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Power - Triode (over 1000V 100W) ·Triode

RS2011W

Directly heated low-mu Siemens power triode for AF driver, modulator, and RF amplifier service. Rated for approximately 12 kW plate dissipation and 11 kV plate voltage, emphasizing high-current driver operation.

Directly heatedCold cathodeCommon cathodeDissimilar
Sections
1
Base
-
Socket code
-
Base pins
-
Nominal heater
10 V / 70 A

Description

Directly heated low-mu power triode family for AF driver, modulator, and RF amplifier service, offered in air-, water-, and vapor-cooled versions.

General specifications

Tube and section characteristics

Properties common to every published source and operating point.

Heater and base

Base
-
Socket code
-
Base pins
-
Nominal heater voltage
10 V
Nominal heater current
70 A
Parallel heater voltage
-
Parallel heater current
-
Series capable
No

Terminal pinout

Electrical assignments shared by every tube using this base designation.

No verified pinout is recorded for this base designation.

Section ratings

1 physical section, each with unique specifications.

Section 1

Triode

X-ray radiationInterelectrode capacitances
Transconductance
0.02 S
Amplification factor
15
Max plate voltage
11000 V
Max plate dissipation
12000 W
Max grid dissipation
100 W
Max cathode current
5 A

Maximum ratings promoted from published rating tables; additional condition-specific values preserved in parameters.

Source-dependent data

Operating conditions by source

Each block preserves the test conditions and published values from one reference. Values from different sources are intentionally kept separate.

Data set 01

1963 Siemens

Published operating points and test conditions from this source.

SECTION 1

Triode

Characteristics

  • Amplification factor

    15

  • Transconductance

    20000 µS

Other

  • £ <

    30 MHz MHz

  • NTr =

    6 xw 1)

  • Ua =

    6 KV KV

  • Ug fest =

    -400 v v

  • Rg =

    3 kQ

  • Ugs =

    1260 v v

  • Ia =

    1,25 A A

  • Ig =

    210 mA mA

  • Na =

    7,5 kW kW

  • Nat =

    260 w 1) w

  • Qa =

    1,5 kw 2) kw

  • Qg =

    40 w w

  • n =

    80 %

  • Ra =

    2,7 o)

  • m =

    100 %

  • Nrmod =

    3,75 KW KW

  • Ig =

    240 mA H8chstwerte mA

  • Ngt =

    295 w 1) beiU, =0V w

  • Ig =

    200 mA bei Modulationsspitze mA

  • Ngt =

    245 w 1) w

  • werden. Es ist zu beachten,

    100-prozentiger Modulation die Ano-

  • denverlustleistung etwa

    1,5-fache der flir den Trigerwert angege-

  • B-Betrieb

    2 Rohren in Gegentaktschaitung

  • U, =

    1 kv kv

  • Ug =

    -1000 v v

  • I =

    5 A A

  • Iksp =

    20 A A

  • Q, (RS 2011 L) =

    8 kW kW

  • Q, (RS 2011 W) =

    8 kw W

  • Qa (RS 2011 V) =

    12 kW V

  • Qg =

    100 w w

  • Rg =

    10 kQ

  • Na.. = Y]

    39 0 16 0 16 kw kw

  • Ua =

    10 10 10 kv kv

  • Ug-gs

    0 1950 [ 1720 0 1500 v v

  • Ia =

    2x0,3 2x2,67 2x0, 3 2x1,1 2x0, 3 2x4,5 A A

  • Is = "]

    2x185 0 2x42 0 0 mA mA

  • Igsp =

    0 2x1,6 0 2x0,42 0 0 A A

  • Na =

    2x3 2x26,7 2x3 2x11 2x3 2x15 kw kw

  • Ngt =

    0 2x170 0 2x32 0 0 W W

  • Qa =

    2x3 2x7,2 2x3 2x3 2x3 2x7 kw kw

  • Qg =

    0 2x30 0 2x1 0 0o W W

  • n =

    - 73 - 73 - 53 %

  • \ — \ /

    7

  • Raa =

    4,15 10,1 6,1 %0}

  • ROBK 2252/1.10.61

    5

  • B-Betrieb

    2 Réhren in Gegentaktschaltung

  • Ua =

    14 KV KV

  • Ug =

    -1000 v v

  • Ik . =

    5 A A

  • Iksp =

    20 A A

  • Qa (RS 2011 L) =

    8 kW kW

  • Qa (RS 2011 W) =

    8 KW W

  • Q, (RS 2041 V) =

    12 kW V

  • Qg =

    4100 w w

  • Rg =

    10 kO

  • Ny~ =

    -0 16 0 10 0 10 kW kW

  • N —

    7 \ 7

  • U, =

    8 8 8 kv kv

  • Ug ca.

    -600 -610 -620 \'2

  • Ug.gs =

    0 1470 0 1380 0 1226 Vv

  • I, =

    2x0,25 2x1,4 2x0,2 2x0,9 2x0,45 2x1,1 A A

  • Ig =

    0 2x60 2x27 0 0 mA mA

  • Igsp =

    0 2x0,6 0 2x0,27 0 0 A A

  • Na =

    2x2 2x11,2 2x1,6 2x7,2 2x1,2 2x8,8 kW kW

  • Ngt =

    0 2x43 2x18 0 0w

  • Qa =

    2%l 2x3,2 2x1,6 2x2, 2 2x1,2 2x3,8 kwW %

  • Qg =

    0 2x7 0 2x1,5 0 0w

  • n =

    - 72 - 70 - 57 %

  • Raa =

    6,12 9,8 5,5 kQ

  • Ua =

    1 KV KV

  • Ug =

    -1000 v v

  • Ik =

    5 A A

  • Iksp =

    20 A A

  • Q. (RS 2011 L) =

    8 kW kW

  • Qa (RS 2011 W) =

    8 kw W

  • Qa (RS 2011 V) =

    12 kw V

  • Qg =

    100 w w

  • Rg =

    10 kQ

  • Uggs =

    7 0 1035 " 0 1550 \4

  • Uk-ks =

    0 675 0 910 v v

  • Ig =

    0 0 o 0 A A

  • Ik =

    2x0 2 2x0,6 2x0, 5 2x1, 85 A A

  • Isp = (2x0,2)

    2x3,5 (2x0, 5) 2x9, 8 A A

  • N, =

    2x0, 54 2x1, 62 2x2, 35 2x9,1 kw kw

  • Qa =

    2x0,54 2x1,43 2x2, 35 2x8, 35 KW KW

  • Ug-gs

    150V

  • ROK 2252/1.10.61

    7

  • an keiner Stelle eine h8here Temperatur

    220 ©C annehmen. Zur Ein-

  • ROK 2252/1.10.61

    9

  • Der statische Kithlwasserdruck

    5 att nicht ttherschreiten,

  • (Qa+Qg+0,8Nn) .ovvvennnnnnannn. e cveneeee.

    12,7 kW kW

  • Aquivalente Wirmeleistung ............. eieen vesevesess

    182 kcal/min

  • bei WasserriickfluBtemperatur 20°C ..,.......... ca.

    0,5 m3/min °C

  • bei Wasserruckfluftemperatur 90°C .,.......... ca.

    0,56 m3/min °C

  • bei Wasserrtickflutemperatur 200C ............ ca.

    0,3 1/min

  • bei Wasserrtickflutemperatur 90°C ............ ca.

    0,35 1/min °C

  • 3618018

    7 ~—