• No results found

TRAMS TROLLEY-BUSES SUBWAY

N/A
N/A
Protected

Academic year: 2021

Share "TRAMS TROLLEY-BUSES SUBWAY"

Copied!
14
0
0

Loading.... (view fulltext now)

Full text

(1)

TRAMS TROLLEY-BUSES SUBWAY

9

FT-100-600 Traction Inverter for Asynchronous Drives

11

FT-105-600 Traction Inverter for Asynchronous Drives

13

FT-170-600 Traction Inverter for Asynchronous Drives

15

FT-300-600 Traction Inverter for Asynchronous drives

17

PSM5 Static Converter

18

PSM14 Static Converter

19

PSM17 Static Converter

(2)

MEDCOM is a manufacturer of modern inverters for asynchronous drives and static converters installed in vehicles powered with 600 VDC/ 750 VDC voltage traction.

Drive inverters are based on the IGBT technology. Owing to the application of modern control systems, they ensure anti-slip control of the drive torque of the respective vehicle axles, effective electrodynamics braking within the whole speed range of the vehicle and a possibility of emergency braking in case of blackout in the traction network.

The currently produced inverters with output power range from 100 kW to 300 kW ensure very good driving parameters of the vehicle. Their main advantages are: low level of noise emission and ensuring a high driving comfort. The static converters with output power

ranging from 5 kW to 100 kW ensure power supply for the subassemblies of the drive system and all other loads (control, lighting, compressors, fans of the devices) of the vehicle. Apart from that, the static converters may also supply the heating, ventilation and air conditioning systems.

All the inverters and converters are equipped with a diagnostic-control system based on CAN 2.0B

or RS232 interface

TRAMS

TROLLEY-BUSES

SUBWAY

(3)

FT-100-600

FT

-100-600

TRACTION INVERTER FOR ASYNCHRONOUS DRIVES

Description

The FT-100-600 drive traction inverter is designed for driving the 105N trams or similar ones. A direct microprocessor-controlled (DSP) transistor converter (IGBT) has been applied in the system. The implemented control algorithm ensures optimal control of the motors speed (2 motors per an inverter) during the starting and electrodynamics braking (with or without recuperation). The inverter is equipped with a CAN 2.0B interface for control and diagnostics; it is also possible to set the torque with an analogue input. The control system checks periodically the motor insulation and temperature. The system is installed in the space previously occupied by the resistors (on roof mounting version is also available). The converter and braking resistors are cooled with forced (external) air from the fan of the traction motors.

Specification of FT-100-600 inverter

Input rated voltage 600 VDC +25% -30% Output voltage 40 VDC +10% -40% Rated current 180 Arms

Maximum current 360 Arms

Rated power 100 kW

Frequency 0 – 130 Hz PWM frequency 3 kHz Insulation strength 2.8 kV

Cooling Forced, air

Weight 110 kg Dimensions 1095×333×430 mm SL1 RWà1 RH1 FT100-600 Drive controller Alarms CANBUS ZJ +40V -40V Measurements Control DSP Controller TMS320F241 system SS 100-600 2×STDa200L4 LF1 C1 SS1 R2 RV1 RH 100-600 600VDC D2 Odá1 Q1 Q2 Q3 Q4 D1 FT1 3 phase 3 phase M1 M2 SWà1

Diagram of FT-100-600 inverter

(4)

1 095 43 0 333 995

FT-100-600

FT

-100-600

Traction characteristics

v 20 0 0 -0.5 0.5 250 500 750 1000 1 1.5 2 -1 -1.5 -2 0 10 20 30 40 50 60 70 5 10 15 v [m/s] a [m/s2 ] s [m] a s

v-speed a-acceleration s-road

Specification of the tram (105N)

with the 2×FT-100-600 drive

Supply voltage 600 VDC +25% -30%

Rated power 200 kW

Peak power 400 kW

Number of motors per vehicle 4 (4×50 kW) Maximum torque

referred to the motor shaft 450 Nm Acceleration at start

to the speed of 35 km/h 1.5 m/s2

Tram car deceleration at braking 1.7 m/s2

Tram car deceleration

at emergency braking 2.7 m/s2

Tram car maximum speed 60 km/h (16.6 m/s)

Housing

(5)

FT-105-600

FT

-105-600

Description

The application of independent inverters for powering of single motors guarantees high traction parameters, perfect performance at the slip point and no influence of non-uniform wear of wheel’s tyres on drive’s performance. The FT-105-600 drive inverter is a modern module inverter incorporating the IGBT technology. The converter control is in DSP technology (Digital Signal Processor) with application of Field Orientation Control Space Vector Pulse Width Modulation. The inverter system enables the drive to work with regulated torque, regenerative braking or rheostatic braking. The inverter has been equipped with an external air-cooling system, and can be built-up on the vehicle’s roof (two inverter modules in one container). The inverter is controlled by the CAN 2.0 connection. The controller of the inverter has been equipped with an built-in antislip system. Additionally, the system is equipped with an emergency power supply system (from the vehicle’s battery), it enables the vehicle to move out the intersectional isolator or crossing (in case of main power failure).

Specification of FT-105-600

Input rated voltage 600 VDC +30% -30% (750 VDC)

Auxiliary voltage 24V DC +30% -40% Rated current 200 Arms

Peak current 400 Arms Rated power 100 kW Frequency 0 – 130 Hz PWM frequency 3 kHz Insulation strength 4 kV

Cooling Forced, air

Weight 60 kg

Container dimensions 450×1296×1320 mm

Parameters of the vehicle

with 4×ANT-105-600

Supply voltage 600 VDC +25% -30% Rated power 4×100 kW

Number of motors per vehicle 4 Acceleration of the tram car at

the starting to the speed of 35 km/h 1.5 m/s2

Tram car deceleration

at braking (electrical) 1.7 m/s2

Tram car deceleration

at emergency braking 3 m/s2

Maximum tram car speed

at constant power 65 km/h (18 m/s) RH 105-600 3 phase M1 RH 105-600 D2 RH2 VEM WENT W1 D2 Q1 Q2 Q3 Q4 D1 FT1 WENT W1 RWà2 RWà1 24V-Inverters box ALARMS FT2 24V-SS 105-600 600V+ 600V-600V+ 600V-SFT1 FT105-600 24VDC power supply from the low voltage switch-gear

24VDC power supply from the low voltage switch-gear LF2 3 phase M2 N FT105-600 C1 24V+ L1 NL1 LF1 RV1 ZJ 24V+ 24V- w' w temp 600V+ SWà2 24V+ VEM SFT2 Q1 Q2 Q3 Q4 D1 FT2 SWà1 24V-24V+ 230VDC power supply from the low voltage switch-gear

C1

D3 D4

SS 105-600 230VDC power

supply from the low voltage switch-gear R2 DCDC1 DCDC Converter 24V+ 24V- 24VS-24VS+ Drive controller Drive controller Alarms CAN Alarms CAN ZJ 24V+ 24V- Control Control DSP Controller TMS320F241 SYSTEM DSP Controller TMS320F241 SYSTEM Braking resistors box ALARMS FT1 RH1 RV1 600V+ 600V-R2 Measure-ments Mea- sure-ments

Drawing of the 2×FT-105-600 container

(6)

1 2961 296 1 320 1 320 450450

FT-105-600

FT

-105-600

TRACTION INVERTER FOR ASYNCHRONOUS DRIVES

(7)

FT-170-600

FT

-170-600

TRACTION INVERTER FOR ASYNCHRONOUS DRIVES

Description

FT-170-600 traction inverter has been designed to drive the PR110 trolley-bus. The inverter is based on the IGBT technology. The inverter is controlled of the DSP (Digital Signal Processor) technology, applying the FC SVPWM (Field Orientation Control Space Vector Pulse Width Modulation) algorithm. The controller guarantees the optimal control of the asynchronous motor’s performance, achieving very good traction parameters and a high level of driving comfort. The inverter has been equipped with forced external air-cooling system. The system meets all European standards in regard to safety and radio interferences. The system is installed in the space previously occupied by the resistors (on roof mounting version is also available). The system has been equipped with an integrated reverser, which operates with regenerative braking or rheostatic braking. The applied components of the latest generation and an extensive diagnostic system guarantee a high level of reliability and low operating costs.

Specification

Input rated voltage 600 VDC +30% -30% (750 V) Auxiliary voltage 24 VDC +30% -40% Rated current 300 Arms

Maximum current 600 Arms Rated power 170 kW Frequency 0 – 130 Hz PWM frequency 3 kHz Insulation strength 4 kV

Cooling Forced, air

Weight 110 kg

Dimensions 355×982×790 mm

Schematic diagram of the driving system of the trolley-bus

STDa 280 6B Q5 230VAC 3 phase M M MW1 Q1 Q2 Q3 Q4 D1

FT

600VDC+ C1 FT170-600 M MW2 Q6 230VAC 24VDC Drive controller Alarms CANBUS ZJ Control 24V+ 24V-24V+ +12 GND -12 DSP Controller TMS320F241 SYSTEM RH 600VDC-= = DC/DC Converter VPKO161 RH 170-600 AUXILIARY POWER SUPPLY Measu-rements

(8)

FT

-170-600

Traction parameters of the PR110 trolley-bus

with an FT-170-600 inverter

Supply voltage 600 VDC +30% -30% Rated power 170 kW

Maximum torque

referred to the motor shaft 450 Nm Acceleration at starting up to the speed 35 km/h 1.5 m/s2 Vehicle deceleration at braking (electrical) 1.7 m/s2 Vehicle deceleration at emergency breaking 3 m/s2

Vehicle maximum speed

at constant power 65 km/h (18 m/s) Dimensions 355×992×790 mm v 20 0 5 10 15 0 10 20 30 40 50 60 70 0 0.5 1 1.5 2 -0.5 -1 -1.5 -2 750 500 V [m/s] t [s] s [m] a [m/s2] a s

v – speed a – acceleration s – road

1000

250

Traction characteristics of the PR110

trolley-bus with an FT-170-600 inverter

TRACTION INVERTER FOR ASYNCHRONOUS DRIVES

FT-170-600

Housing

354.5 872 981.5 790

(9)

FT

-300-600

FT-300-600

TRACTION INVERTER FOR ASYNCHRONOUS DRIVES

Description

FT-300-600 traction inverter is designed to drive high power suburban vehicles powered from the 600 VDC/750 VDC traction. The inverter applies the IGBT technology. Control is possible through the digital signal processor (DSP). The applied FOC SVPWM (Field Orientation Control Space Vector Pulse Width Modulation) algorithm ensures perfect traction parameters of the drive. The complex safety and diagnostics system ensures a failure-free and cost effective operation of the vehicle. The inverter system enables the performance of the drive with a regulated torque, regenerative or rheostatic braking. The inverter is equipped with forced air-cooling system; it is designed to be built-up on the vehicle’s roof. The inverter is controlled by means of the CAN 2.0 connection; the inverter’s controller is equipped with an built-in antislip system.

Specification of FT-300-600 inverter

Input rated voltage 600 VDC +30% -30% (750 VDC)

Auxiliary voltage 24 VDC +10% -40% Rated current 500 Arms

Maximum current 750 Arms Rated power 300 kW Frequency 0 – 130 Hz PWM frequency 3 kHz Insulation strength 4 kV

Cooling Forced, air

Weight 300 kg

Dimensions 1300×400×1200 mm

Specification of the EN95 vehicle (4×FT-300-600)

Supply voltage 600 VDC +30% -30% Rated power 4×300 kW

Number of motors per vehicle 4 Maximum torque referred

to the motor shaft 2230 Nm Acceleration of the vehicle at

the starting to the speed of 35km/h 1 m/s2

Maximum vehicle speed

at constant power 80 km/h (18m/s)

Diagram of FT-300-600 inverter

Speed control arm

Drive controller

FAN FAN

Alarms CAN

Control

Mea- sure-ments

(10)

1 200 1 300 400

FT-300-600

FT

-300-600

Housing

(11)

PSM-5

PSM-5

STATIC CONVERTER

Description

The PSM-5-105N static converter coupled with a ventilation unit is designed to supply auxiliary circuitry of the tram with direct voltage of 42 V, as well as to supply asynchronous motors of its own ventilation set with single-phase AC of 220 V, 50Hz.

Specification

Input voltage 600 VDC, +30%/-30% (750 VDC)

Output voltage 42 VDC 100A 230 V 50Hz, 1.1 kVA Rated power 5 kW

Ambient temperature -30°÷+40 °C Protection ratio IP55

Weight 120 kg ± 10 kg Dimensions 1385×525×438.5 mm

Block diagram

U3 U5 U4 LEM CONTROL UNIT X2 ALARMS SIGNALLING CONTROL -40VDC PE PE S1 U1 U2 U7 600V X1 X2

PSM-5-105N

+40VDC

Housing

c f 2 1 1 2 a 21 a 1 385 525 438.5

(12)

PSM-14

PSM-14

STATIC CONVERTER

Description

The PSM-14-105N static converter has been designed to convert the DC tram traction voltage (600 VDC/750 VDC) into 40 VDC, 24 VDC and 3×400 V/50 Hz voltage of auxiliary circuits (with a possibility of supplying single-phase loads). Integrated ventilation unit is cooling the traction motors, traction converter and braking resistor.

Specification

Input voltage 400÷900 VDC Operating voltage 360÷1000 VDC Total power 18 kVA

DC1 output 40 VDC/55 A

Limitation of the battery

charging current 22 A

DC2 output 26 VDC/115 A

DC voltage stability d 1% DC voltage ripples d 1 Vpp

(rated load)

AC1 output (50Hz) 3×400 VDC (230 VDC)/5 kVA

AC2 output (50Hz) 230 V/0.4 kVA Total efficiency t 90% Ambient temperature -30 °C÷+40 °C Protection ratio IP64

Weight 130 kg (± 10%) Dimensions 570×1386×474 mm

Block diagram

Housing

U3 U5 U4 CONTROL UNIT X2 - 40V 3x400VAC + N + PE S1

PSM-14

U1 U2 U7 +600V X1 X2 +40V B1 D1 PE °C X2 U6 X3 +26V -26V LEM 474 1 386 569.8

(13)

PSM-17

PSM-17

STATIC CONVERTER

Description

The PSM-17 static converter has been designed to convert the DC voltage of the 600/750 VDC traction into DC voltage 24 V as well as AC voltage 3×400 V and 230 V, needed to supply the auxiliary circuitry in the tram system, driver’s air conditioning and car ventilation.

Specification

Input voltage operating range 400÷900 VDC (peak up to 1200 V)

Output voltage DC 24 VDC

P=12 kW; In=450 A; (520 A/15 s); Un=28.1 V (20 °C); Thermal voltage compensation: up to 5 °C: 28.4 V, above 5°C: drop of 57 mV/°C; Temperature range up to +40 °C; Reduction of battery charging current d66 A; Voltage stability d1%; Voltage ripples d0.5%; Electronic (overload, short-circuit) protection

Output voltage AC 3×400 VAC (50 Hz) S= 10 kVA; In= 14,5 A (87 A/ 5 s); Voltage stability d ± 5%; Frequency stability d ± 0,2%; THD(u) d 5%; Acceptable unbalancing of phase load – 50%; Electronic (overload, short-circuit) protection

Maximum power 22 kW Total efficiency t90% Protection:

• against the change of power supply polarity • against overvoltages in the power supply network • against short-lasting (up to 10 s) blackouts • inverter interlock at the one-phase decay

Monitoring CANBUS (CAN 2.0 B) connection; RS232 Ambient temperature -30 °C÷+40 °C Protection ratio IP64

Weight 200 kg (± 10%) Dimensions 287×1172×1030 mm

Block diagram

Housing

U3 U5 U4 CONTROL UNIT X4 ALARMS SIGNALLING CONTROL X3 - 24V BAT 3×400VAC + N + PE S1

PSM-17

U1 U2 U6 +600V X1 X2 +24V B1 D1 PE °C X4 1 172 287.2 1 030 227.2

(14)

A PE 1 2 PE a 12 1A a 1B2 2 1211 3 PE2 1 400 1 200 1 400

PSM-40

PSM-40

Description

The PSM-40 static converter has been designed to convert the DC voltage 600/750 VDC of the tram traction into DC voltage 24 VDC and AC voltage 3×400 VAC, applied in the low voltage systems of tramcars or metro. Output power is sufficient also to supply HVAC unit and air compressor.

Specification

Input voltage operating range 400÷900 VDC

Output voltage DC 24 VDC

P= 6 kW; In= 230 A; Overload capacity10 kW/30 s U = 27.2V; Voltage stability d1%; Voltage ripples d0.5%;

Output voltage AC 3×400 V (50 Hz)

S= 25 kVA; In= 36 A; Overload capacity 80 kVA/5 s; Voltage stability d± 5%; Frequency stability d± 0.2%; THD(u) d5%; Load unbalancing 50%; Electronic short-circuit protection Total output power 40 kW

Total efficiency t88% Ambient temperature -30 °C÷+40 °C Protection ratio IP21

Weight ok. 200 kg Dimensions 400×1400×1200 mm

Block diagram

U3 U5 U4 LE M CONTROL UNIT X3 24VD C BAT 3×400VAC S1

PSM-40

U1 U2 U6 600V X1 X2

Housing

STATIC CONVERTER

References

Related documents

We hypothesised that the academic detailing intervention would reduce admission ordering by improving clinician awareness of the inappropriate- ness of population-based screening

The traditional approach for defining configuration options has caused many Symfony apps to include an option like the following, which would be used to control the number of posts

The percentages of IgG-coated fecal bacteria for the four different groups (solid circles, in vivo IgG coating patients; open circles, in vivo IgG coating volunteers; solid

When diluted human anti-anthrax vaccine standard serum AVR414 was used in the device, two distinct red lines were observable at the “C” line and the test area (“T” line) identified

The Mahatma Gandhi National Rural Employment Guarantee Scheme (MGNREGS) is one such programme implemented by the Government of India that place people at the centre

Results: Mice whose residual host hematopoietic cells were capable of producing IL-12 had modestly higher survival, higher donor T cell engraftment, and significantly higher

This was also evidenced in our study by the decreased hemoglobin together with changes in the parameters associated with anemia of inflammation (increased plasma IL-6, hepci-