Management of KUBARA LAMINA S.A.

Transcription

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2 The tradition of KUBARA LAMINA SA dates back to 957 in which Zakłady Lamp Nadawczych LAMINA was established. After numerous ownership transformations, the company is now a joint stock company called KUBARA LAMINA. From the beginning of the company s activity, one of the main areas of our business has been design and production of microwave products, above all, microwave tubes used in transmitter modules of radiolocation stations. Another our activity includes the production of semiconductor devices, technically and technologically based on the license from Westinghouse Electric Corp. and own developments. Our products are characterized by high reliability, long periods of operation and attractive prices. We manufacture diodes, thyristors, insulated modules and modular blocks which are used in power electronic devices, among others in converters for energy engineering (e. g. electric traction, wind and solar farms). The semiconductor elements of KUBARA LAMINA SA are manufactured and tested in accordance with Polish and European norms. For many years, we have been exporting a significant part of our products to the NAFTA countries, Western Europe, Near and Far East. Highest quality and reliability of the products is appreciated by our customers, which include such companies as POWEREX Inc. BOMBARDIER and ABB and confirmed by AQUAP 0:9 Certificate for the Army and ISO 900:8 Certificate for the Civilian. The most important part of our business are customers. To meet all the requirements and expectation of our customer is the matter of our ambition. Management of KUBARA LAMINA S.A.

3 TABLE OF CONTENTS. DIODES THYRISTORS ELECTRICALLY ISOLATED BASE MODULE ASSEMBLIES HEAT SINKS CLAMP SETS MICROWAVE PRODUCTS... 8 LETTER SYMBOLS AND TERMS DIODES: THYRISTORS: I F(AV) I FSM U RRM I t t rr U FM I FM U F(TO) T C R thjc r F mean forward current surge forward current repetitive peak reverse voltage I t value reverse recovery time peak forward voltage peak forward current threshold voltage case temperature thermal resistance junction to heatsink thermal resistance case to heatsink slope resistance I T(AV) mean on-state current I TSM surge on state current I T(RMS) RMS on state current U RRM repetitive peak reverse voltage U DRM repetitive peak off-state voltage I t I t for fusing t q turn-off time U TM peak forward voltage I TM peak trigger current I GT gate trigger current di T /dt critical rate of rise of on-state current (repetitive) du D /dt critical rate of rise on-state voltage T C case temperature R thjc thermal resistance junction to case thermal resistance case to heatsink 3

4 Marking system DIODES D6-50--N0- - Device type code: D rectifying diode R fast recovery diode Element size code Case type code: stud base, ceramic housing stud base, glass-metal housing 3;5 ceramic, hokey puk case 4 flat base, ceramic housing 6 flat base, glass-metal case Table Cod t rr t rr [μs] 5,0 4,0 3,,5,0,6,0 0,63 Not specified Remark: Electrical parameters and dimensions shown in the figures are led in the standard Orders according to the customer s requirements must be agreed individually. Special demands and selection code External lead code* Base type code* (* only for stud or flat base type) Reverse recovery time t rr for fast diodes (see: table ) Polarity: N noraml (cathode on base) R reverse (anode on base) O for hockey puk diodes Voltage class x 00 [V] Maximum average forward current [A] * The base type code and external lead code are specified under the figures. Example: KCA for devices D7: K base type code, CA external lead code. MEDIUM CURRENT RECTIFYING DIODES I F(AV) (A) / I FSM (ka) I t (ka s) U RRM =max I RRM =max U F(TO) =max r F =max (mω) U FM / I FM =5 C / (A) R thjc min -max Mounting torque (Nm) Weight (g) Fig. D-0 0/05 0,9 0, ,5 4,50/3,4, ,-,5 7 D-6 6/05 0,5 0, ,5 8,70/50, ,-,5 7 D-0 0/0 0,75 0, ,5 7,50/50, ,-,5 7 D-5 5/0 0,75 0, ,5 7,50/50, ,-,5 7 D4-3 3/00 0,50, ,00 7,0,70/00 0, ,0-,5 8 D /95 0,60, ,00 4,0,40/00 0, ,0-,5 8 D /00 0,80 3, ,95 4,5,80/ 0, ,0-,5 8 D /00 0,85 3, ,80 3,,40/ 0, ,0-,5 8 D /00 0,95 4, ,80,3,35/ 0, ,0-,5 8 RECTIFYING DIODES STUD AND FLAT TYPE I F(AV) (A) / I FSM (ka) I t (ka s) U RRM =max I RRM =max U F(TO) =max 4 r F =max (mω) U FM / I FM =5 C / (A) R thjc min -max Clamping force or mounting torque D /5, ,,37,0/470 0,5 0, ,0-7,0 Nm 5 3,4 D /40, 400-0,,37,0/470 0,5 0, ,0-7,0 Nm 5 5,6 D /5, ,,37,0/470 0,5 0, ,0-7,0 Nm 5 5,6 D /0, ,05,66,80/470 0,5 0, ,0-7,0 Nm 5 5,6 D /05, ,05,66,80/470 0,5 0, ,0-7,0 Nm 5 5,6 D5- /0, ,9,07,45/470 0,5 0, ,0-7,0 Nm 5 5,6 D5- /95, ,9,07,45/470 0,5 0, ,0-7,0 Nm 5 5,6 D6-, D64- /30 5, ,7,85,80/800 0, 0, D6-, D66- /45 5, ,7,85,80/800 0, 0, ,0-3,0 Nm 60, 8, D6-, D66- /30 5, ,7,85,80/800 0, 0, for D6 and D6 3,5 kn 60, 8, D6-50, D /40 5, ,70,,60/800 0, 0, for D64 i D66 60, 8, Weight (g) Fig. 40,80 7, 0 D6-50, D /5 5, ,70,,60/800 0, 0, ,80 7, 0 D6-30, D /0 6, ,69 0,99,40/800 0, 0, ,80 7, 0 D6-400, D /0 7, ,6 0,563,0/800 0, 0, ,80 7, 0 D6-50, D /5 5, ,70,,60/800 0, 0, , 8, D6-30, D /5 6, ,69 0,99,40/800 0, 0, , 8, D6-30, D /0 6, ,69 0,99,40/800 0, 0, , 8, D6-400, D /5 7, ,6 0,563,0/800 0, 0, , 8, D6-400, D /0 7, ,6 0,563,0/800 0, 0, , 8, D7-300, D /5 6, ,0 0,90,5/500 0,0 0, ,450 9, D7-450, D D7-450, D D D /5 450/0 500/5 7,7 7,7 0, ,7 0,7 0,6 0,5 0,5 0,45,60/500,60/500,30/500 0,0 0,0 0,0 0,04 0,04 0, ,0-4,0 Nm for D7 5,5 kn for D74 500, , ,450 9, 9, 9, D7-500, D /0 0, ,6 0,45,30/500 0, ,450 9, D7-600, D /5 0, ,63 0,34,0/500 0,0 0, ,450 9,

5 RECTIFYING DIODES HOCKEY PUK TYPE I F(AV) (A) / I FSM (ka) I t (ka s) U RRM =max I RRM =max U F(TO) =max r F =max (mω) U FM / I FM =5 C / (A) D /40 5, ,95 0,85,70/800 0,095 0, ,5-6, kn 60 3 D /5 5, ,95 0,85,70/800 0,095 0, ,5-6, kn 60 3 D /5 5, ,85 0,7,50/800 0,095 0, ,5-6, kn 60 3 D /0 5, ,85 0,7,50/800 0,095 0, ,5-6, kn 60 3 D /95 6, ,68 0,57,0/800 0,095 0, ,5-6, kn 60 3 D /5 6, ,80 0,6,80/500 0,07 0, ,0-,0 kn 80 5 D /95 7, ,70 0,46,60/500 0,07 0, ,0-,0 kn 80 5 D /80 7, ,70 0,46,60/500 0,07 0, ,0-,0 kn 80 5 D /75 9, ,763 0,48,38/500 0,04 0, ,0-,0 kn 85 4 D /75, ,76 0,308,0/500 0,04 0, ,0-,0 kn 85 4 D /80, ,87 0,73,70/500 0,03 0, ,0-4,0 kn 80 5 D83- /00 4, ,8 0,33,35/500 0,03 0, ,0-4,0 kn 80 5 D /85 5, ,78 0,30,5/500 0,03 0, ,0-4,0 kn 80 5 D /90 6, ,77 0,9,0/500 0,03 0, ,0-4,0 kn 80 5 D /95 0, ,77 0,375,30/500 0,00 0, ,5-5,0 kn D /30 5, ,8 0,6,0/500 0,00 0, ,5-5,0 kn D /5 5, ,8 0,6,0/500 0,00 0, ,5-5,0 kn D95- /0 8, ,80 0,54,0/500 0,00 0, ,5-5,0 kn D95- /95 8, ,80 0,54,0/500 0,00 0, ,5-5,0 kn D /85 3, ,6 0,64,05/500 0,00 0, ,5-5,0 kn D /05 35, ,70 0,08,00/500 0,00 0, ,5-5,0 kn D95T /60 3, ,6 0,64,0/500 0,00 0, ,5-5,0 kn DB / ,7 0,70,39/4000* 0,05 0, ,0-45,0 kn DB / ,80 0,8,7/4000* 0,05 0, ,0-45,0 kn DB / ,706 0,0707 0,98/4000* 0,05 0, ,0-45,0 kn DB / ,80 0,8,7/4000* 0,0095 0, ,0-45,0 kn DB / ,706 0,0707 0,98/4000* 0,0095 0, ,0-45,0 kn 30 8 DB5-7 7/ ,704 0,0479 0,90/4000* 0,0095 0, ,0-45,0 kn 30 8 DB / ,67 0,04 0,85/4000* 0,0095 0, ,0-45,0 kn 30 8 * = max FAST RECOVERY DIODES I F(AV) (A)/ I FSM (ka) I t (ka s) U RRM =max I RRM =max U F(TO) =max r F =max (mω) U FM / I FM =5 C / (A) t rr =5 C (µs) R thjc R thjc min -max min -max Clamping force Clamping force or mounting torque R /75, ,30,90,9/34,0-,0 0,5 0, ,0-7,0 Nm 5 5 R /75 3, ,30,90,0/800,0 0,7 0, ,0-3,0 Nm 50 7 R6- /70 3, ,30,90,8/800 3, 0,7 0, ,0-3,0 Nm 50 7 R /85 4, ,83 0,6,35/800,0 0, 0, ,0-3,0 Nm 50 7 R /65 3, ,0 0,98,85/800,0-,0 0,095 0, ,5-6, kn 60 3 R /65 3, ,0 0,98,85/800,0 0,095 0, ,5-6, kn 60 3 R /55 4, ,08 0,68,60/800,0 0,095 0, ,5-6, kn 60 3 R73- /5 3, ,40,54 4,50/500 5,0 0,06 0, ,0-,0 kn 80 5 R /95 6, ,00 0,665,90/500 4,0 0,06 0, ,0-,0 kn 80 5 R /95 7, ,09 0,65,80/500,0 0,04 0, ,0-,0 kn 85 4 R /95 7, ,09 0,65,80/500,0-3, 0,04 0, ,0-,0 kn 85 4 R /85 9, ,90 0,46,50/500,0 0,04 0, ,0-,0 kn 85 4 R /85 9, ,90 0,46,50/500 3, 0,04 0,0 9,0-,0 kn 85 4 R /00 6, ,90 0,46 3,50/500 5,0 0,037 0, ,0-4,0 kn 80 5 R /00 0, ,90 0,46,00/500 4,0 0,037 0, ,0-4,0 kn 80 5 R /90, ,03 0,4,70/500,0 0,037 0, ,0-4,0 kn 80 5 R /70 4, ,03 0,4 3,00/500 4,0 0,03 0, ,5-5,0 kn R /70 4, ,03 0,4 3,00/500 5,0 0,03 0, ,5-5,0 kn R /70 7, ,03 0,4,30/500 5,0 0,03 0, ,5-5,0 kn R /94 9, ,98 0,93,35/500,0 0,00 0, ,5-5,0 kn Weight (g) Weight (g) Fig. Fig max..5 o.8 Diodes D and D4 are produced in accordance with the figure (the type of external lead is not marked) 39.5 max..5 o o7 M5x0.8 M6x A/F Fig. D 7A/F Fig. D4 Mx.5 Fig. 3 D5 DAA 5

6 7+ - o4 max. o9. nom. 5 max. o37. max. o9. nom. holes o x deep Fig. 3 D63, R63 Fig. 4 D75, R75 o73. max. o47. nom. o0.7 max. o73. max. 38. max o5 0 7 o o5 Fig. 4 D5 DA Mx.5 Fig. 5 D5, R5 DAA Mx.5 Fig. 6 D5 DA Mx o7. max. o Fig. 0 D o4 max. o5. nom. o o5. nom. o o8.6 Fig. 7 D6, R6 ABA M0x o o max. 6 max. o8.6 o7. max. M0x.5 M0x.5 Fig. 8 D6 ABA Fig. 9 D7 KCA BA Fig. D66 BA o58 max. o34 nom. o8 max. o34 nom. o37.9 max. Fig. D74 CA holes o x deep holes o x deep Fig. 5 D73, D83, R73, R83 o47. nom. o73. max. o00.6 max. holes o x deep Fig. 6 D95, D95T, R95 holes o x deep Fig. 7 DB3 6 Fig. 8 DB5

7 Products overview (voltage and current rating) U RRM [V] stud base - flat base - hockey puk type D - standard diodes R - fast recovery diodes / / 5 00 / / / / 0 / 70 / 95 / 0 / 5 / 30 / / / 5 50 / / / / / 0 30 / / / / / / / / / 0 R / 5 D / 5 D5-00 D5-00 R6-50 D5-50 D5-50 R6- D5- D5- R73- D6- D64- D6- D66- D6- D66- R6-50 D6-50 D64-50 D6-50 D66-50 D6-50 D66-50 R R D D D6-30 D64-30 D6-30 D66-30 D6-30 D66-30 R R D6-400 D D6-400 D D D6-400 D D D7-450 D D7-450 D R D7-500 D D D7-500 D Products overview (voltage and current rating) U RRM [V] stud base - flat base - hockey puk type D - standard diodes R - fast recovery diodes D DB DB DB R D R D7-600 D D R R D R D / / / / / / / / / / 75 / / / / / / / / 30 / 95 / / / / / / / / 85 7 / / / 95 D R95-00 D75-00 D83- D D R D D D D95- D D D95T-3000 DB DB DB5-7 DB

8 Marking system Device type code T standard thyristor F fast switching thyristor P inverter type thyristor Element size code Case type code: stud base, ceramic housing stud base, glass-metal housing 3;5 ceramic, hockey puk case 4 flat base, ceramic housing 6 flat base, glass-metal housing THYRISTORS T Special demands and selection code External lead code Base type code 0 hockey puk base type Turn off time code t q (see table ) du/dt group code (see table) Voltage class x 00 [V] maximum average forward current [A] Table Code du/dt i t q E R P K H du/dt [V/μs] not t q [μs] ,5 specified Remark: Electrical parameters and dimensions shown in the figures are led in the standard Orders according to the customer s requirements must be agreed individually. * The base type code and external lead code are specified under the figures. Example: KZA for devices T7: K base type code, CA external lead code. MEDIUM CURRENT THYRISTORS I T(AV) (A) / ( o C) I TSM (ka) I t (ka s) U DRM, U RRM =max I DRM, I RRM =max U T(TO) =max T3-6 6/90 0,30 0, ,5 9,0/ ,0 00, ,0-,5 4 T3-0 0/85 0,35 0, ,5 3,85/ ,0 00, ,0-,5 4 T3-5 5/80 0,35 0, ,5 8,50/ ,0 00, ,0-,5 4 INVERTER THYRISTORS I TSM (ka) U DRM, U RRM =5 r T =max (mω) U TM / I TM =5 C / (A) I T(AV) I t I DRM, I RRM U T(TO) r T I GT du t =5 =5 =5 q di T /dt D /dt R thjc Clamping force Weight Fig. (min.) ormounting (µs) (A/µs) (g) (A)/ (ka s) (mω) (V/µs) torque P7-5 5/80 6, 86 33,5/ , , 0,05 38,0-4,0 Nm P7-5 5/80 6, ,5/ , , 0, ,0-4,0 Nm P /75 7, ,00/ , , 0, ,0-4,0 Nm P /75 7, ,00/ , , 0,05 38,0-4,0 Nm P /70 8, ,0/ , ,06 0,0 9,0-,0 kn 80 4 P /55(Th) 7, ,37 0,6,0/ , ,04Th 0,0 9,0-,0 kn 85 3 P /55(Th) 9, ,4 0,475,90/ , ,04Th 0,0 9,0-,0 kn 85 3 P /80 8, ,35 0,65,30/ , ,037 0,0,0-4,0 kn 80 4 P /75 9, ,0 0,5,00/ , ,037 0, ,0-4,0 kn 80 4 P /75 9, ,0 0,5,00/ , ,037 0,0 +5,0-4,0 kn 80 4 P /75 5, ,37 0,37,85/ , ,03 0,0,5-5,0 kn P /75 5, ,33 0,7,80/ , ,03 0,0,5-5,0 kn P /75 5, ,33 0,7,80/ , ,03 0,0,5-5,0 kn THYRISTORS HOCKEY PUK TYPE I T(AV) I TSM I t U DRM, U RRM I DRM, I RRM U T(TO) r T U TM / I TM I GT U GT t q du D /dt R thjc min -max Clamping Weight =5 =5 =5 =5 =5 C (typ.) (min.) force (g) (A) / (ka) (ka s) (mω) / (A) (µs) (V/µs) Fig. T63- /90 3, ,4,60,05/ ,08 0, ,5-6,5 kn 60 T /85 4, ,5,5,85/ ,08 0, ,5-6,5 kn 60 T /80 4, ,0 0,86,55/ ,08 0, ,5-6,5 kn 60 T /65 4, ,95 0,80,40/ ,08 0, ,5-6,5 kn 60 T /65 6, ,76 0,46,5/ ,08 0, ,5-6,5 kn 60 T /70 7, ,00 0,80,0/ ,06 0, ,0-,0 kn 80 4 T /65 9, ,86 0,60,80/ ,06 0, ,0-,0 kn 80 4 T /60 9, ,85 0,55,70/ ,06 0, ,0-,0 kn 80 4 T /65 8, ,93 0,7,00/ ,04 0, ,0-,0 kn 85 3 T /65 8, ,87 0,60,80/ ,04 0, ,0-,0 kn 85 3 T /65 9, ,89 0,48,70/ ,04 0, ,0-,0 kn 85 3 T /65, ,80 0,3,/ ,04 0, ,0-,0 kn 85 3 T /70 0, ,5 0,80,0/ ,03 0, ,0-4,0 kn 80 4 T /70 3, ,99 0,49,70/ ,03 0, ,0-4.0 kn 80 4 T /70 3, ,97 0,34,45/ ,03 0, ,0-4,0 kn 80 4 T /80 8, ,79 0,0,5/ ,03 0, ,0-4,0 kn 80 4 T /80 7, , 0,50,95/ ,03 0, ,5-5,0 kn T /70 0, ,5 0,45,75/ ,03 0, ,5-5,0 kn T /70, ,0 0,4,40/ ,03 0, ,5-5,0 kn T /75 4, ,83 0,4,35/ ,0 0, ,5-5,0 kn T /70 7, ,78 0,8,0/ ,0 0, ,5-5,0 kn T /60 30, ,73 0,6,0/ ,0 0, ,5-5,0 kn U TM / I TM =5 C /(A) I GT U GT U GT du D /dt (min.) (V/µs) R thjc min -max min- -max Mounting torque (Nm) Weight (g) Fig. 8

9 FAST SWITCHING THYRISTORS I T(AV) (A)/ I TSM (ka) I t (ka s) U DRM, U RRM =5 THIRISTORS STUD AND FLAT BASE TYPE I DRM, I RRM =5 U T(TO) =5 r T =5 (mω) U TM / I TM =5 C / (A) I T(AV) I TSM I t U DRM, U RRM I DRM, I RRM U T(TO) r T U TM / I TM I GT U GT t q du D /dt R thjc min -max Clamping force Weight =5 =5 =5 =5 =5 C (typ.) (min.) or mounting Fig. (A) / (ka) (ka s) (mω) / (A) (µs) (V/µs) torque (g) T /90,45 0, ,93 3,,/ ,5 0, ,3 T /85,6, ,8,3,80/ ,5 0, ,3 4,0-7,0 Nm T /90,45 0, ,93 3,,/ ,5 0, ,5 T /85,6, ,8,3,80/ ,5 0, ,5 T6-50; T /95 3, ,6,50,00/ ,0 0, ,9 T6-; T64- /90 4, ,9,4,70/ ,0 0, ,9 8,0-3,0 Nm T6-50; T /85 5, ,84 0,96,40/ ,0 0, for T6 end T6 6,9 T6-50; T /95 3, ,6,50,00/ ,0 0, ,0 T6-; T66- /90 4, ,9,4,70/ ,0 0, ,5kN for T ,0 end T66 T6-50; T /85 5, ,84 0,96,40/ ,0 0, ,0 T6-80; T /90 6, ,78 0,50,0/ ,0 0, ,0 T7-50; T /75 6, ,3,00,60/ ,0 0, ,0-4,0 Nm 500 8, T7-300; T /70 7, ,0 0,80,0/ ,0 0, for T , T7-350; T /70 9, ,86 0,60,80/ ,0 0, ,5kN for T , I GT U GT t q (µs) di T /dt (A/µs) du D /dt (min.) (V/µs) R thjc min -max Clamping force or mounting torque F /80,08 5, ,5/ , ,5 0, ,0-7,0 Nm 5,3 F /80,08 5, ,5/ , ,5 0, ,0-7,0 Nm 5 4,5 F /80,08 5, ,5/ , ,5 0, ,0-7,0 Nm 5 4,5 F /80,08 5,8 0 3,5/ , ,5 0, ,0-7,0 Nm 5 4,5 F /75,6 7, ,50/ , ,5 0, ,0-7,0 Nm 5 4,5 F /75,6 7,9 0,50/ , ,5 0, ,0-7,0 Nm 5 4,5 F /70,45 0, ,00/ , ,5 0, ,0-7,0 Nm 5 4,5 F /70,45 0, ,00/ , ,5 0, ,0-7,0 Nm 5 4,5 F6-5 5/85 3, ,0/ , ,0 0, ,0-3,0 Nm 50 6 F6-5 5/85 3, ,0/ , ,0 0, ,0-3,0 Nm 50 6 F /85 4, ,90/ , ,0 0, ,0-3,0 Nm 50 7 F /85 4, ,90/ , ,0 0, ,0-3,0 Nm 50 7 F /85 4, ,00,8,70/ , ,0 0, ,0-3,0 Nm 50 7 F7-5 5/80 6, 86 33,5/ , ,0 0, ,0-4,0 Nm F7-5 5/80 6, ,5/ , ,0 0, ,0-4,0 Nm F /70 7, ,4 0,70,00/ , ,0 0, ,0-4,0 Nm F /70 7, ,4 0,70,00/ , ,0 0, ,0-4,0 Nm F63- /85 3, ,35/ , ,08 0, ,5-6,5 kn 60 F63- /85 3, 48 0-,35/ , ,08 0, ,5-6,5 kn 60 F /78 3, ,,3,0/ , ,08 0, ,5-6,5 kn 60 F /78 3, ,,3,0/ , ,08 0, ,5-6,5 kn 60 F /78 3,6 65,,3,0/ , ,08 0, ,5-6,5 kn 60 F /70 4, ,90/ , ,08 0, ,5-6,5 kn 60 F /70 8, ,0/ ,0 30 0,06 0, ,0-,0 kn 80 4 F /70 7, ,30/ ,0 30 0,04 0, ,0-,0 kn 85 3 F /70 7, 60 30,30/ ,0 30 0,04 0, ,0-,0 kn 85 3 F /70 7, ,30/ ,0 30 0,04 0, ,0-,0 kn 85 3 F /70 8, ,70/ ,0 30 0,04 0, ,0-,0 kn 85 3 Weight (g) Fig. 3.4 o3.3 7 Cathode pot. Gate o max. o6.6.5 M6x o.5 4A/F o Mx.5 Mx.5 Fig. T3 Thyristors T 3 are produced in accordance with the figure (the type of lead is not marked) Fig. T5, F5 Fig. 3 T5, F5 Fig. 4 T5, F5 DXA DX DXA 9

10 Cathode pot. 7 o max. Gate 34 M0x.5 Fig. 5 T5, F5 Fig. 6 T6, F6 Fig. 7 T6, F6 Fig. 8 T7, P7, F7 Cathode pot. Gate o7 o6.6 max o.5 Mx.5 o5 7 3 Cathode pot. 6.5 max o7 Gate M0x.5 Cathode pot. 9 max o8.6 Gate M0x.5 DX 6.5 max. Cathode pot. Gate o o7.4 max max. Cathode pot. Gate 34 o o37.9 max AYG AYG KZA 9 max. 46 o30 o30 o43. min. Fig. 9 Fig. 0 Fig. T64 T66 T74 YG YG ZA Fig. T63, F63 Fig. 3 T75, F75, P75 Fig. 4 T73, F73, P73, T83, P83 Fig. 5 T95, P95 0

11 Products overview (voltage and current rating) U DRM, U RRM [V] 3 - stud base - flat base - hockey puk type T - standard thyristors F - fast switching thyristors P - inverter thyristors F5-63 F5-63 F5-80 F5-80 T5-80 T5-80 F5-00 T / / / / / 85 5 / / / / 85 / / / / / / / / / 70 T5-00 F6-70 T63- T6- T64- T7-50 T74-50 T63-50 T7-300 T T T7-350 T / 90 F / 85 F6-5 F6-50 T / 80 T6-50 T / 70 T6-50 T66-50 F63- F63- T6- T66- P7-5 F7-5 F7-5 F63-50 T6-50 T64-50 T6-50 T66-50 T6-80 T66-80 F7-300 F7-300 F P7-300 P7-300 T I T(AV) [A] / T C [ C] Products overview (voltage and current rating) U DRM, U RRM [V] 3 - stud base - flat base - hockey puk type T - standard thyristors F - fast switching thyristors P - inverter thyristors T T P F F / / / / / / / / / / / / / 65 F F P T P / / / / / / / / / / / / 60 T P T T P T F T T T P T T P T T95-50 T T T I T(AV) [A] / T C [ C]

12 Marking system Module type: MT dual thyristor MH thyristor-diode MD dual diode Configuration code ELECTRICALLY ISOLATED BASE MODULES M Turn off time t q (see table ) standard µs du/dt (see table ): for thyristors marking only Voltage class x 00 [V] Aaverage forward current I T(AV) [A] for thyristors and I F(AV) [A] for diodes I T(AV) (A) / I TSM (ka) I t (ka s) U DRM, U RRM =5 I DRM, I RRM =5 U T(TO) =5 r T =5 (mω) U TM / I TM =5 C / (A) I GT U GT du D / dt (min.) (V / µs) R thjc min -max Config. Fig. DUAL THYRISTOR MODULES MT_-50 50/85 4, ,95,4,7/ ,7 0, Tab. 3 MT_-70 70/85 5, ,83,03,4/ ,7 0, Tab. 3 MT_-60 60/85 7, ,84 0,67,7/ , 0, Tab. 4 MT_ /85 8, ,70 0,55,4/ , 0, Tab. 4 MT_ /85 7, ,70 0,44,3/ ,06 0, Tab. 4 3 *MT_ /85 8, ,78 0,8,5/ ,05 0, Tab. 4 4 THYRISTOR-DIODE, DIODE-THYRISTOR MODULES MH_-50 50/85 4, ,95,4,7/ ,7 0, Tab. 3 MH_-70 70/85 5, ,83,03,4/ ,7 0, Tab. 3 MH_-60 60/85 7, ,84 0,67,7/ , 0, Tab. 4 MH_ /85 8, ,70 0,55,4/ , 0, Tab. 4 MH_ /85 7, ,70 0,44,3/ ,06 0, Tab. 4 3 *MH_ /85 8, ,78 0,8,5/ ,05 0, Tab. 4 4 I F(AV) (A) / I FSM (ka) I t (ka s) U RRM =5 I RRM =5 U F(TO) =50 r F =50 (mω) U FM / I FM =5 C / (A) R thjc min -max Config. Fig. DUAL DIODE MODULES MD_-70 70/00 5, ,85,6,85/800 0,8 0, Tab. 3 MD_- /00 5, ,7,,6/800 0,8 0, Tab. 3 MD_-40 40/00 0, ,7 0,3,/500 0, 0, Tab. 4 MD_ /00, ,6 0,7,/500 0, 0, Tab. 4 MD_ /00 8, ,60 0,3,/500 0,065 0, Tab. 4 3 *MD_ /00 30, ,6 0,64,/500 0,05 0, Tab. 4 4 * initial parameters

13 AVAILABLE CONFIGURATION OF CIRCUITS Conf. code A B C D E F K L Tab. 3 Tab. 4 MD MH MT AA 3 AA AA Conf. code MD MH MT A 3 AA AA AA AA B AA A A A A A A C D A A A A A A A A A A A A A A E A A A A A A A A F A A A A A A A A K A A A A A A L A A A A A A A 3 A A A A A 3 A A A 4 A A A K A 5 A K A K A A 6 K A A A 7 A A 8 A 3

14 Products overview (voltage and current rating) U DRM, U RRM [V] MD_- - DUAL DIODE MODULES MH_- - THYRISTOR - DIODE, DIODE - THYRISTOR MODULES MT_- - DUAL THYRISTOR MODULES MT_-50 MH_-50 MT_-70 MH_ / / / 00 / / / / / 00 MD_-70 MT_-300 MH_-800 MD_ / 85 MD_- MT_-60 MH_-60 MH_-300 MD_-40 MD_-470 MT_-500 MH_-500 MD_-660 MT_ / / / 85 I T(AV) [A] / T C [ C] 4

15 Marking system M - double side air cooled (for hockey puk type) N - single side air cooled (for hockey puk type) S - single side air cooled (for stud types) W - double side water cooled (for hockey puk type) T - thyristor D - diode M - diode and thyristor Device size code Code of circuit (see table) Number of devices in assembly ASSEMBLIES MT9A YE Code of heastink set t q group code for thyristor or t rr group code for fast diodes du/dt group code (0 for diodes) Voltage class x 00 [V] Maximum forward current [A] Assemblies type Code D T M Circuit type A.K single devices (diode, thyristor) A C K Q R S J M short circuited abnodes series connecdtrion with cebtertao short-circuited cathodes anti-partallel connectio parallel connectrion series connectrion φ bridge 3 φ bridge Fig. Assemblies with RU-type heatsink air cooled Fig. Assemblies with RY-type heatsink air cooled Fig. 3 Assemblies with RR300 type heatsink Fig. 4 Assemblies with W48-type heatsink water cooled Fig. 5 N type assembly with two RY-type heatsinks 5

16 HEATSINK 0 A N D E G H B xøl M øk 8 9 F C I 7 FIG. 6 Heatsink type RP7/RT30 for stud type devices: D5, D5, T5, T5, D7, T7 A B C D E F G H I K L M N wight mm g RP , , RT ,5 93, Fig. 7 Heatsink type RU5 (weight 30g) for hockey puk devices: D63, T63, D73, T73, D75, T75, D83, T83 * Fig. 8 Heatsink type RE for modules A* according to customers requirements Fig. 9 Heatsink type RY05 (weight 3500g) for devices: D95, T95 4 Fig. 0 Heatsink type W35 and W35W for devices: D63, T63, D75, T75, D73, T73, D83, T83 3, ,5 3,5 40 Fig. Heatsink type W48 and W48W for devices: D95, T95 6 Fig. Heatsink type RR300 (weight 8900 g) for hockey puk devices: DB3, DB5

17 Fig. 3 Heatsink type W80 for devices: DB5, DB3 CLAM SETS Fig. 4 Clamp set type - spring - clamping bar 3 - insulator 4 - clamping force indicator 5 - screw M8x 6 - locating pin adapted for thermoelements A*- according to customers requirements Fig. 5 Clamp set type - spring - insula tor 3 - screw M8x 4 - clamping force indicator 5 - locating pin adapted for thermoelements A*- according to customers requirements Fig. 6 Clamp set type A - spring - ceramic insulator 3 - clamping force indicator 4 - screw M8x,5 5 - locating pin for thermoelements A*- according to customers requirements Fig. 7 Clamp set type B - spring - insulator 3 - clamping force indicator 4 - screw M8x,5 A*- accordingto customers requirements Fig. 8 Clamping plate for devices: D64, D66, T64, T66 Fig. 9 Clamping plate for devices: D74, T74 7

18 MICROWAVE PRODUCTS AMPLITRONS Tubes classified Crossed-Field, Backward-Wave Amplifier, used for high pulse power amplification. They operate as high power amplifiers at the end stage of the radar transmitter. Tubes are producec according to AQAP 0. LA-3 L Band (,4 -,44 GHz) Peak power: 400 kw Puls duration: 0 µs Duty cycle: 0,65% SA-3 S Band (3-3,4 GHz) Peak power: 50 kw Puls duration: 9 µs Duty cycle: 0,46% LA-6 L Band (,4 -,44 GHz) Peak power: 400 kw Puls duration: 50 µs Duty cycle:,75% LA-0A L Band (,5 -,35 GHz) Peak power: 00 kw Puls duration: µs Duty cycle:,75% CROSSED-FIELD AMPLIFIERS Frequency RF bandwidth RF drive Peak power Peak output power Pulse duration Peak anode voltage Peak anode current (MHz) (MHz) (kw) (kw) (kw) (µs) (kv) (A) (A) LM- L band 00 3, , ,5-6,5 30 LM-3 L band ,8-6,8 30 LA-4 L band ,-6,8 30 LA-5 L band ,-6,8 30 LA-5 bis 4 L band , LA-6 L band , LA-0 L band ,-6,8 30 SA-3 S band SA-3 S band SA-33 S band SA-34 S band Filament voltage Filament current 8

19 MICROWAVE PRODUCTS ABSORBER Absorbers (designed at DESY) are manufactured using advanced vacuum technology and are used to the European XFEL free electron laser project. They absorb high frequency Higher Order Modes (HOM) propagating in the beam line of a superconducting linac. ELEMENT 3 PARTS LIST NUMBER PART NUMBER OF PARTS IPJ-XFEL-HA-0 DESCRIPTION PARTS LIST NUMBER PART NUMBER OF PARTS of ceramics Submission IPJ-XFEL-HA-0 (soldering) ELEMENT 3 IPJ-XFEL-HA-03 4 CF60 IPJ-XFEL-HA-0c(5) ISO HV ISO M8 x 40 IPJ-XFEL-HA IPJ-XFEL-HA IPJ-XFEL-HA-05-0 IPJ-XFEL-HA ISO M8 ISO HV ISO M6 x 40 ISO M6 conflat gasket dn 40 DESCRIPTION Submission of ceramics (soldering) IPJ-XFEL-HA-03 CF 60 bored flanges, CF60 rotatable IPJ-XFEL-HA-0c(5) CF 60 OFHC copper sels 44 3 ISO HV Exploded 3 chamber ISO M8 x 40 4 IPJ-XFEL-HA (welding) 5 IPJ-XFEL-HA IPJ-XFEL-HA-05-0 Washer tound 7 IPJ-XFEL-HA bolts ISO M8 Hex head 3 ISO HV Cap tube6 pumping 3 ISO M6 x ISO M6 Cover the pump tubing 34 conflat gasket dn 40 Cover FKM seals Hex Nut Washer round Hex head bolts Hex Nut CF 40 seals 4 CF 60 bored flanges, rotatable CF 60 OFHC copper sels Exploded chamber (welding) Washer tound Hex head bolts Cap tube pumping Cover the pump tubing Cover FKM seals Hex Nut Washer round Hex head bolts Hex Nut CF 40 seals

20 Aleja Róż Wojska Polskie WARSZAWA Sękocińska 79 Puławska Syrenki Magdalenka Aleja Róż PuławskaPuławska 79 Generała Leopolda Okulickiego Konstancin Jeziorna Generała Leopolda Okulickiego PIASECZNO 79 Góra Kalwaria Armii Krajowej Kusocińskiego Pow Kusoc Warszawska Młynarska Młynarska 34 Puławska Str., Piaseczno POLAND tel ,