Data set 01
1972 Thomson CSF
Published operating points and test conditions from this source.
Cathode Ray
Other
Luminance®
400
Luminance® . ... 400 cd.m?
Heater voltage (D.C.)
6.3 V
Heater voltage (D.C.) . . . . ... . 6.3V
Heater current . . . . . . e, [1]
2 A
Heater current . . . . . . e, 2x0.3 A
Heater current . . . . . . e, [2]
3 A
Heater current . . . . . . e, 2x0.3 A
Heatervoltage . .. .. ... .. .. i e
6.3 V
Heatervoltage . .. .. ... .. .. i e 6.3V
Heater current . . . . . .,
600 mA
Heater current . . . . . ., 0.6 A
Heater h' voltage (D.C.) [1]
5.7 V
Heater h' voltage (D.C.) . . . .. .. . ... 5.7t06.9 \)
Heater h' voltage (D.C.) [2]
6.9 V
Heater h' voltage (D.C.) . . . .. .. . ... 5.7t06.9 \)
Cathode k'and kgrvoltages . ... ... ... ... ... ... ... ... ... ......... max
50 V
Cathode k'and kgrvoltages . ... ... ... ... ... ... ... ... ... ......... max. 50 \
heater negative with respect to cathode . . . ... ..... ... ... ........ max
150
heater negative with respect to cathode . . . ... ..... ... ... ........ max. 150 \'%
heater positive with respect to cathode . . .. . .. ... .. ... max
150
- heater positive with respect to cathode . . .. . .. ... .. ... max. 150 \
Grid gq- voltage (contral grid) . . ... ... ... L —
200 V
Grid gq- voltage (contral grid) . . ... ... ... L — 200 \Y
Grid go- voltage (accelerating electrode) . ... ... ... ... ...... .. ... .. .. .. — [1]
50 V
Grid go- voltage (accelerating electrode) . ... ... ... ... ...... .. ... .. .. .. — 50 to +50 \
Grid go- voltage (accelerating electrode) . ... ... ... ... ...... .. ... .. .. .. — [2]
50 V
Grid go- voltage (accelerating electrode) . ... ... ... ... ...... .. ... .. .. .. — 50 to +50 \
Grid g3’ voltage (collimating electrode} . .. ... .. .. ... ... ... ...... ... max
100 V
Grid g3’ voltage (collimating electrode} . .. ... .. .. ... ... ... ...... ... max. 100 \)
Grid gg' voltage (collecting electrode} *. .. ... ...... ... ... ... ... ... . ... max
150 V
Grid gg' voltage (collecting electrode} *. .. ... ...... ... ... ... ... ... . ... max. 150 \Y;
Grid gg' voltage (backing electrode) .. ... ... ... . ..... .. ... ... .. .. — [1]
150 V
Grid gg' voltage (backing electrode) .. ... ... ... . ..... .. ... ... .. .. — 150 to + 1600 \Y
Grid gg' voltage (backing electrode) .. ... ... ... . ..... .. ... ... .. .. — [2]
1600 V
Grid gg' voltage (backing electrode) .. ... ... ... . ..... .. ... ... .. .. — 150 to + 1600 \Y
Viewing screengy-voltage . .. ... ... ... ... ... ... ... max
8 V
Viewing screengy-voltage . .. ... ... ... ... ... ... ... max. 8 kV
Heater hvoltage [1]
5.7 V
Heater hvoltage . . . . . . . . . ... 5.7t06.9 \Y
Heater hvoltage [2]
6.9 V
Heater hvoltage . . . . . . . . . ... 5.7t06.9 \Y
Cathodevoltage . ... ... . . . . . ... max
3.6 V
Cathodevoltage . ... ... . . . . . ... max. - 3.6 kV
heater positive with respect to cathode . . . .. ... ... ... ... ... ..., max
150
heater positive with respect to cathode . . . .. ... ... ... ... ... ..., max. 150 \Y
Grid gq voltage™™ (control grid) . ... ... ... ... . ... ... —
300 V
Grid gq voltage™™ (control grid) . ... ... ... ... . ... ... — 300 \Y
Grid gp voltage (acceleratingvoltage) ... ........................... max
50 V
Grid gp voltage (acceleratingvoltage) ... ........................... max. 50 \Y;
Grid g3 voltage (focusing electrode) ... . ... ... ... ... ... . ... ... max
-3 V
Grid g3 voltage (focusing electrode) ... . ... ... ... ... ... . ... ... max. -3 kV
Grid g4 voltage (astigmatism) . ... ... ... ........ . ... ... max
100 V
Grid g4 voltage (astigmatism) . ... ... ... ........ . ... ... max. 100 \Y;
Grid g5 voltage (geometry) .. ... max
100 V
Grid g5 voltage (geometry) .. ... max. 100 Vv
Heater h' voltage (D.C.) [1]
6.3 V
Heater h' voltage (D.C.) .. 6.3+10% \Y
Heater h' voltage (D.C.) [2]
10 V
Heater h' voltage (D.C.) .. 6.3+10% \Y
Cathode kq-voltage (Note [1]
1 V
Cathode kq-voltage (Note 1) ... .. ... .. ... ... . ... ... ... . ... ... .. Oto +3 \
Cathode kq-voltage (Note [2]
3 V
Cathode kq-voltage (Note 1) ... .. ... .. ... ... . ... ... ... . ... ... .. Oto +3 \
Cathode kogrvoltage (Note [1]
1 V
Cathode kogrvoltage (Note 1) ... .. ... ... ... .. ... . ... .. ... ...... .. Oto +3 \Y;
Cathode kogrvoltage (Note [2]
3 V
Cathode kogrvoltage (Note 1) ... .. ... ... ... .. ... . ... .. ... ...... .. Oto +3 \Y;
Grid gqr voltage (controt grid)
0 V
Grid gqr voltage (controt grid) ... .. ... ... ... .. 0 \Y
Grid g3 voltage (collimating electrode) (Note [1]
2 V
Grid g3 voltage (collimating electrode) (Note 2} ... ..................... .. 30to 70 \Y
Grid g3 voltage (collimating electrode) (Note [2]
30 V
Grid g3 voltage (collimating electrode) (Note 2} ... ..................... .. 30to 70 \Y
Grid g3 voltage (collimating electrode) (Note [3]
70 V
Grid g3 voltage (collimating electrode) (Note 2} ... ..................... .. 30to 70 \Y
Viewing screen g7+ voltage (Note
8 V
Viewing screen g7+ voltage (Note 8} .. ... .. ... . ... ... . ... . ... ..., .. see table below
Heater hvoltage [1]
6.3 V
Heater hvoltage . ... . ... . . . ... 6.3£10% \
Heater hvoltage [2]
10 V
Heater hvoltage . ... . ... . . . ... 6.3£10% \
Cathode k voltage (Note [1]
14 V
Cathode k voltage (Note 14) . . . — 1700 \
Cathode k voltage (Note [2]
1700 V
Cathode k voltage (Note 14) . . . — 1700 \
Grid gq voltage (for cut-off) (w.rt. Vi) ..o o L — [1]
100 V
Grid gq voltage (for cut-off) (w.rt. Vi) ..o o L — 100 to — 40 \%
Grid gq voltage (for cut-off) (w.rt. Vi) ..o o L — [2]
40 V
Grid gq voltage (for cut-off) (w.rt. Vi) ..o o L — 100 to — 40 \%
Grid gg voltage (acceleration)
40 V
Grid gg voltage (acceleration) .. ... .. ... 40 \Y;
Grid gz voltage (focus) [1]
-1400 V
Grid gz voltage (focus) . . ... ..... ... ... . .. ... .. ... ... . —1400 to —1000 A
Grid gz voltage (focus) [2]
-1000 V
Grid gz voltage (focus) . . ... ..... ... ... . .. ... .. ... ... . —1400 to —1000 A
Grid gq voltage (astigmatism} [1]
10 V
Grid gq voltage (astigmatism} . ... ... ... ... .. ... 10to 70 \Y,
Grid gq voltage (astigmatism} [2]
70 V
Grid gq voltage (astigmatism} . ... ... ... ... .. ... 10to 70 \Y,
Grid gg voltage (geometry) {w.r.t. x plates mean potential) [1]
-30 V
Grid gg voltage (geometry) {w.r.t. x plates mean potential) .. ... ... ... ..... ... —30to +30 \'
Grid gg voltage (geometry) {w.r.t. x plates mean potential) [2]
30 V
Grid gg voltage (geometry) {w.r.t. x plates mean potential) .. ... ... ... ..... ... —30to +30 \'
heater current (D.C.YatVyr = [1]
6.3 A
heater current (D.C.YatVyr = 6.3V .. .. .. ... .. . 0. 66 A
heater current (D.C.YatVyr = [2]
0 mA
heater current (D.C.YatVyr = 6.3V .. .. .. ... .. . 0. 66 A
heater current (D.C.YatVyr = [3]
66 A
heater current (D.C.YatVyr = 6.3V .. .. .. ... .. . 0. 66 A
cathode kqrcurrent
1.5 A
cathode kqrcurrent . .. .. .. ... .. 1.5 mA
cathode korcurrent . .. . ... L
1.5 A
cathode korcurrent . .. . ... L. 1.5 mA
gridggr current
1 A
gridggr current ... 1 mA
Sogridggrourrent L
2
Sogridggrourrent L. 2 mA
grid gg CUITENT
0.5
grid gg CUITENT . . . . .. 0.5 mA
grid ggr CUTTENT . . . L
0.5
grid ggr CUTTENT . . . L. 0.5 mA
grid g7/ CUITENt
0.2
grid g7/ CUITENt . . . ... 0.2 mA
heater currentat Vi), = [1]
6.3 A
heater currentat Vi), = 6.3V ... ... .. L 0. 66 mA
heater currentat Vi), = [2]
0 mA
heater currentat Vi), = 6.3V ... ... .. L 0. 66 mA
heater currentat Vi), = [3]
66 A
heater currentat Vi), = 6.3V ... ... .. L 0. 66 mA
cathode CUITeNt . . . . . . . . e e e
3.5
cathode CUITeNt . . . . . . . . e e e 3.5 mA
grid go CUFTENt . . . .. e
3
grid go CUFTENt . . . .. e 3 mA
Published value
1
1 - A high permeability shield (mumetal) is necessary to protect the tube against external electrostatic and
Published value [1]
2
2 - For the writing gun, a heater transformer with insulated secondary coil must be used (4 kV insulation
Published value [2]
4
2 - For the writing gun, a heater transformer with insulated secondary coil must be used (4 kV insulation
Resolution (NOte [1]
9
Resolution (NOte 9) . . . . .. .. . e e 0.4 mm
Resolution (NOte [2]
0.4
Resolution (NOte 9) . . . . .. .. . e e 0.4 mm
The luminance for a saturated written trace is over [1]
400
The luminance for a saturated written trace is over 400 cd.m-2.
The luminance for a saturated written trace is over [2]
2
The luminance for a saturated written trace is over 400 cd.m-2.
When the flood beams are cut off and the screen voltage at
0 V
When the flood beams are cut off and the screen voltage at 0 V potential, the written information is not degraded
In the long-storage mode, g2' voltage is set at [1]
-6 V
In the long-storage mode, g2' voltage is set at —6 V, then a positive pulse train of 26 to 46 V amplitude is applied.
In the long-storage mode, g2' voltage is set at [2]
26 V
In the long-storage mode, g2' voltage is set at —6 V, then a positive pulse train of 26 to 46 V amplitude is applied.
In the long-storage mode, g2' voltage is set at [3]
46 V
In the long-storage mode, g2' voltage is set at —6 V, then a positive pulse train of 26 to 46 V amplitude is applied.
In store mode, the g6’ voltage must never exceed
8 V
In store mode, the g6’ voltage must never exceed 8 V. The impedance of the g6’ circuit must be as low as possible and not exceed
{n variable persistence mode, a positive pulse train of
4
{n variable persistence mode, a positive pulse train of 4 V amplitude is applied to grid g6’.
In erase mode, the grid g6’ potential must be raised from store-mode potential {i.e [1]
1
In erase mode, the grid g6’ potential must be raised from store-mode potential {i.e. 1 to 3 V) to ‘+ 1500 V for about 1 second and
In erase mode, the grid g6’ potential must be raised from store-mode potential {i.e [2]
3
In erase mode, the grid g6’ potential must be raised from store-mode potential {i.e. 1 to 3 V) to ‘+ 1500 V for about 1 second and
In erase mode, the grid g6’ potential must be raised from store-mode potential {i.e [3]
1500
In erase mode, the grid g6’ potential must be raised from store-mode potential {i.e. 1 to 3 V) to ‘+ 1500 V for about 1 second and
In erase mode, the grid g6’ potential must be raised from store-mode potential {i.e [4]
1
In erase mode, the grid g6’ potential must be raised from store-mode potential {i.e. 1 to 3 V) to ‘+ 1500 V for about 1 second and
then be returned to its store-mode potential. A positive pulse of [1]
12
then be returned to its store-mode potential. A positive pulse of 12 V amplitude maximum is then applied for 500 milliseconds.
then be returned to its store-mode potential. A positive pulse of [2]
500
then be returned to its store-mode potential. A positive pulse of 12 V amplitude maximum is then applied for 500 milliseconds.
In changing the operating from the “‘non-store” to the ‘‘store’” mode, the g6’ voltage must be raised from
-30 V
In changing the operating from the “‘non-store” to the ‘‘store’” mode, the g6’ voltage must be raised from —30 V to the proper
positive voltage ( [1]
1 V
positive voltage (1 to 3 V] in 2 seconds. This will prevent the storage surface to be damaged.
positive voltage ( [2]
3 V
positive voltage (1 to 3 V] in 2 seconds. This will prevent the storage surface to be damaged.
positive voltage ( [3]
2 V
positive voltage (1 to 3 V] in 2 seconds. This will prevent the storage surface to be damaged.
To avoid permanent damage to the tube, insert a [1]
30
To avoid permanent damage to the tube, insert a 30 M§2 minimum resistance in series in the supply circuit of g7’ screen.
To avoid permanent damage to the tube, insert a [2]
2
To avoid permanent damage to the tube, insert a 30 M§2 minimum resistance in series in the supply circuit of g7’ screen.
Measurement is made by the shrinking raster method with a beam current of [1]
5 A
Measurement is made by the shrinking raster method with a beam current of 5 UA. The linewidth is 0.4 mm max. at center and
Measurement is made by the shrinking raster method with a beam current of [2]
400 mA
Measurement is made by the shrinking raster method with a beam current of 5 UA. The linewidth is 0.4 mm max. at center and
In addition, this limiting writing speed can be further multiplied by a factor of [1]
2 V
In addition, this limiting writing speed can be further multiplied by a factor of 2 or 3 by doubling the acceleration voltage of the
In addition, this limiting writing speed can be further multiplied by a factor of [2]
3 V
In addition, this limiting writing speed can be further multiplied by a factor of 2 or 3 by doubling the acceleration voltage of the