ЭЛЕКТРУМ АВ. Паспорт (eng)

Transcription

1 ЭЛЕКТРУМ АВ Паспорт (eng) Реле постоянного тока С трансформаторной изоляцией По вопросам продаж и поддержки обращайтесь: Архангельск (882) Астана +7(772) Белгород (722) Брянск (832) Владивосток (23) Волгоград (8) Вологда (872) Воронеж (73) Екатеринбург (33) Иваново (932) Ижевск (32) Казань (83) Калининград (02) Калуга (82) Кемерово (382) Киров (8332) Краснодар (86) Красноярск (39) Курск (72) Липецк (72) Магнитогорск (359) Москва (95) Мурманск (852) Набережные Челны (8552) Нижний Новгород (83) Новокузнецк (383) Новосибирск (383) Орел (862)-53-2 Оренбург (3532) Пенза (82) Пермь (32) Ростов-на-Дону (863) Рязань (92)6-6-6 Самара (86) Санкт-Петербург (82) Саратов (85) Смоленск (82)29--5 Сочи (862) Ставрополь (8652) Тверь (822) Томск (3822) Тула (872) Тюмень (352) Ульяновск (822) Уфа (37) Челябинск (35) Череповец (8202) Ярославль (852)

2 . APPLICATION AN PROUCE MOULES Modules for C commutation (semiconductor normally opened unipolar relay with transformer decoupling with low current and low switch-on time) of types MT, MT5, MTPT, MT5PT are intended to use in automatics devices as a commutating element with maximum peak voltage up to 200 V and C up to 00 A. The modules for C commutation (hereinafter modules) are represented with the following versions: MTA a module based on MOSFET-transistor shunted with a reverse fast-recovery diode with control voltage 0 V. MTB a module based on MOSFET-transistor shunted with a reverse fast-recovery diode with control voltage 0 30 V. By the power switch types the modules MTA(B) are represented with the following versions (specified maximum Peak voltage 60 V with an amount of C 0,20,0,60,80,20,200,20,300,00 A. Peak voltage 00 V with an amount of C 5,0,20,0,60,80,20,60,200,20,300,00 A. Peak voltage 200 V with an amount of C 5,0,20,30,0,60,80,20,60,200,20,320,00 A. Peak voltage 250 V with an amount of C 5,0,20,0,60,80,20,60,200,20 A. MT5A a module based on IGBT-transistor shunted with a reverse fast-recovery diode with control voltage 0 V. MT5B a module based on IGBT-transistor shunted with a reverse fast-recovery diode with control voltage 0 30 V. By types of power switch the modules of MT5A(B) are represented with following versions (specified maximum Peak voltage 600 V with an amount of C 5,0,20,30,0,60,80,20,60,80,20,300 A. Peak voltage 200 V with an amount of C 5,0,20,0,60,80,20,60,80,20,300 A. MTPTA a module based on MOSFET-transistor shunted with a reverse fast-recovery diode with control voltage 0 V, with inbuilt protections against overvoltage and current overload. MTPTB a module based on MOSFET-transistor shunted with a reverse fast-recovery diode with control voltage 0 30 V, with inbuilt protections against overvoltage and current overload. By types of power switch the modules of MTPTA(B) are represented with following versions (specified maximum Peak voltage 0 V with an amount of C 0,20,60,90,20,50,20,320,00 A. Peak voltage 60 V with an amount of C 0,20,60,90,20,50,20,320,00 A. Peak voltage 00 V with an amount of C 5,0,20,0,60,90,20,50,80,20,320 A. Peak voltage 200 V with an amount of C 5,0,20,60,90,20,50,80,20 A. Peak voltage 250 V with an amount of C 5,0,20,30,0,50,60,90,20,50,80 A. MT5PTA a module based on IGBT-transistor shunted with a reverse fast-recovery diode with control voltage 0 V, with inbuilt protections against overvoltage and current overload. MT5PTB a module based on IGBT-transistor shunted with a reverse fast-recovery diode with control voltage 0 30 V, with inbuilt protections against overvoltage and current overload. By types of power switch the modules MT5PTA(B) are represented with the following versions (specified maximum Peak voltage 600 V with an amount of current 5,0,20,30,0,50,60,75,90,20,50,80,20 A. Peak voltage 200 V with an amount of current 5,0,20,30,0,50,60,75,90,20,50,80,20 A. epending on the current and version the modules MO6 are produced in the versions that are represented in Table.. The modules are produced only in the versions where at crossing the class line (peak voltage of power switch, maximum permissible one) of the module and the current column is specified the overall dimension corresponding to the version.

3 Table. Produced modules МT, 5 and corresponding to them overall dimensions Type Class , MT , MT , , MTPT , MT5PT On Figure. is shown modules names explanation. Figure. Modules names explanation For example, module MT5A-80-2: a module with control voltage 0 V, with maximum permissible collector-emitter voltage 200 V and maximum C 80 A. 2. GENERAL ESCRIPTION The modules MT, MT5В don t have any inbuilt protections; the relays operate only in accordance with the control signal. The modules MT(5)PTA and MT(5)PTB have inbuilt protections against overvoltage and current overload. The overvoltage protection is represented with a Zener diode installed in parallel with collector-gate ; when increasing the voltage (in collector-emitter ) set by the threshold Zener diode the power voltage opens up the transistor, thereby loading the and decreasing voltage surge amplitude. Current overload protection is represented with represented by a current collector resistor installed in the power, with a comparison and a reset. When the current exceeds the set threshold during longer than 0 µs the control closes the transistor for 5 20 ms (it depends on the value of overcurrent), after that the transistor opens again and if overload wasn t eliminated then the protection cycle repeats. Functional s combined with switching s of modules MT, 5 are represented on Figures

4 3+ - Gene - 2 PE V andor / V2 Gene - Figure 2. Functional of MT (figure 6.) Figure 2.2 Functional of MT (figure 6.2,3,) PE V and / or V Gene- 2 PE V V Gene PE V or V2 Figure 2.3 Functional of MT5 (figure 6.) Figure 2. Functional of MT5 (figure 6.2,3,) 3+ - Contr(grn) Gene - SC( red) 2 PE V and / or V2 Contr.(grn) Gene- SC( red) PE V and / or V2 Figure 2.5 Functional of MTPT (figure 6.5) Figure 2.6 Functional of MTPT (figure 6.6,7,8) Contr.(yellow) +3 Gene- - SC( red) 2 PE V andor / V2 Figure 2.7 Functional of MT5PT (figure 6.) Contr.(grn) +3 Gene- - SC( red) 2 PE V and / or V2 Figure 2.8 Functional of MT5PT (figure 6.6,7,8) Where module; PE protection element; V,V2 diodes (are installed at inductive load); B active protection unit (provides voltage limitation on transistor drain (collector) on level that not higher than U lim ).

5 3. BASIC PARAMETERS Basic parameters and maximum permissible parameters of the modules at temperature 25 0 С are shown in Tables Table 3. Basic and maximum permissible parameters of control of modules MT, 5 MT MT5 MTPT MT5PT Input current of ver. «A» at U IH = V (max), ma Input current of ver. «A» at U IH = 0V (max), ma I Input current of ver. «B» at U IN IH = 0 V (max), ma Input current of ver. «B» at U IH = 30 V (max), ma Switch-on voltage of ver. «A», V 0 U Switch-on voltage of ver. «B», V IH 0 30 Switch-off voltage of ver. «A», V U Switch-off voltage of ver. «B», V IL On / off duration (max), µs t on / off 50 / / / / 00 Table 3.2 Basic parameters of protections of modules MTPT, MT5PT Value Current protection operation delay (max), µs t d(sc) 0 Blocking duration when operating of current protection (typ.), ms t B(SC) 20 For modules with maximum current: Current of protection operation against current overload (typ.), A I SC For modules with class: 36 0, 8 0,6 Voltage of protection operation against overvoltage (typ.), V U АС , Notes

6 Table 3.3 Basic and maximum permissible parameters of modules of 0, class up to 90 A rain-source voltage (max), V V SS 0 irect voltage of power (max), V V C 22 C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω R S(on) irect voltage fall on reverse diode (max), V V F.3 Leakage current of power switch (max), µa I SS 50 Junction-base thermal resistance (max), C/W R th(j-a) Insulation strength, (C), V V ISOL 000 Table 3. Basic and maximum permissible parameters of modules of 0, class up to 00 A rain-source voltage (max), V V SS 60 irect voltage of power (max), V V C 22 C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω R S(on) irect voltage fall on reverse diode (max), V V F.3 Leakage current of power switch (max), µa I SS 50 Junction-base thermal resistance (max), C/W R th(j-a) Insulation strength, (C), V V ISOL 000 Table 3.5 Basic and maximum permissible parameters of modules of 0,6 class up to 80 A rain-source voltage (max), V V SS 60 irect voltage of power (max), V V C 35 C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω R S(on) irect voltage fall on reverse diode (max), V V F.3 Leakage current of power switch (max), µa I SS 50 Junction-base thermal resistance (max), C/W R th(j-a) Insulation strength, (C), V V ISOL 000

7 Table 3.6 Basic and maximum permissible parameters of modules of 0,6 class up to 00 A rain-source voltage (max), V V SS 60 irect voltage of power (max), V V C 35 C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω R S(on) irect voltage fall on reverse diode (max), V V F.3 Leakage current of power switch (max), µa I SS 200 Junction-base thermal resistance (max), C/W R th(j-a) Insulation strength, (C), V V ISOL 000 Table 3.7 Basic and maximum permissible parameters of modules of class up to 80 A rain-source voltage (max), V V SS 00 irect voltage of power (max), V V C 60 C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω R S(on) irect voltage fall on reverse diode (max), V V F.3 Leakage current of power switch (max), µa I SS 50 Junction-base thermal resistance (max), C/W R th(j-a) Insulation strength, (C), V V ISOL 000 Table 3.8 Basic and maximum permissible parameters of modules of class up to 00 A rain-source voltage (max), V V SS 00 irect voltage of power (max), V V C 60 C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω R S(on) irect voltage fall on reverse diode (max), V V F.3 Leakage current of power switch (max), µa I SS 200 Junction-base thermal resistance (max), C/W R th(j-a) Insulation strength, (C), V V ISOL 000

8 Table 3.9 Basic and maximum permissible parameters of modules of 2 class up to 80 A rain-source voltage (max), V V SS 200 irect voltage of power (max), V V C 30 C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω R S(on) irect voltage fall on reverse diode (max), V V F.3 Leakage current of power switch (max), µa I SS 50 Junction-base thermal resistance (max), C/W R th(j-a) Insulation strength, (C), V V ISOL 000 Table 3.0 Basic and maximum permissible parameters of modules of 2 class up to 00 A rain-source voltage (max), V V SS 200 irect voltage of power (max), V V C 30 C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω R S(on) irect voltage fall on reverse diode (max), V V F.3 Leakage current of power switch (max), µa I SS 200 Junction-base thermal resistance (max), C/W R th(j-a) Insulation strength, (C), V V ISOL 000 Table 3. Basic and maximum permissible parameters of modules 2,5 class up to 80 A rain-source voltage (max), V V SS 250 irect voltage of power (max), V V C 70 C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω R S(on) irect voltage fall on reverse diode (max), V V F.3 Leakage current of power switch (max), µa I SS 50 Junction-base thermal resistance (max), C/W R th(j-a) Insulation strength, (C), V V ISOL 000

9 Table 3.2 Basic and maximum permissible parameters of modules of 2,5 class up to 20 A rain-source voltage (max), V V SS 250 irect voltage of power (max), V V C 70 C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω R S(on) irect voltage fall on reverse diode (max), V V F.3 Leakage current of power switch (max), µa I SS 200 Junction-base thermal resistance (max), C/W R th(j-a) Insulation strength, (C), V V ISOL 000 Table 3.3 Basic and maximum permissible parameters of modules of 6 class up to 60 A rain-source voltage (max), V V CES 600 irect voltage of power (max), V V C 350 C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω V CE(on) 3.0 irect voltage fall on reverse diode (max), V V F 2.5 Leakage current of power switch (max), µa I CES 500 Junction-base thermal resistance (max), C/W R th(j-a) Insulation strength, (C), V V ISOL 000 Table 3. Basic and maximum permissible parameters of modules of 6 class up to 300 A rain-source voltage (max), V V CES 600 irect voltage of power (max), V V C 350 C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω V CE(on) 3.0 irect voltage fall on reverse diode (max), V V F 2.5 Leakage current of power switch (max), µa I CES 3000 Junction-base thermal resistance (max), C/W R th(j-a) Insulation strength, (C), V V ISOL 000

10 Table 3.5 Basic and maximum permissible parameters of modules of 2 class up to 60 A rain-source voltage (max), V V CES 200 irect voltage of power (max), V V C 650 C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω V CE(on) 3.0 irect voltage fall on reverse diode (max), V V F 2.5 Leakage current of power switch (max), µa I CES 500 Junction-base thermal resistance (max), C/W R th(j-a) Insulation strength, (C), V V ISOL 000 Table 3.6 Basic and maximum permissible parameters of modules of 2 class up to 300 A rain-source voltage (max), V V CES 200 irect voltage of power (max), V V C 650 C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω V CE(on) 3.0 irect voltage fall on reverse diode (max), V V F 2.5 Leakage current of power switch (max), µa I CES 3000 Junction-base thermal resistance (max), C/W R th(j-a) Insulation strength, (C), V V ISOL 000. INSTRUCTIONS FOR USE General requirements It is recommended to operate the module at operating value of the average current not more than 80% from specified one in the name of the module and the junction temperature not more than (70 80)% from the maximum one. It is not allowed to operate the module in modes at simultaneous influence of two or more maximum permissible values. In the electric of equipment with using of the modules should be provided the fast-speed protection against prohibitive overloads, SCs and commutating overloads. Module mounting The module is mounted in the equipment to cooler (chassis, application housing, metal plates, etc.) in any orientation with screws М with torque (5 0.5) N m, with obligatory installation of flat and spring washers. The module should be located in such a way to protect it against additional heat from neighbor elements. The planes of cooler ribs should be oriented in the direction of air flow. The contact area of the cooler should have roughness not more than 2.5 µm and flatness tolerance not more than 30 µm. Cooler surface should not have any rough edges, honeycombs. There should not be extraneous particles between the module and cooler. To improve the heat balance the module installation to mounting area or cooler should be carried out by instrumentality of heat conducting pastes or having similar heat conducting properties. When mounting, you should provide uniform pressure of module housing to cooler. For this purpose you should tighten all screws uniform in 2 steps by turns: first, located on one diagonal, then on the other one. When dismounting the module the screw tightening should be done in the reverse order.

11 Not earlier than in 3 hours after mounting the screws should be rotated to the end, keeping the prescribed torque, because the part of heat conducting paste under pressure will outflow and the fastening can fail. You can mount the several modules without additional insolating spacer to one cooler, on condition that voltage between outputs of different modules will not exceed the minimum value of isolation breakdown voltage of each of them or when cooler is grounded. Connection to module Electric wires and cables will be connected to power contacts of the module by means of screws M6 or М5 with torque ( 0.5) N m or by means of bolts М8 or M0 with torque (5 0.5) N m and the washers that are supplied in the package. Power wires should be connected by means of connectors with corrosion-inhibiting cover, which are purified of foreign layers. When the screws (bolts) are tightened it is recommended to fasten the connection with paint. It is recommended to tighten screws (bolts) repeatedly in 8 days and in 6 weeks after the start of operating. Afterwards tightening should be controlled at least once a half year. The controlling module outputs (gate and control source output) are intended for mounting by means of soldering or split connectors. Permissible number of module outputs re-soldering during electronic (assembly) edit is three. Outputs soldering should be performed at temperature not higher than (235 5) С. Soldering duration is not longer than 3 sec. When mounting and operating it is necessary to make protection measures against static electricity impact and overvoltage in gate ; on mounting personnel should use a ground band and grounded lowvoltage soldering irons with transformer supply. Operation requirements The module should be used under mechanical loads in accordance with Table.. Table. Mechanical loads impact External exposure factor External exposure factor value Sinusoidal vibration: - acceleration, m/s 2 (g); 50 (5) - frequency, Hz Multiple-acting mechanic shock: - peak shock acceleration, m/s 2 (g); 0 () - shock acceleration duration, ms 50 Linear acceleration, m/s 2 (g) 5000 (500) The module should be used under climatic loads in accordance with Table.2. Table.2 Climatic loads impact Climatic factor Climatic factor value Reduced ambient temperature: - operating, С; maximum, С - 5 High ambient temperature: - operating, С; maximum, С + 00 Relative humidity at temperature 35 С without moisture condensation, %, max 98 Safety requirements. Working with the module should only be performed by qualified personnel. 2. o not touch the power terminals of the module when applying a voltage. 3. o not connect or disconnect wires and connectors while the power to the module is applying a voltage.. o not touch the module radiator, if it is not grounded in and is applying a voltage on it.

12 5. o not touch the cooler and the module housing during its operation, since their temperature can be very high. 6. Immediately turn off the power supply of the module if it discharges smoke, odor or abnormal noises, check if the module correctly connected. 7. It is not allowed to penetrate water and other liquids to the module. 5. RELIABILITY REQUIREMENTS The manufacturer guarantees the quality of the module all the requirements of the passport if the consumer observes terms and conditions of storage, installation and operation, as well as guidance on the application specified in the user s manual. Operating warranty is two years from the acceptance date, in case of requalification from the date of the requalification. Reliability probability of the module for hours must be at least Gamma percentage life (Т ) of module at = 90% in typical operation conditions should not be less than hours within lifetime. Gamma-percent service life of the modules, subject to cumulative operating time is not more than gamma-percent life, not less than 0 years, at = 90 %. Gamma-percent storageability time of the modules, at = 90 % and storing 0 years.

13 6. OVERALL AN CONNECTING IMENSIONS 27,9 23,3 М5 2screws 2 3 М3 2screws 2 25, 5,7 7,6 М 6 2 pcs 2 cont. S0,8,5 0 max ,5 7 max 3,2 7,5 58, Figure 6. Overall drawing of modules MT, MT5 with maximum current up to 80 A,3 92 5,5 holes Figure 6.2 Overall drawing of modules MT, MT5 with maximum current 20, 60 A М8 3pcs 2 cont. 9 Bolt М0 3pcs 2 cont. 9max 29 S0, S0,8 29 0max,5 0 max , max 7, max 92 5,5 holes 92,5 5,5 holes Figure 6.3 Overall drawing of modules MT, MT5 with maximum current 200, 20 A Figure 6. Overall drawing of modules MT, MT5 with maximum current 300, 00 A

14 27,9 2,3 М5 2screws 2 SC 3 Ctrl М3 2screws 23 25, 5,7 7,6 29 М 6 2pcs 2 cont. S0,8,5 0 max max 2 7 max 3,2 7,5 58, Figure 6.5 Overall drawing of modules MTPT, MT5PT with maximum current up to 80 A,3 92 5,5 holes Figure 6.6 Overall drawing of modules MTPT, MT5PT with maximum current up to 60 A 29 23,5 М 8 3pcs 2 cont. S0,8,5 0 max max 2 7 max 7, М 0 3p cs 2 cont. S0,8,5 0 max max 2 7 max 92 5,5 holes 92 5,5 holes Figure 6.7 Overall drawing of modules MTPT, MT5PT with maximum current 80, 20 A Figure 6.8 Overall drawing of modules MTPT, MT5PT with maximum current 320, 00 A Precious metals are not contained.

15 COMPACT MOULES FOR C COMMUTATION MT, MT5, MTPT, 2MTPT, MT5PT. APPLICATION AN PROUCE MOULES Compact modules for C commutation (semiconductor normally opened unipolar relay with transformer decoupling with low current and low switch-on time) of types MT, MT5, MTPT, 2MTPT, MT5PT are intended to use in automatics devices as a commutating element with maximum peak voltage up to 200 V and C up to 0 A. By the control types all the modules have the version «A» (control voltage 0 V) or «B» (control voltage 0 30 V). The mark «PT» specified in the module s name shows the presence of inbuilt protection against overcurrent. The modules for C commutation (hereinafter - modules) are represented with the following versions: MTA(B)-PP a module based on MOSFET-transistor shunted with a reverse fast-recovery diode in a housing corresponding to Fig. 6.. Peak voltage 00 V with C 5 A. Peak voltage 200 V with C 5 A. Peak voltage 00 V with C 2.5 or 5 A. Peak voltage 800 V with C 5 A. MTA(B)-PP2 a module based on MOSFET-transistor shunted with a reverse fast-recovery diode in a housing corresponding to Fig Peak voltage 00 V with C 5 A. Peak voltage 200 V with C 5 A. Peak voltage 00 V with C 2.5 or 5 A. Peak voltage 800 V with C 5 A. MTA(B)-PP6 a module based on MOSFET-transistor shunted with a reverse fast-recovery diode in a housing corresponding to Fig.6.6. Peak voltage 00 V with C 2.5 A. Peak voltage 200 V with C 2.5 A. MT5A(Б)-PP a module based on IGBT-transistor shunted with a reverse fast-recovery diode in a housing corresponding to Fig.6.. Peak voltage 600 V with C 2.5 A. Peak voltage 200 V with C 2.5 A. MT5A(B)-PP6 a module basedon IGBT-transistor shunted with a reverse fast-recovery diode in a housing corresp. to Fig.6.6. Peak voltage 600 V with C 2.5 A. Peak voltage 200 V with C 2.5 A. MTPTA(B)-PP a module based on MOSFET-transistor shunted with a reverse fast-recovery diode in a housing corresp. to Fig.6. with inbuilt protection s. Peak voltage 60 V with C 5 A. Peak voltage 00 V with C 2.5 or 5 A. Peak voltage 200 V with C 2.5 or 5 A. Peak voltage 00 V with C 2.5 A. MTPTA(B)-PP2 a module based on MOSFET-transistor shunted with a reverse fast-recovery diode in a housing corresp. to Fig.6.2 with inbuilt protection s.

16 By the power switch types the modules are represented with the following versions (specified maximum Peak voltage 60 V with C 5 A. Peak voltage 00 V with C 2.5 or 5 A. Peak voltage 200 V with C 2.5 or 5 A. Peak voltage 00 V with C 2.5 A. MTPTA(B)-PP3 a module based on MOSFET-transistor shunted with a reverse fast-recovery diode in a housing corresp. to Fig.6.3 with inbuilt protection s. Peak voltage 60 V with C 0 A. Peak voltage 00 V with C 0 A. Peak voltage 200 V with C 8 A. Peak voltage 00 V with C 5 A. 2MTPTA(B)-PP a module based on MOSFET-transistor shunted with a reverse fast-recovery diode in a housing corresp. to Fig.6. with inbuilt protection s. Peak voltage 60 V with C 5 A. Peak voltage 00 V with C 2.5 or 5 A. Peak voltage 200 V with C 2.5 or 5 A. Peak voltage 00 V with C 2.5 А. 2MTPTA(B)-PP5 a module based on MOSFET-transistor shunted with a reverse fast-recovery diode in a housing corresp. to Fig.6.5 with inbuilt protection s. Peak voltage 60 V with C 0 A. Peak voltage 00 V with C 0 A. Peak voltage 200 V with C 8 A. Peak voltage 00 V with C 5 A. MT5PTA(B)-PP a module based on IGBT-transistor shunted with a reverse fast-recovery diode in a housing corresp. to Fig.6. with inbuilt protection s. Peak voltage 600 V with C 2 A. Peak voltage 200 V with C 2 A. MT5PTA(B)-PP2 a module based on IGBT-transistor shunted with a reverse fast-recovery diode in a housing corresp. to Fig.6.2 with inbuilt protection s. Peak voltage 600 V with C 2 A. Peak voltage 200 V with C 2 A. MT5PTA(B)-PP3 a module based on IGBT-transistor shunted with a reverse fast-recovery diode in a housing corresp. to Fig.6.3 with inbuilt protection s. Peak voltage 600 V with C A. Peak voltage 200 V with C A. epending on the current and version the modules MO6 are produced in the versions that are represented in Table.. The modules are produced only in the versions where at crossing the class line (peak voltage of power switch, maximum permissible one) of the module and the current column is specified the overall dimension corresponding to the version.

17 Table. Produced modules МT, 5 and corresponding to them overall dimensions Type Class Fig.6. 2 Fig.6. MTA(B)-PP Fig.6. Fig.6. 8 Fig.6. Fig Fig.6.2 MTA(B)-PP2 Fig.6.2 Fig Fig.6.2 Fig.6.6 MTA(B)-PP6 2 Fig Fig.6. MT5A(B)-PP 2 Fig.6. 6 Fig.6.6 MT5A(B)-PP6 2 Fig.6.6 0,6 Fig.6. Fig.6. Fig.6. MTPTA(B)-PP 2 Fig.6. Fig.6. Fig.6. 0,6 Fig.6.2 Fig.6.2 Fig.6.2 MTPTA(B)-PP2 2 Fig.6.2 Fig.6.2 Fig.6.2 0,6 Fig.6.3 Fig.6.3 MTPTA(B)-PP3 2 Fig.6.3 Fig.6.3 0,6 Fig.6. Fig.6. Fig.6. 2MTPTA(B)-PP 2 Fig.6. Fig.6. Fig.6. 0,6 Fig.6.5 Fig.6.5 2MTPTA(B)-PP5 2 Fig.6.5 Fig Fig.6. MT5PTA(B)-PP 2 Fig.6. 6 Fig.6.2 MT5PTA(B)-PP2 2 Fig Fig.6.3 MT5PTA(B)-PP3 2 Fig.6.3 On Figure. is shown modules names explanation. Figure. Modules names explanation For example, module MTA-5--PP2: a module with control voltage 0 V, with maximum permissible drain-source voltage 00 V and maximum C 5 A.

18 2. GENERAL ESCRIPTION Functional s combined with switching s of modules MT, 5 are represented on Figures V and / or V2 Figure 2. Functional MTA(B)-PP, MTА(B)-PP2 (figure 6.,2) + - Gene- Out+ Gene Out- V and / or V2 Contacts assignment:, 2, 3, «Out-»; 5 «-»; 7, 8, 9, 0 «Out+»; 6 «+» Figure 2.2 Functional MTА(B)-PP6 (figure 6.6) Gene - 2 PE V V2 Figure 2.3 Functional MT5A(B)-PP (figure 6.) + - Gene - Out+ Out- V andor / V2 Contacts assignment:, 2, 3, «Out-»; 5 «-»; 7, 8, 9, 0 «Out+»; 6 «+» Figure 2. Functional MT5A(B)-PP6 (figure 6.6) 3+ - Gene - 2 V and / or V2 In MT5PTA(B) instead of MOSFET-transistors are installed IGBT-transistors with a similar control (drain-source correspond to collector-emitter) Figure 2.5 Functional MTPTA(B)-PP, MTPTA(B)-PP2, MTPTA(B)-PP3, MT5PTA(B)-PP, MT5PTA(B)-PP2, MT5PTA(B)-PP3 (fig.6.,2,3) Gene- Gene V and / or V2 V3 and / or V Figure 2.6 Functional 2MTPTA(B)-PP, 2MTPTA(B)-PP5 (figure 6.,5) Where module; PE protection element; V,V2 diodes (are installed at inductive load).

19 The modules MT, MT5 don t have any inbuilt protections; the relays operate in accordance with the control signal only. The modules MT(5)PTA и MT(5)PTB have a inbuilt protection against overcurrent. The protection against overcurrent is represented a pick-up resistor that installed in the power, also represented comparison and reset. When the current exceeds the set threshold during more than 0 µs the control cuts off the transistor for 00 ms (it depends on the value of current exceeding), after that the transistor opens again and if the overload was not eliminated then the cycle repeats. 3. BASIC PARAMETERS Basic parameters and maximum permissible parameters of the modules at temperature 25 0 С are shown in Tables Table 3. Basic and maximum permissible control parameters of modules MT, MT5 MT MT5 MTPT MT5PT Input current of ver. «A» at U IH = V (max), ma Input current of ver. «A» at U IH = 0V (max), ma I Input current of ver. «B» at U IN IH = 0 V (max), ma Input current of ver. «B» at U IH = 30 V (max), ma Switch-on voltage of ver. «A», V 0 U Switch-on voltage of ver. «B», V IH 0 30 Switch-off voltage of ver. «A»,V U Switch-off voltage of ver. «B»,V IL On / off duration (max), µs t on / off 50 / / / / 00 Table 3.2 Basic parameters of current protection of modules MTPT, MT5PT Value Notes Current protection operation delay (max), µs t CP 0 Blocking duration when operating of current protection (typ.), ms t B 00 Current of protection operation against current overload (typ.), A I CP For modules with maximum current:

20 Table 3.3 Basic and maximum permissible parameters of modules of 0,6 and classes Power assembly type (current-class) 5-0,6 0-0,6 2, rain-source voltage (max), V V SS irect voltage of power (max), V V C C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω R S(on) irect voltage fall on reverse diode (max), V V F.3 Leakage current of power switch (max), µa I SS 00 Junction-base thermal resistance (max), C/W R th(j-a) 0 (2.7) * Insulation strength, (C), V V ISOL 000 Table 3. Basic and maximum permissible parameters of modules of 2,, 8 classes Power assembly type (current-class) 2, , rain-source voltage (max), V V SS irect voltage of power (max), V V C C of power (max), A I C Pulse current of power (max), A I P rain-source resistance in open state (max), mω R S(on) irect voltage fall on reverse diode (max), V V F.3 Leakage current of power switch (max), µa I SS 00 Junction-base thermal resistance (max), C/W R th(j-a) 0 (2.7) * Insulation strength, (C), V V ISOL Table 3.5 Basic and maximum permissible parameters of modules of 6, 2 classes Power assembly type (current-class) 2-6 2, , Collector-emitter voltage (max), V V CES irect voltage of power (max), V V C C of power (max), A I C Pulse current of power (max), A I P Collector-emitter saturation voltage (max), V V CE(on) 3.0 irect voltage fall on reverse diode (max), V V F 2.5 Leakage current of power switch (max), µa I CES 250 Junction-base thermal resistance (max), C/W R th(j-a) 0 (2.7) * Insulation strength, (C), V V ISOL 000 * - in the brackets shown the value for housings of types PP3 and PP5

21 . INSTRUCTIONS FOR USE General requirements It is recommended to operate the module at operating value of the average current not more than 80% from specified one in the name of the module and the junction temperature not more than (70 80)% from the maximum one. It is not allowed to operate the module in modes at simultaneous influence of two or more maximum permissible values. In the electric of equipment with using of the modules should be provided the fast-speed protection against prohibitive overloads, SCs and commutating overloads. Module mounting The module is mounted in the equipment to cooler (chassis, application housing, metal plates, etc.) in any orientation with screws М with torque (5 0.5) N m, with obligatory installation of flat and spring washers. The module should be located in such a way to protect it against additional heat from neighbor elements. The planes of cooler ribs should be oriented in the direction of air flow. The contact area of the cooler should have roughness not more than 2.5 µm and flatness tolerance not more than 30 µm. Cooler surface should not have any rough edges, honeycombs. There should not be extraneous particles between the module and cooler. To improve the heat balance the module installation to mounting area or cooler should be carried out by instrumentality of heat conducting pastes or having similar heat conducting properties. When mounting, you should provide uniform pressure of module housing to cooler. For this purpose you should tighten all screws uniform in 2 steps by turns: first, located on one diagonal, then on the other one. When dismounting the module the screw tightening should be done in the reverse order. Not earlier than in 3 hours after mounting the screws should be rotated to the end, keeping the prescribed torque, because the part of heat conducting paste under pressure will outflow and the fastening can fail. You can mount the several modules without additional insolating spacer to one cooler, on condition that voltage between outputs of different modules will not exceed the minimum value of isolation breakdown voltage of each of them or when cooler is grounded. The modules PP, PP2, PP, and PP6 are not intended for mounting on the cooler. Connection to module The controlling module outputs are intended for mounting in equipment by means of soldering or split connectors. Permissible number of module outputs re-soldering during electronic (assembly) edit is three. Outputs soldering should be performed at temperature not higher than (235 5) С. Soldering duration is not longer than 3 sec. When mounting and operating it is necessary to make protection measures against static electricity impact and overvoltage in gate ; on mounting personnel should use a ground band and grounded lowvoltage soldering irons with transformer supply. Operation requirements The module should be used under mechanical loads in accordance with Table..

22 Table. Mechanical loads impact External exposure factor External exposure factor value Sinusoidal vibration: - acceleration, m/s 2 (g); 50 (5) - frequency, Hz Multiple-acting mechanic shock: - peak shock acceleration, m/s 2 (g); 0 () - shock acceleration duration, ms 50 Linear acceleration, m/s 2 (g) 5000 (500) The module should be used under climatic loads in accordance with Table.2. Table.2 Climatic loads impact Climatic factor Climatic factor value Reduced ambient temperature: - operating, С; maximum, С - 5 High ambient temperature: - operating, С; maximum, С + 00 Relative humidity at temperature 35 С without moisture condensation, %, max 98 Safety requirements. Working with the module should only be performed by qualified personnel. 2. o not touch the power terminals of the module when applying a voltage. 3. o not connect or disconnect wires and connectors while the power to the module is applying a voltage.. o not touch the module radiator, if it is not grounded in and is applying a voltage on it. 5. o not touch the cooler and the module housing during its operation, since their temperature can be very high. 6. Immediately turn off the power supply of the module if it discharges smoke, odor or abnormal noises, check if the module correctly connected. 7. It is not allowed to penetrate water and other liquids to the module. 5. RELIABILITY REQUIREMENTS The manufacturer guarantees the quality of the module all the requirements of the user s manual passport if the consumer observes terms and conditions of storage, installation and operation, as well as guidance on the application specified in the user s manual. Operating warranty is two years from the acceptance date, in case of requalification from the date of the requalification. Reliability probability of the module for hours must be at least Gamma percentage life (Т ) of module at = 90% in typical operation conditions should not be less than hours within lifetime. Gamma-percent service life of the modules, subject to cumulative operating time is not more than gamma-percent life, not less than 0 years, at = 90 %. Gamma-percent storageability time of the modules, at = 90 % and storing 0 years.

23 6. OVERALL AN CONNECTING IMENSIONS 3,2-0,25 0,8 0,2 0,6 pcs 25max 2 0,6 outputs ,9 27,9 0,2 7,6 5-0,2 26, 5max 27, ,5 3 22,5 39 Figure 6. Overall drawing of modules with ver. PP Figure Overall drawing of modules with ver. PP2 3, 2holes 2,7 2,7 2, ,5 22, ,6 pcs ,6 8 cont. 22,5 3 2,8 25max 0,6 7,78 0, max Figure Overall drawing of modules with ver. PP3 Figure 6. - Overall drawing of modules with ver. PP 7 2,7 2,7 2,7 0, ,7 8 cont. 3х5= ,6 7,78 0, ,3 2 holes 2,5 6max 26max Figure Overall drawing of modules with ver. PP ,5max Figure 6.6 Overall drawing of modules with ver. PP6 По вопросам продаж и поддержки обращайтесь: 5 9, 5max Архангельск (882) Астана +7(772) Белгород (722) Брянск (832) Владивосток (23) Волгоград (8) Вологда (872) Воронеж (73) Екатеринбург (33) Иваново (932) Ижевск (32) Казань (83) Калининград (02) Калуга (82) Кемерово (382) Киров (8332) Краснодар (86) Красноярск (39) Курск (72) Липецк (72) Магнитогорск (359) Москва (95) Мурманск (852) Набережные Челны (8552) Нижний Новгород (83) Новокузнецк (383) Новосибирск (383) Орел (862)-53-2 Оренбург (3532) Пенза (82) Пермь (32) Ростов-на-Дону (863) Рязань (92)6-6-6 Самара (86) Санкт-Петербург (82) Саратов (85) Смоленск (82)29--5 Сочи (862) Ставрополь (8652) Тверь (822) Томск (3822) Тула (872) Тюмень (352) Ульяновск (822) Уфа (37) Челябинск (35) Череповец (8202) Ярославль (852) emt@nt-rt.ru