M5187 X-Band Magnetron

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M5187 X-Band Magnetron The data should be read in conjunction with the Magnetron Preamble MXIMUM ND MINIMUM RTINGS BRIDGED DT These ratings cannot necessarily be used simultaneously, and no individual rating should be exceeded Min Max Heater voltage (see note 1) 57 69 Heater starting current (peak) 30 node voltage (peak) 75 85 k node current (peak) 60 Input power (peak) 75 Input power (mean) (see note 3) 85 Duty cycle 00015 Pulse duration 20 ms Rate of rise of voltage pulse (see notes 4 and 5) 200 k/ms node temperature (see note 6) 120 8C SR at the output coupler 15:1 Fixed frequency pulse magnetron It is a direct replacement for the M515 and is tested to the same electrical and mechanical specification Under most conditions it offers enhanced operating life Operating frequency 94 + 30 MHz Typical peak output power Magnet integral Output no 16 waveguide (2286 x 16 mm internal) Coupler UG-40B/U (NTO SN 5985-99-083-0051) Cooling natural or forced-air GENERL (bsolute values) Electrical Cathode Heater voltage (see note 1) Heater current at 63 Heater starting current, peak value, not to be exceeded Cathode pre-heating time (minimum) (see note 2) indirectly heated 63 055 TYPICL OPERTION Heater voltage node current (peak) Pulse duration Pulse repetition rate Rate of rise of voltage 30 60 max s Mechanical Overall dimensions see outline Net weight 15 kg approx Mounting position any minimum clearance of 50 mm must be maintained between the magnet and any magnetic materials Cooling Operating Conditions pulse 1 63 80 10 500 120 2 63 80 01 ms 00 pps 120 k/ms Typical Performance node voltage (peak) 82 Output power (peak) Output power (mean) 1 82 natural or forced-air e2v technologies (uk) limited, aterhouse Lane, Chelmsford, Essex CM1 2QU, UK Telephone: +44 (0)1245 493493 Facsimile: +44 (0)1245 492492 e-mail: enquiries@e2vcom Internet: wwwe2vcom Holding Company: e2v technologies plc # e2v technologies (uk) limited 2016 1-M5187 Issue 7, June 2016 123197 k

TEST CONDITIONS ND LIMITS The magnetron is tested to comply with the following electrical specification Test Conditions Oscillation 1 Oscillation 2 Heater voltage (for test) 63 63 node current (mean) 40 08 m Duty cycle 00005 00001 Pulse duration (see note 7) 05 005 ms SR at the output coupler 115:1 115:1 max Rate of rise of voltage pulse (see note 4): using hard tube pulser 200 200 k/ms min alternatively using line type pulser 120 120 k/ms min Limits Min Max Min Max node voltage (peak) 75 85 75 85 k Output power (mean) 0 20 Frequency (see note 8) 9380 9440 MHz RF bandwidth at 1 / 4 power 50 50 MHz Frequency pulling (SR not less than 15:1) 18 MHz Stability (see note 9) 0 0 % Heater current see note Temperature coefficient of frequency see note 11 LIFE TEST The quality of all production is monitored by the random selection of tubes which are then life-tested under Test Conditions Oscillation 1 If the tube is to be operated under conditions other than those specified herein, e2v technologies should be consulted to verify that the life of the magnetron will not be impaired End of Life Criteria (under Test Conditions Oscillation 1) node voltage (peak) 75to85 k Output power (peak) 16 min RF bandwidth at 1 / 4 power 50 MHz max Frequency 9380 to 9440 MHz Stability (see note 9) 10 % max NOTES 1 ith no anode input power For average values of pulse input power greater than 40 the heater voltage must be reduced within 3 seconds after the application of HT according to the following schedule: h = 008 (1 7 Pi) volts where Pi = average input power in watts The magnetron heater must be protected against arcing by the use of a minimum capacitance of 4000 pf shunted across the heater directly at the input terminals; in some cases a capacitance as high as 2 mf may be necessary depending on the equipment design For further details see the Magnetron Preamble 2 For ambient temperatures above 0 8C For ambient temperatures between 0 and 755 8C the cathode preheating time is 90 seconds 3 The various parameters are related by the following formula: Pi = i apk xv apk xdu where Pi = mean input power in watts i apk = peak anode current in amperes v apk = peak anode voltage in volts and Du = duty cycle 4 Defined as the steepest tangent to the leading edge of the voltage pulse above 80% amplitude ny capacitance in the viewing system must not exceed 60 pf 5 The maximum rate of rise of voltage for stable operation depends upon detailed characteristics of the applied pulse and the pulser design The specified maximum rating applies to typical hard tube pulsers For minimum starting jitter and optimum operation, the recommended rate of rise of voltage for most line type pulsers is from 70 to 120 k/ms 6 The anode temperature measured at the point indicated on the outline drawing must be kept below the limit specified by means of a suitable flow of air over the anode body and waveguide attachment brackets which serve as cooling fins 7 Tolerance + 40% 8 Other frequency ranges can be supplied on request 9 ith the magnetron operating into a SR of 115:1 Pulses are defined as missing when the RF energy level is less than 70% of the normal energy level in a 05% frequency range Missing pulses are expressed as a percentage of the number of input pulses applied during the period of observation after a period of minutes operation Measured with heater voltage of 63 and no anode input power, the heater current limits are 043 minimum, 060 maximum 11 Design test only The maximum frequency change with anode temperature change (after warming) is 70 MHz/8C M5187, page 2 # e2v technologies

TYPICL PERFORMNCE CHRT 8 MXIMUM MINIMUM 2618B TYPICL 6 PEK NODE OLTGE (k) 4 2 0 35 PEK CURRENT RTING LIMITS 30 TYPICL 20 MINIMUM 15 PEK OUTPUT POER () 5 0 0 2 4 6 8 12 PEK NODE CURRENT () # e2v technologies M5187, page 3

OUTLINE (ll dimensions without limits are nominal) TO FIT 4B TERMINLS SEE NOTE 1 4784C LEDS Z LONG SEE NOTE 11 SEE NOTE 2 T R SEE NOTE S REFERENCE PLNE C SEE NOTE 5 N REFERENCE PLNE SURFCE SEE NOTES 2, 3 ND 4 Lead Connections M K Y L 2 HOLES 1D SEE NOTE 6 Colour Green Yellow Element Heater Heater, cathode J 1H Ref Millimetres B X 3 HOLES THREDED -32 UNF SEE NOTE 7 SEE NOTE 8 4 HOLES 1C G G E F F Q P B REFERENCE PLNE B SEE NOTE 9 11311 + 038 B 422 + 0 C 4318 + 0076 D 4445 + 0076 E 4368 + 041 F 1626 G 155 H 4 max J 518 + 038 K 4128 + 041 L 524 max M 5555 max N 3015 max P 16 max Q 460 min R 8412 max S 635 T 127 max 3175 3175 X 6078 Y 3099 + 0 Z 3112 + 127 330 M5187, page 4 # e2v technologies

Outline Notes 1 Recommended direction of air flow if required 2 node temperature measured at this point Paint should be removed from this point before temperature measurement is made 3 ith surface resting on a flat surface plate, a feeler gauge 0 mm thick and 318 mm wide will not enter more than 318 mm at any point 4 Surface and interior surfaces of the waveguide will be plated with 155 mg/cm 2 of gold or 465 mg/cm 2 of silver, but will not be plated if the parts are made of monel or equivalent corrosion resistant materials ll other metal surfaces will be painted with heat resistant paint or otherwise treated to prevent corrosion 5 Reference plane C intersects plane B at the centre of the mounting plate hole as shown and is mutually perpendicular to reference planes and B 6 These holes will lie within 0127 mm of the indicated centres cylinder of 838 mm diameter and centred on these holes will clear the side of the magnet 7 The position of the waveguide hole is not specified on this drawing since tubes are tested and used with coupler UG- 40B/U (NTO SN 5985-99-083-0051) 8 The centre of this hole will lie within 02 mm of reference plane C 9 Reference plane B passes through the centres of the two holes of the mounting plate as shown and is perpendicular to reference plane The north seeking pole of the magnet will be adjacent to the cathode sidearm 11 Length of flying leads measured from the centre line of the anode block HELTH ND SFETY HZRDS e2v technologies magnetrons are safe to handle and operate, provided that the relevant precautions stated herein are observed e2v technologies does not accept responsibility for damage or injury resulting from the use of electronic devices it produces Equipment manufacturers and users must ensure that adequate precautions are taken ppropriate warning labels and notices must be provided on equipments incorporating e2v technologies devices and in operating manuals High oltage Equipment must be designed so that personnel cannot come into contact with high voltage circuits ll high voltage circuits and terminals must be enclosed and fail-safe interlock switches must be fitted to disconnect the primary power supply and discharge all high voltage capacitors and other stored charges before allowing access Interlock switches must not be bypassed to allow operation with access doors open RF Radiation Personnel must not be exposed to excessive RF radiation ll RF connectors must be correctly fitted before operation so that no leakage of RF energy can occur and the RF output must be coupled efficiently to the load It is particularly dangerous to look into open waveguide or coaxial feeders while the device is energised Screening of the cathode sidearm of high power magnetrons may be necessary X-Ray Radiation High voltage magnetrons emit a significant intensity of X-rays not only from the cathode sidearm but also from the output waveguide These rays can constitute a health hazard unless adequate shielding for X-ray radiation is provided This is a characteristic of all magnetrons and the X-rays emitted correspond to a voltage much higher than that of the anode hilst e2v technologies has taken care to ensure the accuracy of the information contained herein it accepts no responsibility for the consequences of any use thereof and also reserves the right to change the specification of goods without notice e2v technologies accepts no liability beyond that set out in its standard conditions of sale in respect of infringement of third party patents arising from the use of tubes or other devices in accordance with information contained herein # e2v technologies Printed in England M5187, page 5