M3 End Of Life C1 C4 : 0
    • Water Pollution M3 Benefits Loads Beyond System Boundaries D : 0
    • Packaging Weight In G : 762.3
  • General Attributes
    • Product Or Component Type : variable speed drive
    • Range Of Product : Altivar Machine ATV340
  • Output Attributes
    • Maximum Output Voltage : 480 V
    • Relay Output Number : 2
    • Speed Drive Output Frequency : 0.1-599 Hz
  • Environment Attributes
    • ROHS Exemption Information : Yes
    • China ROHS url : https://checkaproduct.se.com/DistantRequestDispatcher.aspx?action=exportPdfRoHSChina&pid=442523112&lang=en-us
    • Take Back : No
    • China ROHS Regulation : X
    • Mercury Free : Yes
    • Carbon Footprint : 2669.86239437278
    • Ambient Air Transport Temperature : -40-70 °C
    • Circularity Profile : ENVEOLI2311030EN
    • Environmental Disclosure : ENVPEP2311030EN
    • EU ROHS Directive : Pro-active compliance (Product out of EU RoHS legal scope)
    • Packaging Made With Recycled Cardboard : Yes
    • Packaging Without Single Use Plastic : Yes
    • Reach Regulation : Reference contains Substances of Very High Concern above the threshold
    • Permitted Relative Humidity During Operation : class 3K5 according to EN 60721-3
    • Permitted Relative Humidity During Storage : class 1K5 according to EN 60721-3
    • Pep Code : ENVPEP2311030EN
    • Pep Verification Date : 2024-10-01
    • PCR Version : PCR-4-ed4-EN-2021 09 06
    • PSR Version : PSR-0005-ed3.1-EN-2023 12 08
    • Type Of Verification For The Pep : Independent external review
  • Input Attributes
    • Number Of Input Phases : 3
  • Specifications
    • Country of Origin : Indonesia