[go: up one dir, main page]

US2945158A - Signal processing arrangement - Google Patents

Signal processing arrangement Download PDF

Info

Publication number
US2945158A
US2945158A US644599A US64459957A US2945158A US 2945158 A US2945158 A US 2945158A US 644599 A US644599 A US 644599A US 64459957 A US64459957 A US 64459957A US 2945158 A US2945158 A US 2945158A
Authority
US
United States
Prior art keywords
conductor
electrode
outer conductor
transmission line
cavity resonator
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Expired - Lifetime
Application number
US644599A
Inventor
Robert E Carson
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
General Electric Co
Original Assignee
General Electric Co
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by General Electric Co filed Critical General Electric Co
Priority to US644599A priority Critical patent/US2945158A/en
Application granted granted Critical
Publication of US2945158A publication Critical patent/US2945158A/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

Links

Images

Classifications

    • HELECTRICITY
    • H03ELECTRONIC CIRCUITRY
    • H03FAMPLIFIERS
    • H03F3/00Amplifiers with only discharge tubes or only semiconductor devices as amplifying elements
    • H03F3/54Amplifiers using transit-time effect in tubes or semiconductor devices

Definitions

  • Another object of my invention is to provide improved means for providing high frequency electrical waves.
  • Another objectof my invention is to provide novel high frequency bypass circuits for use with cavity resonator type signal transducers.
  • Another objectof my invention is to provide an improved cavity resonator signal transducing arrangement. Another object of my invention is to provide improved input and output circuits for use with high frequency signal transducing arrangements.
  • Another object of my invention is to provide an improved electrical arrangement comprising an improved input and outputcircuit for use with a signal transducing arrangement employing a plurality of control electrodes.
  • high frequency amplification of electrical signals is obtained by means of a high-powered tetrode amplifying device tuned vby an input cavity resonator which comprises, effectively, half Wave length open-ended transmis sion line. 1
  • the resonator design permits asho'rt'er physical length of the tuning cavity andleliminates the need for complex high frequency bypassing circuits. Where a high frequency bypass circuit is required, I have provided a novel arrangement comprising effectively a quarter wave open-ended transmission line of cylindrical construction. The features of the present invention which are be.- lieved to be novel are particularly pointed out in the appended claims. s
  • Fig. 1 illustrates schematically a high frequency power amplifying stage comprising an electron discharge device in the form of a single plate electrode surrounded by a plurality of control electrodes
  • Fig. 2 illustrates part pictorially and part in block diagram form anembodiment of the present invention
  • Fig. 3 illustrates in simplified pictorial form a further embodiment of the present invention.
  • a signal amplifier comprising an electron discharge device 1.
  • Said device Patented July 12, 1960 Each of said arrangements 3' comprise a screen electrode 4, a control electrode 5, and a cathode electrode 6. 1 All of the electrodes are mounted within: the evacuated en It is desirable, under certain conditions, to
  • velope 7. provide a single input circuit and a single output circuit with such an amplifying device.
  • the input and outputsignal connections are made as shown with a cathode voltage being applied to all of the cathodes in common over lead 8, a grid bias signal applied in common to all of the control electrodes 5 over I lead 9, a screen bias voltage applied to all of the screen electrodes 4 over lead 10, and the B+ potential for the plate electrode 2 over leadll.
  • the input and output circuits for use with such a structure can best be analyzed by reference to Fig. 2.
  • Fig. 2 has been drawn to represent only one set of control electrode arrangements associated with the common plate electrode ⁇ 2. This has been represented in Fig. 2 by providing a' single tuning input circuit shown above the dotted line AA and a single output circuit shown below the dotted line BB. It should be noted that the single plate electrode 2 is shown below the dotted line BB.
  • the plurality of control electrode arrangements ofFig. 2, associated with it a plurality of control electrode arrangements 3.
  • the input cavity resonator is designed to simulate a folded half-wave length open ended transmission line coupled between the. cathode electrode 6 and the control electrode. 5.
  • Theinput cavity resonator comprises an outer conductor 16 having asso-' ciated'therewith two inner conductors.
  • the inner conductors comprise a first and second'cylindrical conductor 1'7 and 18 respectively.
  • Conductor 17 is connected at one end to the control electrode 5 and spaced at the other end from the outer conductor 16.
  • Conductor 18 comprises two sections .19 and 21.
  • the section 19 comprises a fixed length cylindrical conductor connected at one end to the outer conductor 16 and conductively connected at the other end by means of spring fingers 20 to the adjustablelength cylindrical conductor 21.
  • length of conductor 21 within the cavity resonator 15 may be varied by means of control rod 22.
  • the conductor 21 passes through an annular gap of the conductor 16.
  • Bias for the control electrode 5 is provided from source 23 by means of the grid bias'resistor 24, the connection 9 and the movable contact'25 conductively contacting the cylindrical conductor17i
  • Cathode voltage is provided from source 26 over lead 8 to the cathode electrode 6.
  • Coupling condenser 27 associated with the coaxial line 14 has a sliding contact which is movably adjustable along the conductor 17 in order to match the impedance of the input cavity resonator to that of the high frequency source 12.
  • the output cavity resonator 28 comprises an outer conductor 29 and an inner conductor 30.
  • Inner conduc tom-30 comprises a cylindrical section 31 formed of a suitable dielectric material such as quartz, having an electrically conductive outer surface 32 and an electrically conductive inner surface '33. This arrangement is electrically dimensionedto be a wavelength long at the c rcui 3 s conn c y' means of. a coax l line ha n n i er nd ctor 3 w ic m y be i t b yconnected to a point 39 along the length of the surface 312
  • Capacitor 40 constitutes the radio frequency bypass capacitor for the 13+. supplied to the plate electrode 2.
  • a signal amplifier comprising a single, plate electrode, a pluality ofv separate cathode electrodes,' a' plurality bffseparate control electrodes, and a. plurality of separate screen electrodes, all'of said separate electrodes electrically cooperating with said single plate electrode, means simulating a folded half Wavelength open-ended transmission line connected between said cathodes and control electrodes Comprising a cav ty esqnat ns d r onator omprising a ylindrical outer conductor connectedat one end to said cathode electrodes, and an inner conductor, said inner conductor comprising an outer cylinder connected tosaid control electrodes and an inner cylinder adjustable in length and connected at one end to the other end of said outer conductor.
  • a cavity resonator comprising a 4 mounted within said outer conductor, means for connecting said electrode to the outermost one of said inner conductors, means for connecting the innermost of said inner conductors to the other end of said outer conductor, means for coupling an input signal to the transmission line portion formed by said outer and outermost conductors, and means for varying the length of said 4.
  • a signal transducing arrangement 'comprisingly a plurality of input electrodes and a single output electrode, a tubular outer conductor, a folded open-ended transmission line coupled between said outer 5.
  • a signal transducing arrangement a trode and said first conductor so to separate them from each other, and means for adjusting the length of said second conductor.
  • av tuned resonant low impedance coupling arrangement comprising a tubular inner conductor of dielectric material mounted within said c-a'vity resonator and having electrically insulated inner and outer electrically conductive surfaces thereon, means for coupling said electrode to said inner surface at one end of said inner conductor, and mea s for extracting output signals coupled to said outer surface, said inner conductor having a length so as to constitute an odd integral multiple of a quarter wave open-ended line at the frequency of the output signals.
  • a signal transducing device comprising a tubular outer conductorhaving an electrode positioned near one end thereof and being closed at, the other end, a folded'open -ended transmission line. coupled between said outer conductor and said electrode com: prising a pair of spaced concentric inner conductors ing electrically with said first electrode, a cavity resonator, said resonator comprising a' tubular outer conductor closed at one end'by a wall portion and a pair of concentric tubular inner conductors, said first electrode locatednear the other end of said outer conductor, the outermost of said inner'conductors being spaced from said wall portion and connected to'said second electrodes so as to formwith said outer conductor a first transmission line. portion, the innermost of said inner conductors having one end connected to said wall portion, and means for varying the dimensions of the'second transmission line portion formed between said inner conductors comprising means for varying thelength'of, said innermost conductor.
  • a signal transducing device comprising a tubular outer conductor having a control electrode positioned near one end thereof and being closed by a conductive wall portion at the other end thereof, a pair of spaced concentric inner conductors mounted withinv said outer conductor, one end of the outermost one of said inner conductors being electrically insulated from, said wall portion, meansf'or conductively connccting said control electrode to the other end of said outermost one of said inner conductors, means for conductively connecting the innermost of said inner conductors to said wall portion of said outer conductor, means for coupling an, input signal throughsaid outer conductor to the cavity" resonator portion formed by said outer and outermost conductors, means for varying the length of said innermost conductor to vary the cavity resonator portion formed by said inner conductors, a second cavity resonator-comprising a tubular outer conductor having an output electrode positioned near one end thereof, a tubular inner conductor of dielectric material mounted within said
  • a cavity resonator for tuning an electron discharge device consisting of a folded open-ended transmission line comprising a tubular outer conductor closed at one end by a wall portion, a pair of concentric tubular inner conductors mounted within said outer conductor, the outer most of said inner conductors being spaced from said wall portion forming with said outer conductor a first portion of said transmission line, the inner most of said inner conductors having one end connected to said wall portion and the other end forming with said outer most conductor an open-ended portion of said transmission line, and means for varying the dimensions of transmission line portion formed between said inner conductors, said means comprising means for varying the length of said inner most conductor.
  • a cavity resonator comprising a tubular outer conductor having a first electrode positioned near one end thereof, a tubular member of dielectric material mounted concentrically within said outer conductor and having electrically insulated inner and outer conductive surfaces thereon, means for coupling said first electrode to said inner surface at one end of said tubular member, a second electrode coupled to said outer conductor, signal means, means coupling said signal means in circuit between said first and said second electrode comprising means to couple said signal means to said outer surface, said tubular member having a length so as to constitute an odd integral multiple of an open quarter wave length section at the frequency of the signal at said signal means, a conductive end wall portion connected between said outer conductive surface and said outer conductor at its other end.

Landscapes

  • Engineering & Computer Science (AREA)
  • Power Engineering (AREA)
  • Control Of Motors That Do Not Use Commutators (AREA)

Description

July 12, 1960 R. E. CARSON SIGNAL PRocssmG ARRANGEMENT File d March 7, 1957 CONTROL 3 GRID BIAS OUTPUT LOAD CIRCUIT INVENTOR HIS ATTORNEY.
HIGH FREQUENCY SIGNAL SOURCE United States ,aten
rice
2,945,153 SIGNAL PROCESSING ARRANGEMENT Robert E. Carson, North Syracuse, N.Y., assignor to General Electric Company, a corporation of New York Filed Mar. 7,1957, Ser. No. 644,599 9 Claims. (01. 315-39 mechanical design. The frequency of operation often- I times dictates a form of cavity resonator construction which inherently introduces mechanical and electrical problems not found in the simpler open transmission line structure employed at lower frequencies. A cavity resonator type construction introduces or increases the problems of tuning, and the problem of bypassing the high frequency signals at'the leads supplying biasing and plate voltages which determine the operating conditions, etc. It is; therefore an object of my invention to provide an improved signal processing arrangement.
Another object of my invention is to provide improved means for providing high frequency electrical waves.
Another objectof my invention is to provide novel high frequency bypass circuits for use with cavity resonator type signal transducers.
Another objectof my invention is to provide an improved cavity resonator signal transducing arrangement. Another object of my invention is to provide improved input and output circuits for use with high frequency signal transducing arrangements. 1
Another object of my invention is to provide an improved electrical arrangement comprising an improved input and outputcircuit for use with a signal transducing arrangement employing a plurality of control electrodes. In accordance with an embodiment of my invention, high frequency amplification of electrical signals is obtained by means of a high-powered tetrode amplifying device tuned vby an input cavity resonator which comprises, effectively, half Wave length open-ended transmis sion line. 1
The resonator design permits asho'rt'er physical length of the tuning cavity andleliminates the need for complex high frequency bypassing circuits. Where a high frequency bypass circuit is required, I have provided a novel arrangement comprising effectively a quarter wave open-ended transmission line of cylindrical construction. The features of the present invention which are be.- lieved to be novel are particularly pointed out in the appended claims. s
Fig. 1 illustrates schematically a high frequency power amplifying stage comprising an electron discharge device in the form of a single plate electrode surrounded by a plurality of control electrodes, Fig. 2 illustrates part pictorially and part in block diagram form anembodiment of the present invention, and Fig. 3 illustrates in simplified pictorial form a further embodiment of the present invention.
Referring to Fig. 1' there is shown a signal amplifier comprising an electron discharge device 1. Said device Patented July 12, 1960 Each of said arrangements 3' comprise a screen electrode 4, a control electrode 5, and a cathode electrode 6. 1 All of the electrodes are mounted within: the evacuated en It is desirable, under certain conditions, to
velope 7. provide a single input circuit and a single output circuit with such an amplifying device. In a preferred embodiment, the input and outputsignal connections are made as shown with a cathode voltage being applied to all of the cathodes in common over lead 8, a grid bias signal applied in common to all of the control electrodes 5 over I lead 9, a screen bias voltage applied to all of the screen electrodes 4 over lead 10, and the B+ potential for the plate electrode 2 over leadll. The input and output circuits for use with such a structure can best be analyzed by reference to Fig. 2.
For purposes of simplicity elements common to Figs. 1 and 2 have been identified by the same reference number. For purposes of simplification, Fig. 2 has been drawn to represent only one set of control electrode arrangements associated with the common plate electrode} 2. This has been represented in Fig. 2 by providing a' single tuning input circuit shown above the dotted line AA and a single output circuit shown below the dotted line BB. It should be noted that the single plate electrode 2 is shown below the dotted line BB. The plurality of control electrode arrangements ofFig. 2, associated with it a plurality of control electrode arrangements 3.
with the common plate electrode, are shown, for purposes of simplicity, as a single cathode electrode 6, a single control electrode 5, and a. single screen electrode 4 between the sections AA and BB". a
It is desirable to take high frequency power in the form of electrical signals from the high frequency signal source 12 and amplify them to a suitable level before delivering them to the output circuit 13. Signals from source 12 are applied over the coaxial line 14 to the input cavity resonator circuit 15. The input cavity resonator is designed to simulate a folded half-wave length open ended transmission line coupled between the. cathode electrode 6 and the control electrode. 5. Theinput cavity resonator comprises an outer conductor 16 having asso-' ciated'therewith two inner conductors. The inner conductors comprise a first and second'cylindrical conductor 1'7 and 18 respectively. Conductor 17 is connected at one end to the control electrode 5 and spaced at the other end from the outer conductor 16. Conductor 18 comprises two sections .19 and 21. The section 19 comprises a fixed length cylindrical conductor connected at one end to the outer conductor 16 and conductively connected at the other end by means of spring fingers 20 to the adjustablelength cylindrical conductor 21. The
length of conductor 21 within the cavity resonator 15 may be varied by means of control rod 22. The conductor 21 passes through an annular gap of the conductor 16. Bias for the control electrode 5 is provided from source 23 by means of the grid bias'resistor 24, the connection 9 and the movable contact'25 conductively contacting the cylindrical conductor17i Cathode voltage is provided from source 26 over lead 8 to the cathode electrode 6.
Coupling condenser 27 associated with the coaxial line 14, has a sliding contact which is movably adjustable along the conductor 17 in order to match the impedance of the input cavity resonator to that of the high frequency source 12.' Byproviding in effect a folded, open-ended transmission line, applicant is able to compress the size of the cavity resonator, thereby simplifying the electricaland mechanical design, and also eliminating the need for a high frequency bypass; condenser betweenthe grid 5 and the inner conductor 17. Thus by providing a folded transmission line abc, effectively a half wave length long, and open at the end 0,
3 v a the need for a high frequency bypass condenser at point his eliminated.
The output cavity resonator 28 comprises an outer conductor 29 and an inner conductor 30. Inner conduc tom-30 comprisesa cylindrical section 31 formed of a suitable dielectric material such as quartz, having an electrically conductive outer surface 32 and an electrically conductive inner surface '33. This arrangement is electrically dimensionedto be a wavelength long at the c rcui 3 s conn c y' means of. a coax l line ha n n i er nd ctor 3 w ic m y be i t b yconnected to a point 39 along the length of the surface 312 Capacitor 40 constitutes the radio frequency bypass capacitor for the 13+. supplied to the plate electrode 2.
Although he invention has been described in a manner su h that e i put cavity resonat r c p ses th folded open-ended transmission construction and the output cavity resonator comprises a short cireuited transmission line construction, these constructions may be employed in the input or output cavity resonator portions. Fig.3 illustrates one such alternative construction. Elements common to Figures 2 and 3 have been identified by common reference numerals.
While a specific embodiment has. been shown and described, it will of course be understood that various modifiQations may yet be devised by those skilled in the art which will embody the principles of the invention and found in the true spiritand scope, thereof.
What I claim and desire to secure. by Letters Patent of the United States is:
1. In combination, a signal amplifier comprising a single, plate electrode, a pluality ofv separate cathode electrodes,' a' plurality bffseparate control electrodes, and a. plurality of separate screen electrodes, all'of said separate electrodes electrically cooperating with said single plate electrode, means simulating a folded half Wavelength open-ended transmission line connected between said cathodes and control electrodes Comprising a cav ty esqnat ns d r onator omprising a ylindrical outer conductor connectedat one end to said cathode electrodes, and an inner conductor, said inner conductor comprising an outer cylinder connected tosaid control electrodes and an inner cylinder adjustable in length and connected at one end to the other end of said outer conductor. V
2 In combination, a cavity resonator comprising a 4 mounted within said outer conductor, means for connecting said electrode to the outermost one of said inner conductors, means for connecting the innermost of said inner conductors to the other end of said outer conductor, means for coupling an input signal to the transmission line portion formed by said outer and outermost conductors, and means for varying the length of said 4. In combination, a signal transducing arrangement 'comprisingly a plurality of input electrodes and a single output electrode, a tubular outer conductor, a folded open-ended transmission line coupled between said outer 5. In combination, a signal transducing arrangement a trode and said first conductor so to separate them from each other, and means for adjusting the length of said second conductor.
comprising a first electrode, a plurality of separate sec- 0nd electrodes, all of saidseparate electrodes cooperattubular outer conductor having an electrode positioned near one end thereof av tuned resonant low impedance coupling arrangement comprising a tubular inner conductor of dielectric material mounted within said c-a'vity resonator and having electrically insulated inner and outer electrically conductive surfaces thereon, means for coupling said electrode to said inner surface at one end of said inner conductor, and mea s for extracting output signals coupled to said outer surface, said inner conductor having a length so as to constitute an odd integral multiple of a quarter wave open-ended line at the frequency of the output signals. I 3, In combination, a signal transducing device comprising a tubular outer conductorhaving an electrode positioned near one end thereof and being closed at, the other end, a folded'open -ended transmission line. coupled between said outer conductor and said electrode com: prising a pair of spaced concentric inner conductors ing electrically with said first electrode, a cavity resonator, said resonator comprising a' tubular outer conductor closed at one end'by a wall portion and a pair of concentric tubular inner conductors, said first electrode locatednear the other end of said outer conductor, the outermost of said inner'conductors being spaced from said wall portion and connected to'said second electrodes so as to formwith said outer conductor a first transmission line. portion, the innermost of said inner conductors having one end connected to said wall portion, and means for varying the dimensions of the'second transmission line portion formed between said inner conductors comprising means for varying thelength'of, said innermost conductor. a f
6. In combination, a signal transducing device comprising a tubular outer conductor having a control electrode positioned near one end thereof and being closed by a conductive wall portion at the other end thereof, a pair of spaced concentric inner conductors mounted withinv said outer conductor, one end of the outermost one of said inner conductors being electrically insulated from, said wall portion, meansf'or conductively connccting said control electrode to the other end of said outermost one of said inner conductors, means for conductively connecting the innermost of said inner conductors to said wall portion of said outer conductor, means for coupling an, input signal throughsaid outer conductor to the cavity" resonator portion formed by said outer and outermost conductors, means for varying the length of said innermost conductor to vary the cavity resonator portion formed by said inner conductors, a second cavity resonator-comprising a tubular outer conductor having an output electrode positioned near one end thereof, a tubular inner conductor of dielectric material mounted within said second cavity resonator and having electrically insulated inner and outer electrically conductive surfaces thereon, means for coupling said output electrode to said inner surface, and: means for extracting output signals coupled through said second cavity outer conductor to said outer. surface. a
7. A cavity resonato-r'comprising a tubular outer conductor closed at oneendbya wall portion, a control electrode positioned within said outer conductor, a folded open-ended transmission line coupled between'said' tubular outer'conductor and" said control electrode comprising a pair of concentric tubular-inner conductors mounted within said outer conductor, the outer most of said inner conductors having one end connected to said control electrode and the other end spaced from said wall portion forming with said outer conductor a first transmission line portion, the inner most of said inner conductors having one end connected to said wall portion and the other end forming with said outer most conductor a second transmission line portion.
8. A cavity resonator for tuning an electron discharge device, said resonator consisting of a folded open-ended transmission line comprising a tubular outer conductor closed at one end by a wall portion, a pair of concentric tubular inner conductors mounted within said outer conductor, the outer most of said inner conductors being spaced from said wall portion forming with said outer conductor a first portion of said transmission line, the inner most of said inner conductors having one end connected to said wall portion and the other end forming with said outer most conductor an open-ended portion of said transmission line, and means for varying the dimensions of transmission line portion formed between said inner conductors, said means comprising means for varying the length of said inner most conductor.
9. In combination, a cavity resonator comprising a tubular outer conductor having a first electrode positioned near one end thereof, a tubular member of dielectric material mounted concentrically within said outer conductor and having electrically insulated inner and outer conductive surfaces thereon, means for coupling said first electrode to said inner surface at one end of said tubular member, a second electrode coupled to said outer conductor, signal means, means coupling said signal means in circuit between said first and said second electrode comprising means to couple said signal means to said outer surface, said tubular member having a length so as to constitute an odd integral multiple of an open quarter wave length section at the frequency of the signal at said signal means, a conductive end wall portion connected between said outer conductive surface and said outer conductor at its other end.
References Cited in the file of this patent UNITED STATES PATENTS 2,289,846 Litton July 14, 1942 2,421,784 Haesler et a1 June 10, 1947 2,476,725 Gurewitsch July 19, 1949 2,635,212 Crawford et a1. Apr. 14, 1953 2,813,997 McArthur Nov. 19, 1957 2,816,245 Coeterier Dec. 10, 1957 2,828,438 McArthur Mar. 25, 1958 2,870,374 Papp Ian. 20, 1959 UNITED STATES PATENT OFFICE CERTIFICATE CF CORRECTION Patent N00 2,945 158 July 12 1960 Robert Carson It is hereb certified that error appears in the-printed specification of the above numbered patent requiring correction and that the said Letters Patent should read as corrected below.
Column 3, line 42 for "pluality" read plurality line 58, after "thereof" insert a comma; column 4 line ll for "comprisingly" read comprising Signed and sealed this 27th day of December 1960.
(SEAL) Attest: KARL H. AXLINE ROBERT C. WATSON Attesting Oificer Commissioner of Patents
US644599A 1957-03-07 1957-03-07 Signal processing arrangement Expired - Lifetime US2945158A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
US644599A US2945158A (en) 1957-03-07 1957-03-07 Signal processing arrangement

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
US644599A US2945158A (en) 1957-03-07 1957-03-07 Signal processing arrangement

Publications (1)

Publication Number Publication Date
US2945158A true US2945158A (en) 1960-07-12

Family

ID=24585571

Family Applications (1)

Application Number Title Priority Date Filing Date
US644599A Expired - Lifetime US2945158A (en) 1957-03-07 1957-03-07 Signal processing arrangement

Country Status (1)

Country Link
US (1) US2945158A (en)

Cited By (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3466497A (en) * 1966-11-23 1969-09-09 Us Air Force Coaxial circuit for vacuum tubes
US3492528A (en) * 1968-03-04 1970-01-27 Machlett Lab Inc High frequency power tube
US3805111A (en) * 1972-08-04 1974-04-16 V Ryabinin Microwave electron tube
US3882351A (en) * 1972-08-04 1975-05-06 Vladimir Alexandrovic Ryabinin Microwave electron tube
US5572092A (en) * 1993-06-01 1996-11-05 Communications And Power Industries, Inc. High frequency vacuum tube with closely spaced cathode and non-emissive grid
US7145297B2 (en) 2004-11-04 2006-12-05 Communications & Power Industries, Inc. L-band inductive output tube

Citations (8)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2289846A (en) * 1940-07-16 1942-07-14 Int Standard Electric Corp Half-wave velocity modulation tube
US2421784A (en) * 1943-02-24 1947-06-10 Rca Corp Ultra high frequency apparatus
US2476725A (en) * 1944-08-28 1949-07-19 Gen Electric Ultra high frequency oscillator device
US2635212A (en) * 1946-03-05 1953-04-14 Franzo H Crawford Tunable magnetron
US2813997A (en) * 1955-01-25 1957-11-19 Gen Electric Electron discharge device
US2816245A (en) * 1951-05-29 1957-12-10 Philips Corp Device for producing ultra-short waves
US2828438A (en) * 1947-06-26 1958-03-25 Gen Electric Electric discharge devices
US2870374A (en) * 1954-05-26 1959-01-20 Itt Microwave electron discharge tubes

Patent Citations (8)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US2289846A (en) * 1940-07-16 1942-07-14 Int Standard Electric Corp Half-wave velocity modulation tube
US2421784A (en) * 1943-02-24 1947-06-10 Rca Corp Ultra high frequency apparatus
US2476725A (en) * 1944-08-28 1949-07-19 Gen Electric Ultra high frequency oscillator device
US2635212A (en) * 1946-03-05 1953-04-14 Franzo H Crawford Tunable magnetron
US2828438A (en) * 1947-06-26 1958-03-25 Gen Electric Electric discharge devices
US2816245A (en) * 1951-05-29 1957-12-10 Philips Corp Device for producing ultra-short waves
US2870374A (en) * 1954-05-26 1959-01-20 Itt Microwave electron discharge tubes
US2813997A (en) * 1955-01-25 1957-11-19 Gen Electric Electron discharge device

Cited By (8)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US3466497A (en) * 1966-11-23 1969-09-09 Us Air Force Coaxial circuit for vacuum tubes
US3492528A (en) * 1968-03-04 1970-01-27 Machlett Lab Inc High frequency power tube
US3805111A (en) * 1972-08-04 1974-04-16 V Ryabinin Microwave electron tube
US3882351A (en) * 1972-08-04 1975-05-06 Vladimir Alexandrovic Ryabinin Microwave electron tube
US5572092A (en) * 1993-06-01 1996-11-05 Communications And Power Industries, Inc. High frequency vacuum tube with closely spaced cathode and non-emissive grid
US5767625A (en) * 1993-06-01 1998-06-16 Communications & Power Industries, Inc. High frequency vacuum tube with closely spaced cathode and non-emissive grid
US7145297B2 (en) 2004-11-04 2006-12-05 Communications & Power Industries, Inc. L-band inductive output tube
US20070080762A1 (en) * 2004-11-04 2007-04-12 Communications & Power Industries, Inc. L-band inductive output tube

Similar Documents

Publication Publication Date Title
US2169396A (en) Signal-translating apparatus
US2421784A (en) Ultra high frequency apparatus
US2235414A (en) Thermionic valve circuits
US2143671A (en) Ultra short wave circuit
US2945158A (en) Signal processing arrangement
US2337219A (en) Short wave tuned circuit arrangement
US2434115A (en) Electric discharge device and coaxial line cavity resonator therefor
US2426185A (en) Translation of microwaves
US2421591A (en) Ultra high frequency device of the cavity resonator type
US2617038A (en) Ultrahigh-frequency device
US2465801A (en) Ultra high frequency apparatus
US3805111A (en) Microwave electron tube
US2642533A (en) Radio-frequency generator
US2401634A (en) Ultra high frequency coupling device
US2867726A (en) Radio frequency generator
US2451502A (en) Ultra high frequency oscillator
US2432193A (en) Microwave oscillator
US2633537A (en) Coaxial line oscillator
US2779895A (en) Cavity resonator device
GB652240A (en) Improvements in or relating to circuit arrangements for use on ultra-high frequencies
US2895076A (en) High frequency electron discharge device
US2398502A (en) Oscillation generation
US1998091A (en) Electron discharge device
US2763842A (en) Coaxial conductor circuit, including coupling loop
US2640946A (en) Ultrahigh-frequency thermionic valve