KR20000065342A - Apparatus for generation of jamming radio wave to mobile telecommunication terminal, by infrared rays remote control - Google Patents

Abstract

PURPOSE: An apparatus for generating a jamming for mobile communication terminals by an infrared remote controller is provided to generate a jamming for pagers, mobile portable handsets, personal communication service terminals simultaneously or selectively using an infrared remote controller. CONSTITUTION: An analog module signal generation unit(400) is composed of a digital signal generation part(410), a random digital signal generation part(420) and an analog signal generation part(430). The digital signal generation part(410) generates a digital signal having a uniform spherical wave formed of high voltage and low voltage. The random digital signal generation part(420) converts the digital signal generated in the digital signal generation part(410) into a random digital signal. The analog signal generation part(430) generates an analog signal according to the random digital signal generated in the random digital signal generation part(420).

Description

Mobile communication terminal jammer generator by infrared remote control {APPARATUS FOR GENERATION OF JAMMING RADIO WAVE TO MOBILE TELECOMMUNICATION TERMINAL, BY INFRARED RAYS REMOTE CONTROL}

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a jammer generating device for mobile communications, and more particularly, to infrared radio control of radio waves transmitted from a base station to be received by radio calling terminals (pagers, pagers), mobile telephone terminals (cell phones) and PCS terminals. A mobile communication terminal jammer generator by an infrared remote control configured to generate jammers simultaneously or selectively to a radio call terminal (pager, pager), a mobile phone terminal (cell phone), and a PC (PCS) terminal. It is about.

In the conventional mobile communication terminal jammer generation apparatus, the interference for each terminal according to the type of mobile communication terminal, that is, according to the wireless calling terminal (pager, pager), mobile telephone terminal (cell phone), PCS (PCS) terminal, etc. Each device was separately required as a radio wave generating device, and accordingly, an increase in manufacturing cost due to the manufacture of each device was inevitable, the installation of the device was complicated, the equipment cost of the device was large, and the device was separately. It was cumbersome to operate, moreover it was cumbersome to run simultaneously or selectively as needed.

In addition, since the operator of the mobile communication terminal jamming device directly accesses the device and operates the switch on or off, the operator and the device are separated from each other in a place, and several disturbances occur. When the electric wave generating device is installed, there is a problem that the ON or OFF operation is inconvenient.

The present invention is invented to solve the above problems of the prior art,

An object of the present invention is to generate and transmit a jammer for a frequency band of a radio wave ("radio call terminal reception radio wave") transmitted from a base station to be received by a pager (pager). A radio call terminal jamming and transmitting unit; A mobile phone terminal jammer transmitting unit configured to generate and transmit a jammer for the frequency band of a radio wave transmitted from a base station to be received by a mobile phone terminal ("mobile phone terminal reception radio wave"). Wow;

PS terminal jammer transmitting unit for generating and transmitting jammers for the frequency band of the radio wave transmitted from the base station to be received by the PCS terminal ("PC terminal reception radio wave"). Wow;

A random signal is generated as a module signal to the noise signal generating unit of the radio calling terminal jammer transmitting unit, the noise signal generating unit of the jammer transmitting unit of the mobile telephone terminal and the noise signal generating unit of the PC terminal jamming transmitting unit. The voltage equal to the high voltage of the digital signal of one signal is the upper limit voltage, and the voltage equal to the low voltage of the digital signal is the lower limit voltage and the voltage of the digital signal As the high voltage changes to the low voltage of the digital signal, the voltage of the upper limit changes to the analogue continuous voltage to the voltage of the lower limit and the voltage of the digital signal. As the low voltage changes to the high voltage of the digital signal, the lower limit voltage changes to an analog continuous voltage. Group upper limit (上限) to apply an analog signal up to a voltage analog (analogue) module (module) of the signal generation unit;

Remote control infrared signal receiving means for receiving an infrared transmission signal from a remote control, operation of the radio call terminal jammer transmitting unit in accordance with a signal from the remote control infrared signal receiving means, and the mobile telephone terminal jammer transmitting unit A microprocessor unit configured to simultaneously or selectively turn on or off an operation and an operation of the PC terminal jammer transmitting unit;

The output signal from the microprocessor unit simultaneously or selectively turns on the operation of the radio call terminal jammer, the mobile phone terminal jammer, and the operation of the PC terminal jammer. Or a mobile communication terminal jammer transmission control section comprising a driving power supply control section including a transistor and a field effect transistor (FET) to turn off the signal.

By using an infrared remote control, it is possible to generate a radio wave simultaneously or selectively to a radio call terminal (pager, pager), mobile phone terminal (cell phone), PC (PCS) terminal, and the present invention provides a performance hall, a theater, etc. Installed in public places, it is easily possible to disable or simultaneously use the pager, pager, mobile phone (PC) and PCS (PCS) terminals. It is an object of the present invention to provide a mobile communication terminal jammer generating apparatus by an infrared remote control, which can facilitate its ON or OFF operation even when a child and a device are separated from each other.

1 is a circuit diagram showing a configuration of a radio call terminal jammer transmitter according to an embodiment of the present invention;

Figure 2 is a circuit diagram showing the configuration of a mobile phone terminal jammer transmission unit according to an embodiment of the present invention

3 is a circuit diagram showing a configuration of a PC terminal jammer transmitting unit according to an embodiment of the present invention;

4 is a circuit diagram showing the configuration of an analog module signal generator according to an embodiment of the present invention;

5 is a circuit diagram showing the configuration of a jammer transmission control unit for a mobile communication terminal according to an embodiment of the present invention;

Figure 6 is a state diagram showing the configuration and operation of the random digital signal and the analog module signal according to an embodiment of the present invention

* Description of the symbols for the main parts of the drawings *

100: radio calling terminal jammer transmitting unit, 110: noise signal generating unit, 120: noise signal amplifying unit, 130: antenna unit, 200: mobile phone terminal jamming transmitting unit, 210: noise signal generating unit, 220: noise signal Amplification unit, 230: antenna unit, 300: PS terminal jammer transmission unit, 310: noise signal generator, 320: noise signal amplifier, 330: antenna unit, 400: analog module signal generator, 410: digital signal generation 420: random digital signal generator, 430: analog signal generator, 500: mobile communication terminal jammer transmission control unit, 510: microprocessor unit, 520: drive power control unit, IR1: remote control infrared signal receiving unit, U1: Microprocessor (CPU), U2, U3A, U3B, U3C, U4, U5A: Fast Sea-MOS (Q-MOS), Q1 to Q11, Q13 to Q16: Transistor, Q12: Field Effect Transistor (FET), D1, D2 , D3, D4: Barricap diode (variable capacitor) (varactor diode), D5: Diode, C1 to C45: Capacitor (capacitor) R1 to R33: resistance, L1 to L11: inductor, ANT1, ANT2, ANT3: antenna, MOD SIG: module signal

Hereinafter, the configuration of the present invention will be described in detail with reference to the accompanying drawings.

As the present invention is shown in Figures 1 to 6,

Generate a jammer for the frequency band of the radio wave (hereinafter referred to as "radio call terminal reception radio wave") transmitted from the base station of the pager (pager, pager) to be received at the radio call terminal. A predetermined upper limit voltage signal, a predetermined lower limit voltage signal, and a predetermined upper limit applied from the analog module signal generator 400 are transmitted. Receiving the radio call terminal according to an analog module signal (hereinafter referred to as a "module signal") consisting of a voltage signal that is analogously continuous between a voltage and a predetermined lower limit voltage. Varicap to generate a noise signal of varying frequency in the frequency band of radio waves from the lower frequency to the upper frequency and from the upper frequency to the lower frequency at high speed A noise signal generator 110 having a variable capacitance diode (VCD) (varactor diode) and amplifying the noise signal generated from the noise signal generator 110 A radio call terminal jammer transmitter 100 comprising a noise signal amplifier 120 and an antenna 130 for transmitting the noise signal amplified by the noise signal amplifier 120 as a radio wave;

Generate and transmit a jammer for the frequency band of a radio wave transmitted from a base station of a mobile phone terminal (cell phone) to be received by the mobile phone terminal (hereinafter referred to as a "mobile phone terminal reception radio wave"). According to the " module signal " applied from the analog module signal generator 400, the mobile station has a high speed reciprocating from the lower frequency to the upper frequency, and the upper frequency to the lower frequency of the frequency band of the received radio wave. A noise signal generator 210 having a varicap diode (VCD) (variable diode) (varactor diode) for generating a noise signal of varying frequency, and generating this noise signal The noise signal amplifier 220 for amplifying the noise signal generated from the unit 210 and the noise signal amplified by the noise signal amplifier 220 are transmitted as radio waves. A mobile phone terminal jammer transmitting unit 200 comprising an antenna unit 230 for the purpose of communication;

Generate and transmit a jammer for a frequency band of a radio wave transmitted from a base station of a PCS terminal to be received at a PCS terminal (hereinafter referred to as a "PS terminal reception radio wave"). According to the module signal applied from the analog module signal generating unit 400, the frequency band of the PC terminal receiving radio wave is changed at a high speed from the lower frequency to the upper frequency, and the upper frequency to the lower frequency A noise signal generator 310 having a varicap diode (VCD) (variable diode) (varactor diode) for generating a noise signal of frequency, and the noise signal generator ( A noise signal amplifier 320 for amplifying the noise signal generated from 310 and the noise signal amplified by the noise signal amplifier 320 as a radio wave; PC consisting antenna 330 S terminal jammer transmission unit 300 and;

The noise signal generator 110 of the radio call terminal jammer transmitter 100, the noise signal generator 210 of the jammer transmitter 200, and the PC terminal jammer As a module signal to the noise signal generator 310 of the transmitter 300,

The voltage equal to the high voltage of the digital signal of the random signal is the upper limit voltage, and the voltage equal to the low voltage of the digital signal is the lower voltage. In addition, as the high voltage of the digital signal changes to the low voltage of the digital signal, the voltage of the upper limit is a voltage that changes analogously and reaches the voltage of the lower limit. As the low voltage of the digital signal changes to the high voltage of the digital signal, the voltage of the lower limit changes to the analogue continuous voltage and reaches the upper limit voltage. to apply an analogue signal,

A digital signal generator 410 for generating a digital signal having a constant square wave having a high voltage and a low voltage, and a digital signal generated by the digital signal generator 410 in random order. In accordance with the random digital signal generator 420 for converting into a digital signal and the random digital signal generated by the random digital signal generator 420, an upper limit of a voltage equal to a high voltage of the digital signal is generated. The voltage equal to the low voltage of the digital signal is the lower voltage, and the high voltage of the digital signal changes to the low voltage of the digital signal. As a result, the voltage of the upper limit changes to analog continuous voltage, and reaches the lower limit voltage, and the low voltage of the digital signal becomes the high of the digital signal. An analog signal generator 430 configured to generate an analog signal reaching the upper limit voltage as a voltage in which the lower limit voltage changes analogously as the voltage is changed. an (analogue) module signal generator 400;

Operation of the radio call terminal jammer transmitter 100 by the infrared transmission signal of a remote control, operation of the jammer transmitter 200 of the mobile phone terminal, and the jammer transmitter 300 of the PC terminal To turn the operation on or off simultaneously or selectively,

A remote control infrared signal receiving means IR1 for receiving an infrared transmission signal from the remote control,

Operation of the radio call terminal jammer transmitting unit 100, operation of the mobile phone terminal jamming transmitter 200 according to a signal from the remote control infrared signal receiving means IR1, and interference of the PC terminal A microprocessor unit 510 having a microprocessor (CPU) U1 incorporating a program for simultaneously or selectively turning on or off the operation of the radio wave transmitting unit 300;

Operation of the radio calling terminal jammer transmitting unit 100, operation of the mobile phone terminal jamming transmitter 200, and the PC terminal jamming transmission by the output signal from the microprocessor unit 510 A transistor Q14 for controlling driving power of the radio calling terminal jammer transmitting unit 100 so as to simultaneously or selectively turn on or turn off the operation of the unit 300; A transistor (Q15) for controlling the driving power of the radio wave transmitting unit (200), a transistor (Q16) for controlling the driving power of the PS terminal jammer transmitting unit (300), and the transistors (Q14) (Q15) ( A mobile communication terminal jammer transmission control unit 500 comprising a transistor Q13 for controlling Q16 and a driving power supply control unit 520 having a field effect transistor (FET) Q12 for controlling the transistor Q13. ) A mobile communication terminal according to the interference generator, characterized in that binary luer, an infrared remote control.

Referring to the configuration and operation according to a specific embodiment as follows.

The configuration and operation of the radio call terminal jammer transmitting unit 100, as shown in Figure 1, as follows.

The frequency band of the wireless call terminal is 160MHz to 170MHz, 320MHz to 330MHz, the configuration and operation is made.

The module signal output from the analog signal generator 430 of the analog module signal generator 400 is applied to the noise signal generator 110 to provide a resistor R1. Is supplied to the varicap diode (varactor diode) (D1) (D2), the capacitance of the varicap diode (varactor diode) (D1) (D2) changes according to the magnitude of the input and voltage. do. In FIG. 1, the varicap diode (varactor diode) D1, (D2), capacitor C1, inductor L1, capacitor C12, C8, C10, C2, C3 and transistor Q1. The circuit consists of a basic Colpitts oscillation circuit, the oscillation frequency of which is the capacitance of the inductor (L1) and the varcap diode (varactor diode) (D1) (D2) and the capacitor (C1) (C12) (C8). It is determined by the combined capacitance of C10, C2, and C3, and its frequency is oscillated in the noble circuit of transistor Q1. In this case, the resistors R3 and R2 supply an operating current for the transistor Q1 to operate.

The initial oscillation frequency is configured to be 160MHz, and the voltage having an analog continuity of 0V to + 5V, which is an output signal of the analog signal generator 430 of the analog module signal generator 400, has a varicap diode (varactor). When applied to the diodes D1 and D2, a capacitance corresponding to the applied voltage value is generated, and accordingly, the varicap diode (varactor diode) D1 and D2 according to the change of the applied voltage value. The capacitance of is also changed accordingly, and thus the frequency generated by the transistor Q1 is changed. That is, according to the voltage applied to the varicap diodes (varactor diodes) D1 and D2, the transistor Q1 generates frequencies reciprocating rapidly between 160 MHz and 170 MHz and between 170 MHz and 160 MHz. The received frequency becomes a noise signal for the radio calling signal of the radio calling terminal of 160MHz to 170MHz, so that the radio frequency of the radio calling terminal receiving radio signal operating in this band is interrupted. In addition, since a signal corresponding to an integer multiple of 160 MHz to 170 MHz is generated together in the circuit of the transistor Q1, a noise signal of 320 MHz to 340 MHz is also generated. Therefore, if 160 MHz occurs initially in transistor Q1, a 320 MHz signal is generated accordingly. Therefore, fast from 320 MHz to 340 MHz, and 340 MHz to 320 MHz, depending on the input signal voltage to the varicap diode (varactor diode) D1 (D2). A round trip signal is also generated at the speed, thereby interfering with the reception of the radio calling terminal reception radio signal operating at 320 MHz to 330 MHz in this band.

Since the noise signal generated here is low power, it is amplified into a sufficiently large signal by the noise signal amplifier 120. Signals in the 160MHz to 170MHz band and the 320MHz to 340MHz band generated by the transistor Q1 are blocked through the capacitor C11, and the DC voltage is cut off and only the noise signal component is input to the transistor Q2. This transistor Q2 is a conventional amplification circuit, and the resistor R4 supplies an operating current for the transistor Q2 to operate. In the inductor L3 and the capacitor C9, a resonance phenomenon occurs from 160 MHz to 170 MHz. Select and amplify the band and the signals in the band from 320MHz to 340MHz. The signal amplified by the transistor Q2 is again supplied to the amplifying circuit of the transistor Q3 via the capacitor C4, where the resistor R5 serves to supply the operating power of the transistor Q3. The power input to the transistor Q3 is amplified by the transistor Q3, and then a noise signal in the band from 160 MHz to 170 MHz and from 320 MHz to 340 MHz by the impedance matching circuit of the inductor L2 and the capacitor C13. Is amplified and transmitted as noise propagation through the antenna unit 130. In this case, the inductor L4 is used for impedance matching between the output of the transistor Q3 and the antenna ANT1.

The configuration and operation of the mobile phone terminal (cell phone) jammer transmitting unit 200 are as follows, as shown in FIG.

The frequency band of the mobile phone terminal is 869MHz to 894MHz, the configuration and operation is made.

The module signal output from the analog signal generator 430 of the analog module signal generator 400 is applied to the noise signal generator 210 and is a resistor R9. Is supplied to the varicap diode (varactor diode) D3. The circuit composed of the varicap diode (varactor diode) D3, the capacitor C14, the inductor L6, the capacitors C26 (C15) (C24) and the transistor Q4 is a basic Colpitts oscillation circuit. The oscillation frequency is determined by the capacitance value of the inductor L6 and the varicap diode (varactor diode) D3, and the combined capacitance of the capacitors C14, C26, C15 and C24. The frequency is oscillated in the positive feedback circuit of transistor Q4. In this case, the resistors R10 and R7 supply the operating current for the transistor Q4 to operate.

The initial oscillation frequency is configured to be 869 MHz, and the voltage having an analog continuity of 0 V to +5 V, which is an output signal of the analog signal generator 430 of the analog module signal generator 400, has a varicap diode (varactor). When applied to the diode (D3), a capacitance corresponding to the applied voltage value is generated, and the capacitance of the varicap diode (varactor diode) D3 is changed according to the applied voltage value, This changed capacitance (capacitance) generates a noise signal that quickly round trips between 869MHz to 894MHz, and 894MHz to 869MHz, and the mobile phone terminal (cellphone) reception radio waves also exist in this band, so in the transistor Q4 The generated noise signal acts as a signal that disturbs the reception radio wave of the mobile telephone terminal (cell phone).

Since the noise signal generated here is a small power, it is amplified into a sufficiently large signal by the noise signal amplifier 220. The noise signal generated by the transistor Q4 passes through the capacitor C27, and the direct current (DC) voltage is cut off, and only the noise signal component is input to the transistor Q5. The transistor Q5 serves to amplify the input signal, and the resistor R8 supplies the operating current for the transistor Q5 to operate, and the resistor R17 and the capacitor C23 have a large power supply. It is configured for the protection of the transistor Q5, and the inductor L7 and the capacitor C25 are used for impedance matching of the circuit to the noise signal of 869 MHz to 894 MHz. The signal amplified by the transistor Q5 is output and then the noise signal component is input to the transistor Q6 through the capacitor C25, and this transistor Q6 serves to amplify the input signal. The resistor R13 supplies the operating current of the transistor Q6, and the resistor R16 and the capacitor C22 are configured to protect the transistor Q6 against large power, and the inductor L8 and the capacitor ( C20) is used for impedance matching of the circuit to the frequency of use. The noise signal amplified by the transistor Q6 passes through the capacitor C20 and is input to the transistor Q7 to perform final power amplification again. The resistor R14 serves to supply an operating current for the transistor Q7 to operate, and the resistor R15 and the capacitor C21 are configured to protect the transistor Q7 against a large power signal. Inductor L5 and capacitor C44 are used for impedance matching. The signal amplified by the transistor Q7 is supplied to the antenna ANT2 of the antenna unit 230 through the inductor L9, and is transmitted. The inductor L9 has an impedance between the antenna ANT2 and the transistor Q7. Used for matching.

The configuration and operation of the PCS (PCS) terminal jammer transmitting unit 300 are as follows, as shown in FIG.

The frequency band of the PCS (PCS) terminal is 1840MHz to 1870MHz, its configuration and operation is made.

The module signal output from the analog signal generator 430 of the analog module signal generator 400 is applied to the noise signal generator 310 and is a resistor R20. Is supplied to the varicap diode (varactor diode) D4. The circuit composed of the varicap diode (varactor diode) D4, the capacitor C38, the inductor L13, and the transistor Q8 is a basic Colpitts oscillation circuit, and the oscillation frequency is the inductor L13 and the varicap It is determined by the capacitance value of the diode (varactor diode) D4 and the synthesized capacitance of the capacitor C38, and the frequency thereof is oscillated in the positive feedback circuit of the transistor Q8. In this case, the resistors R21 and R18 supply an operating current for the transistor Q8 to operate.

The initial oscillation frequency is configured to be 1840MHz, and the voltage having an analog continuity of 0V to + 5V, which is an output signal of the analog signal generator 430 of the analog module signal generator 400, is a varicap diode (varactor). When applied to the diode (D4), a capacitance corresponding to the applied voltage value is generated, and the capacitance of the varicap diode (varactor diode) D4 is changed according to the applied voltage value, Due to this changed capacitance, a noise signal is rapidly generated from 1840 MHz to 1870 MHz and from 1870 MHz to 1840 MHz, and the received signal propagation of the PC terminal is also present in this band, so that the transistor Q8 The generated noise signal acts as a signal that disturbs the reception of the PCS terminal.

Since the noise signal generated here is a small power, it is amplified into a sufficiently large signal by the noise signal amplifier 320. The noise signal generated by the transistor Q8 passes through the capacitor C37, and the direct current (DC) voltage is cut off, and only the noise signal component is input to the transistor Q9. The transistor Q9 serves to amplify the input signal, and the resistor R19 is configured to supply an operating current for the transistor Q9 to operate, and the resistor R28 and the capacitor C34 are large. It is configured to protect the transistor Q9 against power, and the inductor L12 and the capacitor C35 are used for impedance matching of the circuit to the noise signal of 1840MHz to 1870MHz. The signal amplified by the transistor Q9 is outputted, and then only the noise signal component is inputted to the transistor Q10 through the capacitor C35, and this transistor Q10 serves to amplify the input signal. The resistor R24 supplies the operating current of the transistor Q10, and the resistor R27 and the capacitor C33 are configured to protect the transistor Q10 against large power, and the inductor L10 and the capacitor ( C36) is used for impedance matching of the circuit to the frequency used. The noise signal amplified by the transistor Q10 passes through the capacitor C36 again and is input to the transistor Q11 to perform final power amplification again. The resistor R25 serves to supply an operating current for the transistor Q11 to operate, and the resistor R26 and the capacitor C32 are configured to protect the transistor Q11 against a large power signal. Inductor L11 is used for impedance matching. The signal finally amplified by the transistor Q11 is supplied to the antenna ANT3 of the antenna unit 330 and transmitted.

As illustrated in FIG. 4, the analog module signal generator 400 includes a digital signal generator 410, a random digital signal generator 420, and an analog signal generator 430. The configuration and operation are as follows, as shown in FIGS. 4 and 6.

The digital signal generator 410 is an oscillator, which includes a NOT gate and a crystal oscillator Y2 (22 MHz), capacitors, and a high-speed C-MOS (HC-MOS) (U3A) 74HC04. It consists of a NOT gate of HC-MOS (U3B) 74HC04, and the high-speed Sea-MOS (U-MOS) (U3A) 74HC04 and (U3B) 74HC04 are one high-speed Sea-MOS It is configured as some of the six NOT gate elements embedded in the (HC-MOS) 74HC04.

In the NOT gate, the crystal oscillator Y2 (22 MHz), and the capacitors of the high speed HC-MOS (U3A) 74HC04 of the oscillator, first power is supplied, + 5V or 0V is output from pin 2 of UMOS (U3A) (74HC04), and this signal is again returned through the high speed HC-MOS (U3A) through a crystal oscillator (Y2) (22 MHz). Feedback is made to pin 1 of 74HC04. At this time, since the crystal oscillator Y2 passes only its own frequency, the high speed C-MOS (U3A) 74HC04 generates a 22 MHz signal, which is a high speed C-MOS (HC-MOS). As the output of pin 2 of pin (U3A) 74HC04, it is input to pin 3 of pin (HC3) (U3B) 74HC04. The high speed HC-MOS (U3B) 74HC04 inverts the input signal and outputs it, and acts as a buffer for the signal. Accordingly, a digital signal having a constant square wave of a high voltage and a low voltage is output to pin 4 of the high speed HC-MOS U3B 74HC04.

The random digital signal generator 420 may include a shift register for shifting a signal from the digital signal generator 410 according to an input of a clock signal, and the shift register. It is composed of digital gate circuits for inputting the output signal of the register and converting the signal.

The output of pin 4 of fast HC-MOS (U3B) 74HC04 is again input to pin 8 of fast HC-MOS (U4) 74HC164. This high speed HC-MOS (U4) U74 (74HC164) is an 8-bit parallel-out shift register. That is, the signal input to pin 1 of the high speed C-MOS (U-MOS) U4 (74HC164) is transferred to pin 8 of the high-speed C-MOS (U4) 74C164. Pin 3, pin 4, pin 5, and pin 6, which are outputs of the high speed HC-MOS (U4) and 74HC164, using the input signal as a reference clock signal. (pin6), pin10 (pin10), pin11 (pin11), pin12 (pin12), and pin13 (pin13) are sequentially shifted, and among the outputs, pin10 and pin12 are output. ) Is input to pin 1 and pin 2 of the high speed HC-MOS (U5A) 74HC86 to generate a random digital signal. The output signal generated at pin 3 of the high speed HC-MOS (U5A) (74HC86) is again pin 1 (pin1) of the high speed HC-MOS (U4) (74HC164). Low feedback, the high-speed HC-MOS (U4) U4 (74HC164) continues to generate a random digital signal based on the input clock signal. The signal output from pin 3 of the high speed HC-MOS (U5A) (74HC86) is input again to pin 5 of the high speed C-MOS (U3C) (74HC04). The inverted signal is output to pin 6, which acts as a buffer for the signal.

In the random digital signal thus generated, the signals " 1 " and " 0 "

The high speed C-MOS (U3C) 74HC04 uses some of the six NOT gate devices embedded in the one high speed C-MOS 74HC04.

The analog signal generator 430 includes a resistor R32, a capacitor C45, and a resistor R33. By the configuration of the resistor R32, the capacitor C45, and the resistor R33, a random digital signal output to pin 6 of the high-speed Sea-MOS (HC-MOS) (U3C) 74HC04 is generated. The voltage equal to the high voltage (+ 5V) of the digital signal is set to the upper limit voltage (+ 5V), and the voltage equal to the low voltage (OV) of the digital signal is set to the lower limit. Voltage OV and the upper limit voltage (+ 5V) as the high voltage (+ 5V) of the digital signal changes to the low voltage (0V) of the digital signal. This analog continuous voltage changes to reach the lower limit voltage OV, and the low voltage OV of the digital signal is equal to the high voltage of the digital signal. 5V), the lower limit voltage (0V) is an analog continuous voltage that reaches the upper limit voltage (+ 5V) in analog continuous mode. Change to arc

This analog signal is the same as the analog module signal shown in Fig. 6 (2), which corresponds to the random digital signal shown in Fig. 6 (1).

The analog module signal is a module signal, and the noise signal generator 110 of the radio call terminal jammer transmitter 100 and the noise signal generator of the mobile phone terminal jammer transmitter 200. 210 and the noise signal generator 310 of the PC terminal jammer transmitter 300.

The remote control infrared signal receiving means IR RX (IR1) receives an infrared signal transmitted from the remote control, converts the received signal into a digital signal consisting of 1 and 0, and outputs the digital signal. It is input to the processor U1.

The power supply unit 600 supplies DC power. In the embodiment, DC 10V is supplied.

The configuration and operation of the microprocessor unit 510 and the mobile communication terminal jammer transmission control unit 500 are as follows.

When the switch S1 is turned on and the power is supplied from the power supply unit 600, the constant voltage regulator U2 outputs a constant voltage of +5 V, and according to this voltage, the microprocessor (CPU) U1 and The remote control infrared signal receiving means IR1 is brought into an operating function state. After the power is applied, it takes some time to reach a steady state (+ 5V), at which time the microprocessor U1 may be abnormally operated. In order to prevent this, components such as a diode D5, resistors R30, R29, and capacitor C41 are added to pin 4 of the microprocessor U1. That is, the microprocessor U1 is designed to operate only when +5 V is supplied to pin 4 of the microprocessor U1 in the program, and a voltage is applied to the capacitor C41 through the resistor R30 during initial power supply. The charge begins to be charged, and this voltage is connected to pin 4 of the microprocessor U1 through a resistor R29, and when the state reaches +5 V, the microprocessor U1 senses and operates the voltage. To start. When the power is turned off, the voltage charged in the capacitor C41 is quickly discharged through the diode D5.

When power is first supplied, an operating reference frequency is generated at a crystal oscillator Y1 of 4 MHz, and the microprocessor U1 is operated based on this signal, and a signal output from the remote control infrared signal receiving means IR1 is generated. It is input to pin 18 of the microprocessor U1, and this signal is interpreted according to an internal program. According to this interpreted signal, pin 1 of the microprocessor UI outputs a voltage of 0 V or +5 V, and the field effect transistor FET Q12 is turned on or off by this voltage. OFF).

That is, when 0 V is output from the pin 1, the field effect transistor (FET) Q12 is turned off, and accordingly, the transistor Q13 is turned off, thereby driving the drive power control unit. Power supply to 520 is cut off.

When + 5V is output from the pin 1, the field effect transistor (FET) Q12 is turned on, thereby causing the field effect transistor (FET) Q12 to conduct current. This current causes the transistor Q13 to operate through a current through the base of the transistor Q13, and enters a state in which power can be supplied to the driving power control unit 520.

In the state in which the transistor Q13 is ON, the microprocessor U1 uses the output voltages of the pins Q6 and PIN8 at the output voltages of pins 6, 7, and 8, respectively. Q15) and transistor Q16 are respectively controlled, and according to this control, to the radio calling terminal jammer transmitting unit 100 through the transistor Q14, the jammer of the mobile phone terminal through the transistor Q15. The transmitter 200 supplies power to the PS terminal jammer transmitter 300 through the transistor Q16.

The remote control infrared signal receiving means IR1 converts the received infrared signal into digital values of 0 V and +5 V, which are digital signals, and transmits the serial signal to the microprocessor U1 as a serial signal. The serial digital data is interpreted according to an internal program.

At this time, when the value of the input data is 19 (0001 1000) as a serial signal, the field effect transistor (FET) Q12 and the transistor Q13 which supply power to the driving power control unit 520 are operated. Is maintained until the next 19 (0001 1000) signal is input.

If the input data is 01 (0000 0001), the microprocessor (U1) controls the transistor (Q14) to supply power to the radio call terminal jammer transmitting unit 100, until the next 01 (0000 0001) signal is input. It will stay that way.

If the input data is 09 (0000 1000), the microprocessor (U1) controls the transistor (Q15) to supply power to the jammer transmitting unit 200, and when the next 09 (0000 1000) signal is input. It will stay that way.

When the input data is 11 (0001 0001), the microprocessor (UI) controls the transistor (Q16) to supply power to the PS terminal jammer transmitting unit 300, when the next 11 (0001 0001) signal is input. It will stay that way.

In each case, ON and OFF are controlled by the same code value. If any value is entered while the previous operation is OFF, the next is ON and the previous state is ON. In the case of (ON), the signal is turned off.

According to the present invention as described above, it is possible to generate a radio wave simultaneously or selectively to the wireless calling terminal (pager, pager), mobile phone terminal (cell phone), PC (PCS) terminal by the infrared remote control The present invention can be easily installed in public places such as a performance hall or theater so that it cannot be used simultaneously or selectively for a wireless call terminal (pager, pager), mobile phone terminal (cell phone), or PC (PCS) terminal. It is also possible to facilitate its ON or OFF operation even when the operator and device are at a distance from each other.

Claims (1)

Generate a jammer for the frequency band of the radio wave (hereinafter referred to as "radio call terminal reception radio wave") transmitted from the base station of the pager (pager, pager) to be received at the radio call terminal. A predetermined upper limit voltage signal, a predetermined lower limit voltage signal, and a predetermined upper limit applied from the analog module signal generator 400 are transmitted. The wireless call terminal according to an analog module signal (hereinafter referred to as a "module signal") consisting of a voltage signal that is analogously continuous between a voltage and a predetermined lower limit voltage. Varicap to generate a noise signal of varying frequency by fast reciprocating from the lower frequency to the upper frequency and the upper frequency to the lower frequency of the received radio frequency band A noise signal generator 110 having a variable capacitance diode (VCD) (varactor diode) and amplifying the noise signal generated from the noise signal generator 110 A radio call terminal jammer transmitter 100 comprising a noise signal amplifier 120 and an antenna 130 for transmitting the noise signal amplified by the noise signal amplifier 120 as a radio wave; Generate and transmit a jammer for the frequency band of a radio wave transmitted from a base station of a mobile phone terminal (cell phone) to be received by the mobile phone terminal (hereinafter referred to as a "mobile phone terminal reception radio wave"). According to the " module signal " applied from the analog module signal generator 400, the mobile station has a high speed reciprocating from the lower frequency to the upper frequency, and the upper frequency to the lower frequency of the frequency band of the received radio wave. A noise signal generator 210 having a varicap diode (VCD) (variable diode) (varactor diode) for generating a noise signal of varying frequency, and generating this noise signal The noise signal amplifier 220 for amplifying the noise signal generated from the unit 210 and the noise signal amplified by the noise signal amplifier 220 are transmitted as radio waves. A mobile phone terminal jammer transmitting unit 200 comprising an antenna unit 230 for the purpose of communication; Generate and transmit a jammer for a frequency band of a radio wave transmitted from a base station of a PCS terminal to be received at a PCS terminal (hereinafter referred to as a "PS terminal reception radio wave"). According to the module signal applied from the analog module signal generating unit 400, the frequency band of the PC terminal receiving radio wave is changed at a high speed from the lower frequency to the upper frequency, and the upper frequency to the lower frequency A noise signal generator 310 having a varicap diode (VCD) (variable diode) (varactor diode) for generating a noise signal of frequency, and the noise signal generator ( A noise signal amplifier 320 for amplifying the noise signal generated from 310 and the noise signal amplified by the noise signal amplifier 320 as a radio wave; PC terminal jammer transmitting unit 300 consisting of an antenna unit 330; The noise signal generator 110 of the radio call terminal jammer transmitter 100, the noise signal generator 210 of the jammer transmitter 200, and the PC terminal jammer As a module signal to the noise signal generator 310 of the transmitter 300, The voltage equal to the high voltage of the digital signal of the random signal is the upper limit voltage, and the voltage equal to the low voltage of the digital signal is the lower voltage. In addition, as the high voltage of the digital signal changes to the low voltage of the digital signal, the voltage of the upper limit is a voltage that changes analogously and reaches the voltage of the lower limit. As the low voltage of the digital signal changes to the high voltage of the digital signal, a signal in which the voltage of the lower limit reaches the upper limit voltage is a voltage that changes analogously continuously. To authorize, A digital signal generator 410 for generating a digital signal having a constant square wave having a high voltage and a low voltage, and a digital signal generated by the digital signal generator 410 in random order. In accordance with the random digital signal generator 420 for converting into a digital signal and the random digital signal generated by the random digital signal generator 420, an upper limit of a voltage equal to a high voltage of the digital signal is generated. The voltage equal to the low voltage of the digital signal is the lower voltage, and the high voltage of the digital signal changes to the low voltage of the digital signal. As a result, the upper limit voltage is an analog continuous voltage that changes to the lower limit voltage, and the low voltage of the digital signal is equal to the high voltage of the digital signal. An analog signal generator 430 is configured to generate an analog signal reaching the upper limit voltage as a voltage at which the lower limit voltage changes analogously as the voltage is changed to a high voltage. An analog module signal generator 400; Operation of the radio call terminal jammer transmitter 100 by the infrared transmission signal of a remote control, operation of the jammer transmitter 200 of the mobile phone terminal, and the jammer transmitter 300 of the PC terminal To turn the operation on or off simultaneously or selectively, A remote control infrared signal receiving means IR1 for receiving an infrared transmission signal from the remote control, Operation of the radio call terminal jammer transmitting unit 100, operation of the mobile phone terminal jamming transmitter 200 according to a signal from the remote control infrared signal receiving means IR1, and interference of the PC terminal A microprocessor unit 510 having a microprocessor (CPU) U1 incorporating a program for simultaneously or selectively turning on or off the operation of the radio wave transmitting unit 300; Operation of the radio calling terminal jammer transmitting unit 100, operation of the mobile phone terminal jamming transmitter 200, and the PC terminal jamming transmission by the output signal from the microprocessor unit 510 A transistor Q14 for controlling driving power of the radio calling terminal jammer transmitting unit 100 so as to simultaneously or selectively turn on or turn off the operation of the unit 300; A transistor Q15 for controlling the driving power of the radio wave transmitting unit 200, a transistor Q16 for controlling the driving power of the CS terminal jammer transmitting unit 300, and the transistors Q14 and Q15 ( A mobile communication terminal jammer transmission control unit 500 including a transistor Q13 for controlling Q16 and a driving power supply control unit 520 having a field effect transistor (FET) Q12 for controlling the transistor Q13. ) The mobile communication terminal device according to the jamming occurrence, infrared remote control, characterized in that binary luer.