X-band Magnetron. Cooling (note 5) Water Output coupling (note 6) UG51/U Magnet (note 7) Integral, Permanent

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X-band Magnetron GENERAL DESCRIPTION MX7637 is a tunable X-band pulsed type magnetron intended primarily for linear accelerator. It is cooled with water and has a UG51/U (WR112) output coupling. It is designed to operate in the frequency range of 9275 to 9325 MHz with a peak output power of 1.5MW and the duty cycle of 0.00088. GENERAL CHARACTERISTICS ELECTRICAL PARAMETERS Heater voltage (note 1) 9.5V Heater current (note 2 and 3) 12.0A Minimum pre-heat time 300sec MECHANICAL PARAMETERS Overall Dimensions Net weight Tuner revolutions to cover frequency range (note 4) Mounting position See outline 12 kg approximately 10 Any Cooling (note 5) Water Output coupling (note 6) UG51/U Magnet (note 7) Integral, Permanent ABSOLUTE MAXIMUM RATINGS These ratings cannot necessarily be used simultaneously and no individual ratings should be exceeded. PARAMETERS Min. Max. Units Heater voltage (note 1) 9.0 10.0 V Anode voltage (peak) - 39 kv Anode current (peak) 35 85 A Input power (mean) - 3.0 kw Duty cycle (note 8) - 0.00088 - Pulse duration - 4.0 μs Frequency stability in pulse (note 9) - 0.3 MHz Rate of rise of voltage pulse (note 10) 80 120 kv/μs Outlet water temperature - 50 VSWR at the output coupler - 1.3 : 1 - - 1 - Rev.01(2017-9-04)

PARAMETERS Min. Max. Units Pressurizing of waveguide (note 11 and 12) - 0.3 MPa TEST CONDITIONS AND LIMITS The magnetron is tested to comply with the following electrical specification. Test conditions Heater voltage (operating) 0.5 V Anode current (peak) 80 A Duty cycle (note 8) 0.00088 - Pulse duration 4.0 μs VSWR at the output coupler 1.05:1 - Units Minimum rate of rise of voltage pulse (note 10) 120 kv/μs Limits Min. Max. Units Anode voltage (peak) 35 39 kv Output power (peak) (note 13) 1.5 - MW Frequency (note 14) Lower end of tuning range - 9275 MHz Upper end of tuning range 9325 - MHz RF bandwidth - 2.5/t p MHz Frequency pulling (VSWR not less than 1.3 : 1) - 5.0 MHz Stability (note 15) - 0.5 % Heater current (note 2 and 3) 8 15 A : Inlet water at 35 degrees centigrade, tp: Pulse duration LIFE TEST The test is performed under test conditions. The magnetron is deemed to have reached the end of life when it fails to satisfy the following: PARAMETERS Anode voltage (peak) Output power (peak) Frequency (note 14) Lower end of tuning range Upper end of tuning range RF bandwidth 35 kv min. 1.4 MW min. 9275 MHz max. 9325 MHz min. 3.0/t p MHz max. Stability (note 15) 1% max. : Inlet water at 35 degrees centigrade, tp: Pulse duration - 2 - Rev.01(2017-9-04)

Notes 1. Heater voltage must be reduced within 5 seconds after the application of high voltage according to the schedule shown on page 5. The magnetron heater must be protected against arcing by the use of a capacitance at least 4000pF shunted across the heater terminal directly. 2. Measured with heater voltage of 9.5 V and no anode input power, the heater current limits are 8.0A minimum, 15.0A maximum. 3. Maximum heater surge current must not exceed 20amperes. 4. The tuner mechanism is driven by the tuner shaft (see outline drawing). The torque required is 0.05 Nm minimum; the torque applied must not exceed 0.3Nm. 5. The recommended water quality is pure grade. The recommended water flow is 5 liters per minute or more; a pressure of approximately 0.12MPa will be necessary to give this rate of flow. The outlet water temperature must not exceed 50 degrees centigrade. 6. The magnetron must be coupled directly to a UG-52/BU choke flange modified with the 4 clearance holes of 0.166 diameter. 7. In handling and mounting the magnetron, care must be exercised to prevent demagnetization. Magnetic materials must not be permitted at any time closer than 200 millimeters from the tube. Any energized magnets must not be permitted at any time closer than 300mm from the tube. 8. The various parameters are related by the following formula: Pi = ib epy Du where Pi: mean input power in W ib: peak anode current in A epy: peak anode voltage in V Du: duty cycle 9. The frequency stability is defined as a jitter of the anode current when a mode-jump occurs in oscillation. 10. The rate of rise of voltage (rrv) is defined as steepest tangent to the leading edge of the voltage pulse above 80 percent amplitude. Any capacitance in viewing system must not exceed 6.0pF. 11. At the maximum pressure of 0.3Mpa the maximum leakage will be such that the pressure will not drop by more than 70 kpa in 7 days with an enclosed volume of 1 liter. 12. The pressurized gas in the waveguide need provide insulating properties consistent with power levels developed. It is recommended that sulfur Hexafluoride (SF 6 ) should be used as the pressurized insulating gas. A minimum pressure of SF 6 of 0.2MPa is considered adequate. 13. The maximum variation of mean output power when the magnetron is rotated through 360 around any axis of the magnetron will not be greater than 4 %. 14. The maximum variation of frequency when the magnetron is rotated through 360 around any axis of the magnetron will not be greater than 0.7 MHz. 15. With the tube operating into a VSWR of 1.15:1 and various phases to give maximum instability. Pulses are defined as missing when the RF energy level is less than 70% of the normal energy level in a 0.5% 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 10 minutes. - 3 - Rev.01(2017-9-04)

HEALTH AND SAFETY HAZARDS Magnetrons are safe to handle and operate. The relevant precautions stated herein must be treat appropriately. Equipment manufacturers and users must ensure that adequate precautions are taken. Appropriate warning labels and notices must be provided on equipment and in operating manuals. High Voltage Equipment must be designed so that personnel cannot come into contact with high voltage circuits. All high voltage circuits and terminals must be enclosed. 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 across doors open. RF Radiation Personnel must not be exposed to excessive RF radiation. High voltage magnetrons not only emit RF energy from the RF output but also leak one from the input insulator. All 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. Personnel must maintain sufficient clearance away from the magnetron while the device is energized. It is particularly dangerous to look into open waveguide while the magnetron is energized. X-Ray Radiation High voltage magnetrons emit a significant intensity of X-rays not only from the input insulator but also from cathodes sidearm and the others. These rays can constitute a health hazard unless adequate shielding for X-ray radiation is provided. The intensity of X-rays depends on the anode voltage. - 4 - Rev.01(2017-9-04)

HEATER VOLTAGE REDUCTION SCHEDULE - 5 - Rev.01(2017-9-04)

FREQUENCY ADJUSTMENT PERFORMANCE CHART - 6 - Rev.01(2017-9-04)

OUTLINE - 7 - Rev.01(2017-9-04)

- 8 - Rev.01(2017-9-04)

- 9 - Rev.01(2017-9-04)

- 10 - Rev.01(2017-9-04)

Notes 1. The letter C putted on the wire indicates the cathode terminal. 2. Directly connect to the ground (low voltage side from pulse transformer) terminal of modulator with the shortest length and 8 mm 2 cross section area of lead wire. 3. Positional tolerance of holes 0.1 mm diameter. 4. All dimensions without limits are nominal. *Note: The contents of this sheet are subject to change without notice. - 11 - Rev.01(2017-9-04)