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Power - Triode ·Triode

6S33S

High-current Russian triode designed specifically as a series-pass tube in electronic voltage stabilizers for stationary and mobile equipment.

Directly heatedCold cathodeCommon cathodeDissimilar
Sections
1
Base
-
Socket code
B7A
Base pins
7
Nominal heater
12.6 V / 3.3 A

Description

The 6C33C triode is designed for use as a 4yecTBe IPONyCKallell JaMOb B 3JeKTPOHHBIX CTa- band pass tube in electronic voltage stabilizers of O6uan3aTopax HaNpsiXKeHHs CTAallHOHApHOH H mmepe- stationary and movable equipment.

Socket description

Septar 7-contact

General specifications

Tube and section characteristics

Properties common to every published source and operating point.

Heater and base

Base
-
Socket code
B7A
Base pins
7
Nominal heater voltage
12.6 V
Nominal heater current
3.3 A
Parallel heater voltage
6.3 V
Parallel heater current
6.6 A
Series capable
Yes

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
Plate resistance
130 Ω
Transconductance
0.039 S
Amplification factor
3.5
Max plate voltage
450 V
Max plate dissipation
60 W
Max cathode current
600 mA

Promoted-field completeness audit performed from English ratings/characteristics.

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

195X Russian

Published operating points and test conditions from this source.

SECTION 1

Triode

Characteristic

  • Heater voltage

    6.3 V

    Published heater condition.

  • Heater current

    6600 mA

    Published heater current.

  • Transconductance

    3000 µS

    Published characteristic; normalized to µS.

  • Amplification factor

    3.5

    Published characteristic.

  • Service life

    1000 h

    Published service-life guarantee.

Other

  • Maximum plate voltage

    450 V

    Published limiting/specification value.

  • Maximum plate dissipation

    15 W

    Published limiting value.

Data set 02

1968 Electronintorg

Published operating points and test conditions from this source.

SECTION 1

Triode

Other

  • grid [1]

    1

    1, 2, 6, 7 — heater; 3 — cathode; 4 — anode; 5 — grid

  • grid [2]

    2

    1, 2, 6, 7 — heater; 3 — cathode; 4 — anode; 5 — grid

  • grid [3]

    6

    1, 2, 6, 7 — heater; 3 — cathode; 4 — anode; 5 — grid

  • grid [4]

    7

    1, 2, 6, 7 — heater; 3 — cathode; 4 — anode; 5 — grid

  • grid [5]

    3

    1, 2, 6, 7 — heater; 3 — cathode; 4 — anode; 5 — grid

  • grid [6]

    4

    1, 2, 6, 7 — heater; 3 — cathode; 4 — anode; 5 — grid

  • grid [7]

    5

    1, 2, 6, 7 — heater; 3 — cathode; 4 — anode; 5 — grid

  • temperature,°C [1]

    343 C

    CYCKOPEHMEM, MIC2 . ... ... .. ... ... 343 Ambient temperature,°C ...................... —10to +55

  • temperature,°C [2]

    -10 C

    CYCKOPEHMEM, MIC2 . ... ... .. ... ... 343 Ambient temperature,°C ...................... —10to +55

  • temperature,°C [3]

    55 C

    CYCKOPEHMEM, MIC2 . ... ... .. ... ... 343 Ambient temperature,°C ...................... —10to +55

  • current, yA,atmost [1]

    28 A

    nogorpesaTenel . ........................ 2,8-3,6 Inverse grid current, yA,atmost ................ 5

  • current, yA,atmost [2]

    -36 A

    nogorpesaTenel . ........................ 2,8-3,6 Inverse grid current, yA,atmost ................ 5

  • current, yA,atmost [3]

    5 A

    nogorpesaTenel . ........................ 2,8-3,6 Inverse grid current, yA,atmost ................ 5

  • Mutual conductance, mA/V [1]

    56 mA/V

    nogorpeBaTenem . ..............c.ouueuen.. 5,6-7,2 Mutual conductance, mA/V . .................... 28-50

  • Mutual conductance, mA/V [2]

    -72 mA/V

    nogorpeBaTenem . ..............c.ouueuen.. 5,6-7,2 Mutual conductance, mA/V . .................... 28-50

  • Mutual conductance, mA/V [3]

    28 mA/V

    nogorpeBaTenem . ..............c.ouueuen.. 5,6-7,2 Mutual conductance, mA/V . .................... 28-50

  • Mutual conductance, mA/V [4]

    -50 mA/V

    nogorpeBaTenem . ..............c.ouueuen.. 5,6-7,2 Mutual conductance, mA/V . .................... 28-50

  • resistance, Q,atmost [1]

    120 ohm

    Hanpsxenne aHoga, B ........................ 120 Internal resistance, Q,atmost .................. 130

  • resistance, Q,atmost [2]

    130 ohm

    Hanpsxenne aHoga, B ........................ 120 Internal resistance, Q,atmost .................. 130

  • heating time, s, atmost [1]

    6 s

    O6paTHbih TOK ceTku, MKA, He 6onee ............ 5 Cathode heating time, s, atmost ................ 120

  • heating time, s, atmost [2]

    5 s

    O6paTHbih TOK ceTku, MKA, He 6onee ............ 5 Cathode heating time, s, atmost ................ 120

  • heating time, s, atmost [3]

    120 s

    O6paTHbih TOK ceTku, MKA, He 6onee ............ 5 Cathode heating time, s, atmost ................ 120

  • Interelectrode capacitance, pF [1]

    450 pF

    TokaHoga, MA ... ... ... 450-630 Interelectrode capacitance, pF:

  • Interelectrode capacitance, pF [2]

    -630 pF

    TokaHoga, MA ... ... ... 450-630 Interelectrode capacitance, pF:

  • output [1]

    6

    BHyTpeHHee conpoTuenenue, Om, He 6onee . . . . . . . 130 output ... 9.5-11.5

  • output [2]

    130

    BHyTpeHHee conpoTuenenue, Om, He 6onee . . . . . . . 130 output ... 9.5-11.5

  • output [3]

    9.5

    BHyTpeHHee conpoTuenenue, Om, He 6onee . . . . . . . 130 output ... 9.5-11.5

  • output [4]

    -11.5

    BHyTpeHHee conpoTuenenue, Om, He 6onee . . . . . . . 130 output ... 9.5-11.5

  • heater capacitance,pF

    70 pF

    MexanekTpogHble eMKocTu, Nd: Cathode-heater capacitance,pF ................ 70

  • cathode operation [1]

    5.7

    npuv napasnnensbHOM BKIoHeHUn common-cathode operation ................. 5.7-6.9

  • cathode operation [2]

    -6.9

    npuv napasnnensbHOM BKIoHeHUn common-cathode operation ................. 5.7-6.9

  • dissipation above [1]

    57 W

    e 5,7-6,9 at anode dissipation above 30W ............. 250

  • dissipation above [2]

    -69 W

    e 5,7-6,9 at anode dissipation above 30W ............. 250

  • dissipation above [3]

    30 W

    e 5,7-6,9 at anode dissipation above 30W ............. 250

  • dissipation above [4]

    250 W

    e 5,7-6,9 at anode dissipation above 30W ............. 250

  • dissipation at most3 [1]

    0 W

    Hanps>xenue aHoga, B: at anode dissipation at most30W ............ 450

  • dissipation at most3 [2]

    450 W

    Hanps>xenue aHoga, B: at anode dissipation at most30W ............ 450

  • current, mA [1]

    6 mA

    6onee30BT ... ... . ..l 250 Anode current, mA:

  • current, mA [2]

    0 mA

    6onee30BT ... ... . ..l 250 Anode current, mA:

  • current, mA [3]

    250 mA

    6onee30BT ... ... . ..l 250 Anode current, mA:

  • cathode [1]

    450

    ... .. 450 in operation withone cathode ................ 350

  • cathode [2]

    350

    ... .. 450 in operation withone cathode ................ 350

  • cathode

    45

    Tok aHoAaa, MA: in operation withone cathode ................ 45

  • heater, V [1]

    600 V

    npuv paboTe ¢ ABYMA KaTodaMM . .. ........... 600 Voltage between cathode and heater, V.. ......... 300

  • heater, V [2]

    300 V

    npuv paboTe ¢ ABYMA KaTodaMM . .. ........... 600 Voltage between cathode and heater, V.. ......... 300

  • grid circuit, MQ [1]

    350 Mohm

    npwv paboTe C OQHUM KATOAOM .. ............. 350 Resistance ingrid circuit, MQ . ............ ... .. 0.2

  • grid circuit, MQ [2]

    0.2 Mohm

    npwv paboTe C OQHUM KATOAOM .. ............. 350 Resistance ingrid circuit, MQ . ............ ... .. 0.2

  • Anode Characteristic Curves [1]

    4

    4 /// VIV ) - ] A\_leraged Anode Characteristic Curves 4 // V 7] 1717 »fi“ ]

  • Anode Characteristic Curves [2]

    4

    4 /// VIV ) - ] A\_leraged Anode Characteristic Curves 4 // V 7] 1717 »fi“ ]

  • Anode Characteristic Curves [3]

    7

    4 /// VIV ) - ] A\_leraged Anode Characteristic Curves 4 // V 7] 1717 »fi“ ]

  • Anode Characteristic Curves [4]

    1717

    4 /// VIV ) - ] A\_leraged Anode Characteristic Curves 4 // V 7] 1717 »fi“ ]

  • Grid Characteristic Curves [1]

    160

    c:::r:g'e:vl?node—Grid Characteristic Curves: 160 120 100 B0 60 40 -2 0

  • Grid Characteristic Curves [2]

    120

    c:::r:g'e:vl?node—Grid Characteristic Curves: 160 120 100 B0 60 40 -2 0

  • Grid Characteristic Curves [3]

    100

    c:::r:g'e:vl?node—Grid Characteristic Curves: 160 120 100 B0 60 40 -2 0

  • Grid Characteristic Curves [4]

    60

    c:::r:g'e:vl?node—Grid Characteristic Curves: 160 120 100 B0 60 40 -2 0

  • Grid Characteristic Curves [5]

    40

    c:::r:g'e:vl?node—Grid Characteristic Curves: 160 120 100 B0 60 40 -2 0

  • Grid Characteristic Curves [6]

    -2

    c:::r:g'e:vl?node—Grid Characteristic Curves: 160 120 100 B0 60 40 -2 0

  • Grid Characteristic Curves [7]

    0

    c:::r:g'e:vl?node—Grid Characteristic Curves: 160 120 100 B0 60 40 -2 0

Data set 03

1970 Russian Tubes Mashpriborintorg

Published operating points and test conditions from this source.

SECTION 1

Triode

Characteristics

  • Plate current - characteristic point

    540 mA

  • Grid-to-plate capacitance

    3.1 pF

Other

  • Maximum plate voltage - short-time/cold-start condition

    600 V

    ColdTube

  • Maximum cathode-to-heater voltage

    300 V

Data set 04

1981 Russian Tubes Katsnelson and Larionov

Published operating points and test conditions from this source.

SECTION 1

Triode

Characteristics

  • Plate current

    -90 mA

    Translated from Russian source; OCR line: Ток анода, мА . . ‚ — 54090 550--=80 540=-90

  • Plate resistance

    130 ohm

    Translated from Russian source; OCR line: Внутреннее сопротивление, Ом -— < 130 80—120 < 130

Other

  • Service life

    2000 h

    Translated from Russian source; OCR line: Наработка, ч. . . . . . . — 1000 750 > 2000