Data set 01
1972 Thomson CSF
Published operating points and test conditions from this source.
Tetrode
Other
MHz. The anode can dissipat e
12 MHz
MHz. The anode can dissipat e 12 kW.
TH
290 W
TH 290 tetrode is well adapted as a R.F. power
Heater voltage ( [1]
1 V
Heater voltage (1) - (2) .. .. ..o A
Heater voltage ( [2]
2 V
Heater voltage (1) - (2) .. .. ..o A
output (@
2
-output (@2tied t0gl) ... pF
Maximum temperature (
8
Maximum temperature (8) ... .ovvveremen oo
( [1]
1 V
(1) - For heater voltage application, see note page 4,
( [2]
4 V
(1) - For heater voltage application, see note page 4,
(
2
(2) In high frequency operation, the cathode is subjected to
( [1]
3 kW
(3) 30 °C incoming air temperature 12 kW anode
( [2]
30 kW
(3) 30 °C incoming air temperature 12 kW anode
( [3]
12 kW
(3) 30 °C incoming air temperature 12 kW anode
D.C.anode voltage [1]
5.2 W
D.C.anode voltage .......... 5.2 Anode dissipation . . . . ........ 12
D.C.anode voltage [2]
12 W
D.C.anode voltage .......... 5.2 Anode dissipation . . . . ........ 12
D.C.gridg2 voltage [1]
400 W
D.C.gridg2 voltage .......... 400 >><<< Grid g2 dissipation 150
D.C.gridg2 voltage [2]
150 W
D.C.gridg2 voltage .......... 400 >><<< Grid g2 dissipation 150
D.C.gridgl voltage [1]
250 W
D.C.gridgl voltage .......... - 250 Grid g1 dissipation 50
D.C.gridgl voltage [2]
50 W
D.C.gridgl voltage .......... - 250 Grid g1 dissipation 50
Peak cathode current [1]
25 A
Peak cathode current . ....... 25 Frequency 1000
Peak cathode current [2]
1000 A
Peak cathode current . ....... 25 Frequency 1000
D.C.anodecurrent
6 A
D.C.anodecurrent .......... 6
Frequency [1]
860 MHz
Frequency ....-........... 860 MHz D.C. anode current 4.8
Frequency [2]
4.8 MHz
Frequency ....-........... 860 MHz D.C. anode current 4.8
Bandwidth [1]
10 MHz
Bandwidth ................ 10 MHz D.C. grid g2 current 50 mA
Bandwidth [2]
50 MHz
Bandwidth ................ 10 MHz D.C. grid g2 current 50 mA
D.C.anodevoltage [1]
4.5 V
D.C.anodevoltage .......... 4.5 kV D.C. grid g1 current 450 mA
D.C.anodevoltage [2]
450 V
D.C.anodevoltage .......... 4.5 kV D.C. grid g1 current 450 mA
D.C.gridg2voltage [1]
325 W
D.C.gridg2voltage .......... 325 v Driving power, approx. ........ 1000
D.C.gridg2voltage [2]
1000 W
D.C.gridg2voltage .......... 325 v Driving power, approx. ........ 1000
D.C.gridgl voltage .......... ~ [1]
-75 kW
D.C.gridgl voltage .......... ~-75 \Y Anode dissipation, approx. 10.5 kW
D.C.gridgl voltage .......... ~ [2]
10.5 kW
D.C.gridgl voltage .......... ~-75 \Y Anode dissipation, approx. 10.5 kW
Load output power ( [1]
1 kW
Load output power (1) 10 kW
Load output power ( [2]
10 kW
Load output power (1) 10 kW
( [1]
1 W
(1) - Including power transferred from driver stage and 0.7 dB losses in output circuits.
( [2]
0.7 W
(1) - Including power transferred from driver stage and 0.7 dB losses in output circuits.
D.C.anodevoltage [1]
5.2 W
D.C.anodevoltage .......... 5.2 \ Anode dissipation 12
D.C.anodevoltage [2]
12 W
D.C.anodevoltage .......... 5.2 \ Anode dissipation 12
D.C.gridg2voltage [1]
400 W
D.C.gridg2voltage .......... 400 . Grid g2 dissipation 150
D.C.gridg2voltage [2]
150 W
D.C.gridg2voltage .......... 400 . Grid g2 dissipation 150
D.C.gridgl voitage
250 W
D.C.gridgl voitage .......... - 250 Grid g1 dissipation
D.C.anode current
6 A
D.C.anode current . ......... 6
Frequency
860 MHz
Frequency ... .......... 860 MHz D.C. grid g2 current
D.C.anodevoitage [1]
5
D.C.anodevoitage .......... 5 kV - pedestal level 25 mA
D.C.anodevoitage [2]
25
D.C.anodevoitage .......... 5 kV - pedestal level 25 mA
D.C.gridg2 voltage
320 V
D.C.gridg2 voltage .......... 320 \ D.C. grid g1 current
D.C.gridgl voltage [1]
-80 V
D.C.gridgl voltage .......... -80 \ - synchronizing level 500 mA
D.C.gridgl voltage [2]
500 V
D.C.gridgl voltage .......... -80 \ - synchronizing level 500 mA
D.C. anode current - pedestal level
100 A
D.C. anode current - pedestal level 100 mA
synchronizing level
4.8 W
-synchronizing level ...... 4.8 A Driving power, approx.
Load output power, approx. (
1 W
Load output power, approx. (1)
D.C. anode voltage [1]
5.2 kW
D.C. anode voltage .......... 5.2 kV Anode dissipation e e e 12 kW
D.C. anode voltage [2]
12 kW
D.C. anode voltage .......... 5.2 kV Anode dissipation e e e 12 kW
D.C.gridg2voltage [1]
400 W
D.C.gridg2voltage .......... 400 \ Grid g2 dissipation .......... 150 w
D.C.gridg2voltage [2]
150 W
D.C.gridg2voltage .......... 400 \ Grid g2 dissipation .......... 150 w
D.C.gridgt voltage [1]
250 W
D.C.gridgt voltage .......... - 250 \Y Grid g1 dissipation. ......... 50 W
D.C.gridgt voltage [2]
50 W
D.C.gridgt voltage .......... - 250 \Y Grid g1 dissipation. ......... 50 W
Peak cathode current [1]
25 MHz
Peak cathode current ... ..... 25 A Frequency ................ 1000 MHz
Peak cathode current [2]
1000 MHz
Peak cathode current ... ..... 25 A Frequency ................ 1000 MHz
D.C.anodecurrent
6 A
D.C.anodecurrent .......... 6 A
D.C.anode voltage [1]
5 V
D.C.anode voltage .......... 5 kV D.C.anodecurrent .......... 4 A
D.C.anode voltage [2]
4 V
D.C.anode voltage .......... 5 kV D.C.anodecurrent .......... 4 A
D.C.gridg2voltage [1]
300 W
D.C.gridg2voltage .......... 300 \' Drivingpower . ............. 900 w
D.C.gridg2voltage [2]
900 W
D.C.gridg2voltage .......... 300 \' Drivingpower . ............. 900 w
D.C.gridgt voltage [1]
-80 kW
D.C.gridgt voltage .......... -80 Vv Anode dissipation, approx. ... . 9 kW
D.C.gridgt voltage [2]
9 kW
D.C.gridgt voltage .......... -80 Vv Anode dissipation, approx. ... . 9 kW
Load output power ( [1]
1 kW
Load output power (1) ........ 10 kW
Load output power ( [2]
10 kW
Load output power (1) ........ 10 kW
( [1]
1 W
(1) - Including power transferred from driver stage and 0. 7 dB losses in output circuits.
( [2]
0 W
(1) - Including power transferred from driver stage and 0. 7 dB losses in output circuits.
( [3]
7 W
(1) - Including power transferred from driver stage and 0. 7 dB losses in output circuits.
D.C.anodevoltage [1]
6 kW
D.C.anodevoltage .......... 6 kV Anode dissipation . ......... 12 kW
D.C.anodevoltage [2]
12 kW
D.C.anodevoltage .......... 6 kV Anode dissipation . ......... 12 kW
D.C.gridg2 voltage [1]
800 W
D.C.gridg2 voltage .......... 800 \' Grid g2 dissipation . ......... 150 w
D.C.gridg2 voltage [2]
150 W
D.C.gridg2 voltage .......... 800 \' Grid g2 dissipation . ......... 150 w
D.C.gridgl voltage [1]
250 MHz
D.C.gridgl voltage .......... - 250 \' Frequency ................ 1000 MHz
D.C.gridgl voltage [2]
1000 MHz
D.C.gridgl voltage .......... - 250 \' Frequency ................ 1000 MHz
D.C. anode voltage
5.7 V
D.C. anode voltage ....... .. 5.7 kV Average grid g2 current at peak of
D.C.gridg2voltage [1]
700 V
D.C.gridg2voltage .......... 700 Vv envelope ................ 135 mA
D.C.gridg2voltage [2]
135 V
D.C.gridg2voltage .......... 700 Vv envelope ................ 135 mA
Zero signal anode current [1]
1.5 A
Zero signal anode current . . ... 1.5 A Average grid g2 current ... ... 95 mA
Zero signal anode current [2]
95 A
Zero signal anode current . . ... 1.5 A Average grid g2 current ... ... 95 mA
Average anode current at peak of Load impedance
650 A
Average anode current at peak of Load impedance ............ 650 Q
Average anode current [1]
3.2 kW
Average anode current 3.2 A Average load power .......... 6 kW
Average anode current [2]
6 kW
Average anode current 3.2 A Average load power .......... 6 kW
L.oad peak envelope power e
12 kW
L.oad peak envelope power e 12 kW
Published value [1]
1 V
1- % VT (filament voltage) during 60 seconds
Published value [2]
60 V
1- % VT (filament voltage) during 60 seconds
Published value
3
3- Grid bias
Published value
4 V
4 - Anode voltage
Published value
6 V
6- Screen voltage
Published value
6 V
6- Driving voltage
Published value
2 A
2- SECURITY DEVICES AGAINST ANODE, SCREEN, GRID OVERCURRENTS -
Published value [1]
1 A
1- Overcurrents due to unproper utilisation conditions : the protection can be achieved by 3 relays inserted
Published value [2]
3 A
1- Overcurrents due to unproper utilisation conditions : the protection can be achieved by 3 relays inserted
currents equal to
1.5 A
currents equal to 1.5 Imax. are attained, Imax. being the normal current in the considered operating
Published value [1]
2 A
2- Overcurrents due to stray oscillations or electrode arcings : the protection can be achieved by 3 short-
Published value [2]
3 A
2- Overcurrents due to stray oscillations or electrode arcings : the protection can be achieved by 3 short-
response security devices (grid, screen, anode) acting for currents equal to
5 A
response security devices (grid, screen, anode) acting for currents equal to 5 Imax, Imax being the normal
current in the considered operating conditions. Each of these [1]
3 A
current in the considered operating conditions. Each of these 3 systems acting on the 2 others must
current in the considered operating conditions. Each of these [2]
2 A
current in the considered operating conditions. Each of these 3 systems acting on the 2 others must