JP2013201560A - Mobile phone device, control method, control system, control program, and processor - Google Patents

Abstract

PROBLEM TO BE SOLVED: To enable a user to easily use a mobile phone device.SOLUTION: An RFID information acquisition unit detects a communication state with a radio tag. A state switching unit switches between an on-hook state and an off-hook state on the basis of change in the communication state detected by the RFID information acquisition unit.

Description

  The present invention relates to a mobile phone device, a control method, a control system, a control program, and a processor.

In recent years, mobile phone devices have become widespread. The user performs an operation for answering an incoming call when the mobile phone device rings when an incoming call (incoming call) rings. For example, the user presses a response key. When the response key is pressed, the mobile phone device switches from the on-hook state to the off-hook state. Here, when described only on the receiving side of the mobile phone device, in principle, the on-hook state is a state in which the user cannot talk, and the off-hook state is a state in which the user can talk to the other party.
Further, the user performs an operation for terminating (disconnecting) the call when ending the call. For example, the user presses an end call key. When the end call key is pressed, the mobile phone device switches from the off-hook state to the on-hook state.

  Recently, mobile phone devices called so-called smartphones have become widespread. A smartphone is a multi-function mobile phone that has functions such as Internet connection, schedule management, and memo function in addition to voice calls. Smartphones are often equipped with touch screens. A smartphone user performs image reference and input operations using a touch screen. For example, the user traces a specific area on the touch screen with a finger in a specific direction as a substitute for a button such as a response key or an end call key (flick operation). Upon receiving this flick operation, the mobile phone device switches between an on-hook state and an off-hook state.

For example, Patent Documents 1-4 are known as techniques for switching between an on-hook state and an off-hook state.
Japanese Patent Application Laid-Open No. 2004-133826 includes a means for detecting opening / closing of a fold and a means for detecting that an external interface plug is connected to an external interface connector in a mobile phone having a folding structure. It is described that when the external interface plug is connected to the external interface connector, the mobile phone is set in the response pending state by opening the mobile phone as being used in the automobile.
Patent Document 2 includes a mobile phone body having an earpiece, a transmission port, etc., a human body detection unit that is provided near the earpiece and detects a human body, and a means that goes off-hook when the human body detection unit detects a human body. It is described that it is provided.

Patent Document 3 compares the detection data of the magnetic field immediately before the ring tone is generated and the detection data of the magnetic field after the ring tone is generated by generating a small magnetic field in the magnetic field generation unit and picking up the mobile phone. It is described that the disturbance of the magnetic field generated by this is detected and automatically called.
According to Patent Document 4, when an incoming call is received, if a human hand approaches within a predetermined range of the mobile terminal, for example, within 10 cm, the human sensor detects that, and the microcomputer pushes down the incoming call button. It is described that control is performed in the same state as that described above, that is, in a call state.

JP-A-6-224993 JP-A-8-335969 Japanese Patent Laid-Open No. 10-243057 Japanese Patent Laid-Open No. 11-317792

However, for example, in the technique described in Patent Document 1, it is necessary for the user to open and close the folded mobile phone when receiving a call. Further, the technique described in Patent Document 1 cannot be applied to a mobile phone that does not have a folding structure. In addition, for example, in the technique described in Patent Literature 2-4, the accuracy of human body detection and magnetic field detection may be low, and the cellular phone device may not switch between the off-hook state and the on-hook state at the intended timing, or vice versa. In some cases, it switched at an unintended timing.
As exemplified above, the prior art has a problem that the apparatus cannot be used easily.

  The present invention has been made in view of the above points, and provides a control device, a control method, a control system, a control program, and a processor that can easily use the device.

  (1) The present invention has been made to solve the above problems, and one aspect of the present invention is a detection unit that detects a communication state with a wireless tag, and a change in the communication state detected by the detection unit. And a state switching unit that switches between an on-hook state and an off-hook state based on the mobile phone device.

  (2) Further, according to one aspect of the present invention, in the above mobile phone device, the detection unit is in a proximity state where the mobile phone device and the wireless tag are within a certain distance, or the mobile phone device and the mobile phone device Proximity determination information indicating whether the wireless tag is not within a certain distance is detected, and the state switching unit switches between an on-hook state and an off-hook state based on the proximity determination information.

  (3) Further, according to one aspect of the present invention, in the above mobile phone device, the state switching unit may be configured such that when the mobile phone device is in an on-hook state, the state indicated by the proximity determination information is changed from the proximity state to the non-close state. Switch to off-hook state when in proximity.

  (4) Further, according to one aspect of the present invention, in the mobile phone device described above, the state switching unit may change the state indicated by the proximity determination information from the non-proximity state when the mobile phone device is in an off-hook state. Switch to on-hook state when in proximity.

  (5) Further, according to one embodiment of the present invention, the mobile phone device is stored in a position close to the wireless tag when waiting for an incoming call.

  (6) Further, according to one aspect of the present invention, in the above mobile phone device, the state switching unit may change the state indicated by the proximity determination information from the non-proximity state when the mobile phone device is in an on-hook state. Switch to off-hook state when in proximity.

  (7) Further, according to one aspect of the present invention, in the above mobile phone device, the state switching unit may be configured such that when the mobile phone device is in an off-hook state, the state indicated by the proximity determination information is changed from the proximity state to the non-close state. Switch to on-hook state when in proximity.

  (8) One embodiment of the present invention is used in the above cellular phone device at a position close to the wireless tag during a call.

  (9) Further, according to one aspect of the present invention, in the mobile phone device described above, correspondence information storage that stores the identification information of a caller and the availability information indicating whether or not to switch between an on-hook state and an off-hook state in association with each other. An incoming call detection unit that extracts the identification information of the caller at the time of an incoming call, and the state switching unit stores the identification information of the caller detected by the incoming call detection unit in the correspondence information storage unit, Is switched between the on-hook state and the off-hook state.

  (10) According to another aspect of the present invention, in the mobile phone device described above, a communication unit that communicates with a wireless tag, and a power control unit that activates the communication unit when an incoming call is received. Prepare.

  (11) According to another aspect of the present invention, in the control method in the mobile phone device, the detection unit detects a communication state with the wireless tag, and the state switching unit is detected in the detection process. A control method comprising a state switching process for switching between an on-hook state and an off-hook state based on a change in communication state.

  (12) According to another aspect of the present invention, in the control system including a wireless tag and a mobile phone device, the mobile phone device detects a communication state with the wireless tag, and the detection unit detects And a state switching unit that switches between an on-hook state and an off-hook state based on a change in the communication state.

  (13) Further, according to one embodiment of the present invention, a detection procedure for detecting a communication state with a wireless tag in a computer of a mobile phone device, an on-hook state and an off-hook state based on a change in the communication state detected by the detection procedure Is a control program for executing a state switching procedure for switching between and.

  (14) One embodiment of the present invention is a processor that switches between an on-hook state and an off-hook state based on a change in a communication state with a wireless tag.

  According to the present invention, the apparatus can be used easily.

1 is a schematic diagram showing a mobile phone system according to a first embodiment of the present invention. It is the schematic showing the emblem which concerns on this embodiment. It is a schematic block diagram which shows the structure of the IC card which concerns on this embodiment. It is a perspective view showing an example of the mobile phone device according to the present embodiment. It is a schematic block diagram which shows the structure of the mobile telephone apparatus which concerns on this embodiment. It is a schematic block diagram which shows the structure of the control part which concerns on this embodiment. It is the schematic which shows an example of the telephone directory table which concerns on this embodiment. It is a flowchart which shows an example of operation | movement of the mobile telephone apparatus which concerns on this embodiment. It is the schematic which shows the mobile telephone system which concerns on the 2nd Embodiment of this invention. It is the schematic showing an example of the earring which concerns on this embodiment. It is a schematic block diagram which shows the structure of the control part which concerns on this embodiment. It is a flowchart which shows an example of operation | movement of the mobile telephone apparatus which concerns on this embodiment. It is the schematic showing an example of the glasses which concern on the modification of 2nd Embodiment.

(First embodiment)
Hereinafter, embodiments of the present invention will be described in detail with reference to the drawings.
FIG. 1 is a schematic diagram showing a mobile phone system according to a first embodiment of the present invention. In this figure, the mobile phone system includes a patch 1 and a mobile phone device 2. A patch 1 is attached to the pocket P1 of the clothes worn by the user. The emblem 1 stores an IC card 12. The IC card 12 is, for example, an RFID tag (wireless tag), and is, for example, a non-contact type IC card. Further, the cellular phone device 2 is accommodated in the pocket P1.

  The cellular phone device 2 performs wireless communication (referred to as tag communication) with the RFID tag. The mobile phone device 2 switches between an on-hook state and an off-hook state based on the tag communication state. Here, the on-hook state is, for example, a state in which the mobile phone device 2 is waiting for an incoming call or a state in which an incoming call is received, and is a state in which the user cannot make a call. The off-hook state is, for example, a state in which the user is talking on the mobile phone device 2 or preparing for calling, and is a state in which the user can talk to the other party. Note that the off-hook state may include a state in which the other party cannot hold and talk. In the fixed telephone device, for example, the on-hook state is a state where the receiver is placed on the main body (standby), and the off-cook state is a state where the receiver is separated from the main body.

  FIG. 2 is a schematic diagram illustrating the emblem 1 according to the present embodiment. This figure represents the back side of the emblem 1, that is, the side in contact with clothes in FIG. The chain line represents the internal structure. The emblem 1 has an IC card storage unit 10. An IC card 12 is stored in the IC card storage unit 10. A safety pin 11 is fixed to the emblem 1. The safety pin 11 allows the user to attach the emblem 1 to the clothes and to remove the emblem 1.

  FIG. 3 is a schematic block diagram showing the configuration of the IC card 12 according to the present embodiment. In this figure, the IC card 12 includes an antenna coil 121, a demodulator 122, a tag controller 123, a memory 124, and a modulator 125. In addition, in the IC card 12, except for the antenna coil 121, for example, the size is several mm square.

The antenna coil 121 is a coil used as an antenna. The antenna coil 121 is electromagnetically coupled to the reader module 23 when the reader module 23 of the mobile phone device 2 is in close proximity. The electromagnetic coupling refers to communication using, for example, mutual induction of coils. Moreover, proximity | contact is a case where things exist in a fixed distance (several centimeters-10 cm), for example. However, the present invention is not limited to this. Proximity refers to the call position of the mobile phone device 2 (for example, near the face of the user or the vicinity of the ear) and the storage position of the mobile phone device 2 (for example, the pocket of the user). , Bag) may be a case where objects are at a distance smaller than the distance between the two. In addition, the reader module 23 may vary the electromagnetic coupling distance. For example, in the reader module 23, the distance for electromagnetic coupling is determined by the setting of the user, and the IC card 12 is within the distance for sufficient electromagnetic coupling (for example, when the power of communication by electromagnetic coupling exceeds a threshold). May be close.
The antenna coil 121 generates electric power (electromotive force) by electromagnetic coupling and supplies the generated electric power to the demodulation unit 122. The antenna coil 121 transmits a transmission signal (also referred to as a tag signal) based on power supplied from a modulation unit 125 described later.

  The demodulator 122 separates the power supplied from the antenna coil 121 into a signal and power for power supply (also referred to as power supply power). The demodulator 122 supplies the separated power to the tag controller 123. The demodulation unit 122 generates reception data by demodulating the separated signal. The demodulator 122 measures the magnitude of the power generated in the antenna coil 121 and generates proximity data indicating the magnitude of the measured power. The demodulation unit 122 outputs the generated reception data and proximity data to the tag control unit 123.

The tag control unit 123 is activated with the power supply supplied from the demodulation unit 122. The tag control unit 123 reads data from the memory 124 or writes data to the memory 124 based on the reception data and proximity data input from the demodulation unit 122. The tag control unit 123 outputs data read from the memory 124 to the modulation unit 125 and supplies power.
For example, the memory 124 stores ID (identification) information of the IC card 12 in advance. The tag control unit 123 determines whether or not the mobile phone device 2 and the IC card 12 are close based on the proximity data. When it is determined that the mobile phone device 2 and the IC card 12 are close to each other (also referred to as a close state), the tag control unit 123 reads the ID information from the memory 124 and converts the data including the read ID information into the modulation unit 125. Output to. On the other hand, when it is determined that the mobile phone device 2 and the IC card 12 are not in proximity (also referred to as a non-proximity state), the tag control unit 123 does not output data including ID information to the modulation unit 125.

The modulation unit 125 is activated by the power supplied from the tag control unit 123. The modulation unit 125 modulates the data input from the tag control unit 123. The modulation unit 125 supplies power to the antenna coil 121 according to the modulation result. Thereby, the antenna coil 121 transmits a tag signal.
As described above, the antenna coil 121 transmits a tag signal including ID information when in the proximity state. On the other hand, when the antenna coil 121 is in the non-proximity state, the tag signal is not transmitted, or the tag signal not including the ID information is transmitted.

FIG. 4 is a perspective view illustrating an example of the mobile phone device 2 according to the present embodiment. In this figure, the cellular phone device 2 includes a display unit 201, an input operation unit 202, a reader module 23, a microphone 243, an earpiece 244, and an antenna 245.
The display unit 201 displays an image. The display unit 201 is, for example, an LCD (liquid crystal display). The input operation unit 202 has a plurality of keys (buttons). The input operation unit 202 may be integrated with the display unit 201. In this case, the display unit 201 and the input operation unit 202 are realized by a touch screen.

The reader module 23 performs tag communication with the IC card 12. For example, the reader module 23 is electromagnetically coupled to the IC card 12 and receives a tag signal including ID information. In this case, the reader module 23 reads ID information from the adjacent IC card 12.
The microphone 243 receives sound.
The earpiece 244 outputs sound.
The antenna 245 transmits and receives signals to and from the base station apparatus.

  In the mobile phone device 2 of FIG. 4, a reader module 23 (a transmitting antenna coil 232 and a receiving antenna coil 233 described later) is provided in the vicinity of the earpiece 244.

  FIG. 5 is a schematic block diagram showing the configuration of the mobile phone device 2 according to the present embodiment. In this figure, the cellular phone device 2 includes a display unit 201, an input operation unit 202, a control unit 21, a power supply switch 221, a reader module 23, a hook switching unit 241, a communication unit 242, a microphone 243, an earpiece 244, and an antenna. H.245 is comprised. The reader module 23 includes an AC generation unit 231, a transmission antenna coil 232, a reception antenna coil 233, and a demodulation unit 234.

The display unit 201 displays an image based on the data input from the control unit 21.
The input operation unit 202 generates input data based on a user operation, and outputs the generated input data to the control unit 21.
The control unit 21 controls each unit of the mobile phone device 2 based on the input data input from the input operation unit 202 and the reception data input from the communication unit 242. The control unit 21 controls each unit of the mobile phone device 2 based on data input from the demodulation unit 234 of the reader module 23. For example, the control unit 21 performs the same control as the control based on the user's operation based on the data input from the demodulation unit 234 (also referred to as tag use control).
As an example, when an incoming call is received, the control unit 21 causes the IC card 12 to supply power and perform tag communication. The control unit 21 controls the hook switching unit 241 based on the tag signal received from the IC card 12. Thereby, the control unit 21 switches the on-hook state and the off-hook state of the mobile phone device 2.

The power supply switch 221 controls the power of the reader module 23 according to the control of the control unit 21. That is, the power supply switch 221 controls whether to perform tag communication. Specifically, when tag communication is performed, the power supply switch 221 controls the AC generation unit 231 to “ON”. On the other hand, when the tag communication is not performed, the power supply switch 221 controls the AC generator 231 to “OFF”.
The AC generator 231 supplies power to the transmission antenna coil 232 according to the control of the power supply switch 221. Specifically, the AC generator 231 supplies an AC current to the transmission antenna coil 232 when controlled to “ON”. On the other hand, the AC generator 231 does not supply an AC current to the transmission antenna coil 232 when controlled to “OFF”.

The transmission antenna coil 232 is a coil used as an antenna. The transmission antenna coil 232 becomes active when power is supplied from the AC generator 231, for example. The transmitting antenna coil 232 is electromagnetically coupled to the antenna coil 121 of the IC card 12 when the transmitting antenna coil 232 is in the proximity state when active.
The reception antenna coil 233 is a coil used as an antenna. The reception antenna coil 233 receives the tag signal transmitted from the antenna coil 121 of the IC card 12. The reception antenna coil 233 outputs the received tag signal to the demodulation unit 234.
The demodulation unit 234 generates reception data by demodulating the tag signal. This received data includes, for example, ID information of the IC card 12. The demodulator 234 outputs the generated received data to the controller 21.

The hook switching unit 241 controls the communication unit 242 according to the control from the control unit 21. That is, the hook switching unit 241 switches between the on-hook state and the off-hook state of the mobile phone device 2.
The communication unit 242 generates a transmission signal by modulating data input from the control unit 21 and the microphone 243. The communication unit 242 transmits the generated transmission signal to the base station device via the antenna 245. The communication unit 242 generates reception data by demodulating the reception signal received from the base station apparatus. The communication unit 242 outputs audio data among the generated reception data to the earpiece 244 and outputs other data to the control unit 21.
Here, for example, when the communication unit 242 is switched to an off-hook state when an incoming call (incoming call) is informed (for example, the mobile phone device 2 is ringing), the communication unit 242 transmits the voice of the other party from the earpiece 244. Can be output, and voice can be input from the microphone. On the other hand, when the communication unit 242 is switched from the off-hook state to the on-hook state, for example, the communication unit 242 is in a state in which the voice of the other party cannot be output from the earpiece 244 and cannot be input from the microphone.

The microphone 243 converts the input voice into data, and outputs the converted data to the communication unit 242.
The earpiece 244 converts the voice data input from the communication unit 242 into voice and outputs the converted voice.

  FIG. 6 is a schematic block diagram illustrating the configuration of the control unit 21 according to the present embodiment. In this figure, the control unit 21 includes a telephone directory information setting unit 211, a telephone directory information storage unit 212, an incoming call detection unit 213, a communication partner verification unit 214, an RFID reader power control unit 215, an RFID information acquisition unit 216, and a status. A switching unit 217 is included. Each unit of the control unit 21 is realized using a CPU (Central Processing Unit), a memory, and a program recorded in the memory.

The phone book information setting unit 211 updates the phone book data in the phone book information storage unit 212 based on the input data input from the input operation unit 202. For example, the phone book information setting unit 211 updates the availability category of the phone book data. Here, the availability category is information indicating whether or not the tag usage control is permitted. In other words, the availability category is information indicating whether or not switching between the on-hook state and the off-hook state is possible.
The phone book information storage unit 212 stores a phone book table (FIG. 7). The phone book table stores phone book data in which a telephone number (caller identification information), name, and availability classification are associated.

The incoming call detection unit 213 detects an incoming call to the mobile phone device 2 based on the data input from the communication unit 242. When the incoming call is detected, the incoming call detection unit 213 outputs the incoming data to the communication partner verification unit 214. The incoming data includes the telephone number of the other party (identification information of the caller).
The communication partner collation unit 214 extracts the telephone number included in the incoming call data input from the incoming call detection unit 213. The communication partner verification unit 214 selects phone book data including the extracted telephone number from the phone book table stored in the phone book information storage unit 212. The communication partner verification unit 214 displays information (for example, name) of the selected phone book data on the display unit 201 and causes the mobile phone device 2 to ring. In addition, the communication partner collation unit 214 outputs the phone book data availability category to the RFID reader power control unit 215.

  The RFID reader power control unit 215 determines whether to perform tag usage control based on the availability classification input from the communication partner verification unit 214. When it is determined that tag use control is to be performed, the RFID reader power control unit 215 performs control for causing the power supply switch 221 to perform tag communication. On the other hand, when it is determined that the tag usage control is not performed, the RFID reader power control unit 215 controls the power supply switch 221 not to perform the tag communication. The RFID reader power control unit 215 may end the tag communication when the incoming call is interrupted or after a predetermined period elapses when the tag communication is started. In addition, the RFID reader power control unit 215 does not control the power supply switch 221 when it is determined that the tag use control is not performed in a state where the tag communication is not started or has ended. May be.

The RFID information acquisition unit 216 (detection unit) determines whether the state is the proximity state or the non-proximity state based on the reception data input from the demodulation unit 234. That is, the RFID information acquisition unit 216 detects the communication state between the mobile phone device 2 and the IC card 12. In other words, the RFID information acquisition unit 216 determines whether or not the mobile phone device 2 and the IC card 12 exist within a certain distance based on the received data. The RFID information acquisition unit 216 outputs proximity determination data (proximity determination information) indicating the result of this determination to the state switching unit 217.
The state switching unit 217 performs the same control as the control based on the user's operation based on the proximity determination data input from the RFID information acquisition unit 216. For example, the state switching unit 217 controls the hook switching unit 241 based on the proximity determination data. That is, the state switching unit 217 switches between the on-hook state and the off-hook state based on the proximity determination data.

FIG. 7 is a schematic diagram illustrating an example of a telephone directory table according to the present embodiment. As shown in the figure, the telephone directory table has items of a telephone number, a name, and an availability classification. Here, the yes / no category indicates that “Yes” permits tag usage control, and “No” indicates that tag usage control is not allowed. The phone book table stores phone book data for each phone number.
For example, in the phonebook data on the first line in FIG. 7, the phone number is “090-1234-XXXX”, the name of the user of the phone number is “Yuko Yu”, and the availability classification is “Yes”. It shows that. That is, this phone book data indicates that the mobile phone device 2 performs tag use control when an incoming call is received from “090-1234-XXXX”.

FIG. 8 is a flowchart showing an example of the operation of the mobile phone device 2 according to the present embodiment.
(Step S101) The mobile phone device 2 is in a standby state, for example, and is in an on-hook state. The incoming call detection unit 213 determines whether an incoming call to the mobile phone device 2 has been detected. If it is determined that an incoming call has been detected (YES), the incoming call detection unit 213 acquires incoming data, and the process proceeds to step S102. On the other hand, if it is determined that no incoming call has been detected (NO), the process returns to step S101. Note that, at the start of the flowchart of FIG. 8, the power supply switch 221 controls the AC generation unit 231 to “OFF” and suppresses power consumption due to tag communication.

(Step S102) The communication partner collation unit 214 collates the phone book data in the phone book table with the telephone number included in the incoming data acquired in step S101 as a key. The communication partner collation unit 214 selects telephone book data including the telephone number as a key, and acquires a permission / inhibition classification from the selected telephone book data. The RFID reader power control unit 215 determines whether to permit the tag usage control based on the availability classification acquired by the communication partner verification unit 214. That is, the RFID reader power control unit 215 determines whether or not the transmission source is a transmission source permitted to use the tag.
If it is determined that the tag use control is permitted (the yes / no category is “Yes”) (YES), the process proceeds to step S104. On the other hand, if it is determined that there is no telephone directory data including the telephone number as a key, or that tag usage control is not permitted (NO / NO division), the process proceeds to step S103. For example, in the case of the telephone book table of FIG. 7, when there is an incoming call from “090-1234XXXX”, the RFID reader power control unit 215 determines that tag usage control is permitted (YES).

(Step S <b> 103) The state switching unit 217 controls the hook switching unit 241 based on the input data from the input operation unit 202. The operation after S103 is shifted to a process of waiting for an off-hook operation by a button operation of the input operation unit 202 (the following flow is omitted).
(Step S104) The RFID reader power control unit 215 controls the power supply switch 221 to perform tag communication. Specifically, the power supply switch 221 controls the AC generator 231 to be “ON”. The AC generator 231 converts a DC current into an AC current and supplies the converted AC current to the transmission antenna coil 232. That is, the RFID reader power control unit 215 turns on the reader module 23. That is, the RFID reader power control unit 215 activates the reader module 23 when there is an incoming call. Thereafter, the process proceeds to step S105.

(Step S105) As a result of the control in step S104, when the mobile phone device 2 and the IC card 12 are within the communication range of tag communication, the transmission antenna coil 232 and the antenna coil 121 are electromagnetically coupled. The demodulator 122 generates proximity data indicating the magnitude of power (communication power) generated in the antenna coil 121.
The tag control unit 123 determines the proximity state when the power level indicated by the proximity data is equal to or greater than a predetermined threshold T1. If it is determined that the state is the proximity state, the tag control unit 123 reads the ID information from the memory 124. The modulation unit 125 modulates data including ID information, and the antenna coil 121 transmits a tag signal including ID information.

The above processing in the IC card 12 in step S105 is repeated. For example, the IC card 12 repeatedly transmits a tag signal including ID information when the power level indicated by the proximity data continues to be equal to or greater than a predetermined threshold T1. For example, when the ID information is “1234”, the IC card 12 repeatedly transmits information “1234”, “1234”, “1234”,. Here, each tag signal including “1234” may be transmitted every predetermined time.
At this time, the receiving antenna coil 233 is electromagnetically coupled to the antenna coil 121. The demodulation unit 234 generates reception data by demodulating the tag signal received by the reception antenna coil 233. The RFID information acquisition unit 216 acquires ID information from the reception data input from the demodulation unit 234. As described above, in the proximity state, the mobile phone device 2 acquires ID information from the IC card 12. On the other hand, in the non-proximity state, the mobile phone device 2 does not acquire ID information from the IC card 12.

The RFID information acquisition unit 216 determines whether or not ID information is included in the acquired reception data for a predetermined period. Thereby, the RFID information acquisition unit 216 determines whether the state is the proximity state or the non-proximity state.
When it is determined that it is in the proximity state (ID information is included in the received data) (YES), the process proceeds to step S106. For example, when the user puts the mobile phone device 2 in the pocket P1 (see FIG. 1), it is determined that the user is close. On the other hand, when it is determined that it is in a non-proximity state (ID information is not included in received data or received data is not acquired) (NO), the process proceeds to step S103.

(Step S106) The RFID information acquisition unit 216 determines whether or not ID information is included in the acquired reception data. That is, the RFID information acquisition unit 216 determines whether it is in the proximity state or the non-proximity state continuously from step S105.
If it is determined that the proximity state continues (ID information is continuously included in the received data) (YES), the process returns to step S106. Thus, in step S106, the RFID information acquisition unit 216 enters a state of monitoring whether the acquisition of ID information is interrupted. That is, the mobile phone device 2 determines that the mobile phone device 2 is in the proximity state (the mobile phone device 2 and the IC card 12 are within the proximity range) unless ID information acquisition is suspended. In this case, the cellular phone device 2 repeats the process of S106 and waits for a response by the user's operation.
On the other hand, when it is determined that the non-proximity state (ID information is not included in the reception data or reception data is not acquired) (NO), the RFID information acquisition unit 216 displays the proximity determination data indicating the non-proximity state. Generate and proceed to step S107. For example, when the user takes out the mobile phone device 2 from the pocket P1, the mobile phone device 2 is interrupted from acquiring ID information. In this case, the non-proximity state is determined in step S106.

In step S106, the RFID information acquisition unit 216 may determine whether or not a state in which the received data does not include ID information continues for a predetermined period. If it is determined that the state in which the ID information is not included in the received data continues for a certain period, the process proceeds to step S107. On the other hand, in other cases, the process returns to S106. That is, the mobile phone device 2 determines the proximity state unless ID information acquisition is suspended for a certain period.
In communication, a communication error may occur instantaneously. For example, the mobile phone device 2 may not be able to acquire ID information due to a communication error despite the proximity state. The mobile phone device 2 can prevent the process from proceeding to step S107 when an instantaneous communication error occurs by determining whether or not the state in which the ID information is not included in the received data continues for a certain period of time. Malfunction (chattering) can be prevented.

(Step S107) The state switching unit 217 controls the hook switching unit 241 based on the proximity determination data (indicating the non-proximity state) generated in step S106. Thereby, the cellular phone device 2 is switched from the on-hook state to the off-hook state. That is, the state switching unit 217 performs the same control as the control when the user presses the off-hook button (response key). Thereafter, the process proceeds to step S108. When the mobile phone device 2 enters an off-hook state, the mobile phone device 2 enters a state where a call can be made and the user can respond to an incoming call.

(Step S108) The RFID information acquisition unit 216 determines whether or not ID information is included in the acquired reception data for a predetermined period. That is, the RFID information acquisition unit 216 determines whether or not the magnitude (intensity) of power generated in the antenna coil 121 is equal to or greater than the threshold value T1. Thereby, the RFID information acquisition unit 216 determines whether the state is the proximity state or the non-proximity state.

If it is determined that the proximity state is present (ID information is included in the received data) (YES), the RFID information acquisition unit 216 generates proximity determination data indicating the proximity state, and the process proceeds to step S109. For example, when the user places (returns) the cellular phone device 2 in the pocket P1 (see FIG. 1), it is determined that the user is in the proximity state.
On the other hand, when it is determined that it is in a non-proximity state (ID information is not included in received data or received data is not acquired) (NO), the process returns to step S108. That is, the mobile phone device 2 waits for a transition from the non-proximity state (the mobile phone device 2 and the IC card 12 are out of the proximity range) to the proximity state (the mobile phone device 2 and the IC card 12 are in the proximity range). It has become. Note that the state switching unit 217 may control the hook switching unit 241 based on input data from the input operation unit 202 or data from the communication unit 242 (for example, call disconnection operation of the caller).

(Step S109) The state switching unit 217 controls the hook switching unit 241 based on the proximity determination data (indicating the proximity state) generated in step S108. Thereby, the cellular phone device 2 is switched from the off-hook state to the on-hook state. That is, the state switching unit 217 performs the same control as the control when the user presses the on-hook button (end call key). Then, it progresses to step S110.

(Step S110) The RFID reader power control unit 215 causes the power supply switch 221 to suspend control for performing tag communication. Specifically, the power supply switch 221 controls the AC generator 231 to “OFF”. The AC generation unit 231 stops supplying power to the transmission antenna coil 232. That is, the RFID reader power control unit 215 deactivates the reader module 23 by turning off the power of the reader module 23.

  Thus, according to the present embodiment, the mobile phone device 2 detects the communication state with the IC card 12. Specifically, the cellular phone device 2 is in a proximity state in which the cellular phone device 2 and the IC card 12 are within a certain distance, or in a non-proximity state in which the cellular phone device 2 and the IC card 12 are not in a certain distance, Proximity determination data indicating is detected. The cellular phone device 2 switches between the on-hook state and the off-hook state based on the change in the communication state indicated by the detected proximity determination data. Thereby, the user can use the mobile phone device 2 more simply than in the case where the on-hook state and the off-hook state are switched by, for example, a button operation.

Further, according to the present embodiment, when the mobile phone device 2 is in the on-hook state, the mobile phone device 2 switches to the off-hook state when the state indicated by the proximity determination data changes from the close state to the non-close state. In addition, when the cellular phone device 2 is in the off-hook state, the cellular phone device 2 switches to the on-hook state when the state indicated by the proximity determination data changes from the non-proximity state to the proximity state.
Here, the mobile phone device 2 is stored in a position close to the IC card 12 when waiting for an incoming call. That is, when the mobile phone device 2 is used for a call from the state in which it is stored, the state indicated by the proximity determination data changes from the proximity state to the non-proximity state. At that time, since the mobile phone device 2 is switched from the on-hook state to the off-hook state, the user can easily respond to an incoming call at the mobile phone device 2. Further, when the mobile phone device 2 is stored from a used state, the state indicated by the proximity determination data changes from the non-proximity state to the proximity state. At that time, since the mobile phone device 2 is switched from the off-hook state to the on-hook state, the user can easily end the call on the mobile phone device 2.

  Further, according to the present embodiment, the cellular phone device 2 stores the telephone number of the other party and the availability category in association with each other. When the incoming call is received, the cellular phone device 2 extracts the telephone number of the other party, and the extracted telephone number is stored in the telephone directory table. When the availability classification associated with the telephone number is “Yes”, the on-hook state And off-hook state (tag use control is performed). Thereby, in the mobile telephone apparatus 2, the transmission origin which performs tag utilization control can be limited to a specific person (for example, a close relative). On the other hand, a response is made by a button operation or the like to a sender that does not perform tag usage control, and the user can more carefully determine whether or not to respond.

  According to the present embodiment, the mobile phone device 2 activates the reader module 23 when an incoming call is received. Thereby, the cellular phone device 2 can suppress power consumption as compared with the case where the reader module 23 is continuously operated. In this case, the cellular phone device 2 may end the power supply by some off-hook operation.

(Second Embodiment)
Hereinafter, a second embodiment of the present invention will be described in detail with reference to the drawings.
In the first embodiment, the case where the IC card 12 is arranged near the place (the pocket P1 in FIG. 1) in which the cellular phone device 2 is stored has been described. In the second embodiment, the case where the IC card 12 is arranged near the place where the mobile phone device 2a is used will be described. For example, the mobile phone device 2a enters an off-hook state when the mobile phone device 2a and the IC card 12 are close to each other. Further, when the mobile phone device 2a enters the non-proximity state in the off-hook state, the mobile phone device 2a enters the on-hook state.

  FIG. 9 is a schematic diagram showing a mobile phone system according to the second embodiment of the present invention. In this figure, the mobile phone system includes an earring 1a and a mobile phone device 2a. The user wears the earring 1a. The earring 1a is located in the vicinity of a place where the mobile phone device 2a is used, that is, a place (ear) where the mobile phone device 2a listens to voice during a call. An IC card 12 is stored in the earring 1a.

  An example of a perspective view of the mobile phone device 2a is the same as FIG. In the mobile phone device 2a, a reader module 23 is provided in the vicinity of the earpiece 244. That is, the reader module 23 and the IC card 12 are arranged in a portion that outputs sound (near the earpiece 244) and a portion that listens to sound (near the ear). Thereby, when the user listens to the voice from the mobile phone device 2a, the reader module 23 and the IC card 12 can be brought close to each other.

  FIG. 10 is a schematic diagram illustrating an example of the earring 1a according to the present embodiment. The chain line represents the internal structure. An IC card 12 is stored in the earring 1a.

FIG. 11 is a schematic block diagram illustrating the configuration of the control unit 21a according to the present embodiment. The mobile phone device 2a includes a control unit 21a in place of the control unit 21 in the mobile phone device 2 (FIG. 5). When the control unit 21a (FIG. 11) according to the present embodiment is compared with the control unit 21 (FIG. 6) according to the first embodiment, the state switching unit 217a is different. However, the functions of other components (phone book information setting unit 211, phone book information storage unit 212, incoming call detection unit 213, communication partner verification unit 214, RFID reader power control unit 215, and RFID information acquisition unit 216) are as follows. The same as in the first embodiment. A description of the same functions as those in the first embodiment is omitted.
The state switching unit 217a performs the same control as the control based on the user's operation based on the proximity determination data input from the RFID information acquisition unit 216. For example, the state switching unit 217a controls the hook switching unit 241 based on the proximity determination data.

  FIG. 12 is a flowchart showing an example of the operation of the mobile phone device 2a according to the present embodiment. When the operation of the mobile phone device 2a according to the present embodiment (FIG. 12) is compared with the operation of the mobile phone device 2 according to the first embodiment (FIG. 6), the processes in steps S205 to S209 are different.

(Step S205) The RFID information acquisition unit 216 determines whether or not ID information is included in the acquired reception data for a predetermined period. Thereby, the RFID information acquisition unit 216 determines whether the state is the proximity state or the non-proximity state. If it is determined to be in the proximity state (YES), the process proceeds to step S103. On the other hand, when it determines with a non-proximity state (NO), it progresses to step S106.

(Step S206) The RFID information acquisition unit 216 determines whether or not ID information is included in the acquired reception data. That is, the RFID information acquisition unit 216 determines whether it is in the proximity state or continuously in the non-proximity state.
When it is determined that the proximity state is present (YES), the RFID information acquisition unit 216 generates proximity determination data indicating that the mobile phone device 2 and the IC card 12 are close to each other, and the process proceeds to step S207. For example, when the user brings the mobile phone device 2 close to the ear (during a call), it is determined that the user is close. On the other hand, when it is determined that the non-proximity state continues (NO), the RFID information acquisition unit 216 returns to step S206.

(Step S207) The state switching unit 217a controls the hook switching unit 241 based on the proximity determination data (indicating proximity) generated in Step S206. Thereby, the cellular phone device 2 is switched from the on-hook state to the off-hook state. That is, the state switching unit 217a performs the same control as when the user presses the off-hook button. Thereafter, the process proceeds to step S208.

(Step S208) The RFID information acquisition unit 216 determines whether or not ID information is included in the acquired reception data for a predetermined period. That is, the RFID information acquisition unit 216 determines whether or not the magnitude of the power generated in the antenna coil 121 is equal to or greater than the threshold value T1. Thereby, the RFID information acquisition unit 216 determines whether the state is the proximity state or the non-proximity state.
If it is determined to be in the proximity state (YES), the process returns to step S208. On the other hand, when it is determined as the non-proximity state (NO), the RFID information acquisition unit 216 generates proximity determination data indicating that the mobile phone device 2 and the IC card 12 are not close to each other, and the process proceeds to step S209.

(Step S209) The state switching unit 217a controls the hook switching unit 241 based on the proximity determination data generated in Step S208 (indicating that it is not close). Thereby, the cellular phone device 2 is switched from the off-hook state to the on-hook state. That is, the state switching unit 217a performs the same control as the control when the user presses the on-hook button. Then, it progresses to step S110.

As described above, according to the present embodiment, when the mobile phone device 2a is in the on-hook state, the mobile phone device 2a goes to the off-hook state when the state indicated by the proximity determination data is changed from the non-proximity state to the proximity state. Switch. In addition, when the mobile phone device 2a is in the off-hook state, the mobile phone device 2a switches to the on-hook state when the state indicated by the proximity determination data changes from the close state to the non-close state.
Here, the cellular phone device 2a is used at a position close to the IC card 12 during a call. That is, when the mobile phone device 2a is used, the state indicated by the proximity determination data changes from the non-proximity state to the proximity state. At that time, since the mobile phone device 2a is switched from the on-hook state to the off-hook state, the user can easily respond to an incoming call at the mobile phone device 2. Further, when the cellular phone device 2a is stored from a used state, the state indicated by the proximity determination data changes from the close state to the non-close state. At that time, since the cellular phone device 2a is switched from the off-hook state to the on-hook state, the user can easily end the call on the cellular phone device 2.

<Modification>
FIG. 13 is a schematic diagram illustrating an example of glasses 1b according to a modification of the second embodiment. An IC card compartment R1 is attached to the glasses 1b. An IC card 12 is stored in the IC card slot R1. Thus, the IC card 12 is arranged in the vicinity of the place (ear) where the mobile phone device 2a listens to the voice during a call. Thereby, when the user listens to the voice from the mobile phone device 2a, the reader module 23 and the IC card 12 can be brought close to each other.

  In each of the above-described embodiments, the case where tag use control is performed with respect to a call on the mobile phone devices 2 and 2a has been described. However, the present invention is not limited to this, and tag usage control may be performed with respect to mail transmission / reception and web browsing. For example, the mobile phone devices 2 and 2a (the control units 21 and 21a) determine whether they are in a proximity state or a non-proximity state when an incoming mail is received, and open and display the mail based on the determination result. May be. In addition, for example, the mobile phone device 2 determines whether it is in a proximity state or a non-proximity state when an update notification is received from a website or application (for example, a map application), and based on the determination result, the website or application May be displayed, or the site after login may be displayed by logging in to the website. Moreover, the control part 21 may complete | finish the program of a mail, a web browser, and an application based on the received power data which shows the strength of the received power of a tag signal. Further, when tag use control is performed for mail transmission / reception and web browsing, for example, a wristwatch storing the IC card 12 or a wristwatch with an IC card slot R1 storing the IC card 12 may be used. That is, the mobile phone device 2a is used at a position (near the hand) close to the IC card 12 during a call. In addition, the mobile phone device 2 or 2a may notify by sound or vibration when the mobile phone device 2 or 2a is switched from the off-hook state to the on-hook state (or from the on-hook state to the off-hook state).

  In the first embodiment, the emblem 1 may be, for example, a badge, a brooch, or a name tag case. Further, for example, an RFID tag may be stored with respect to an object to be mounted in the vicinity of a place where the mobile phone devices 2 and 2a are stored (pocket P1 in FIG. 1), and the stored object may be attached near the pocket. . Further, the RFID tag may be inserted between the outer surface and the lining of the clothes, or may be sewn directly to the pocket of the clothes.

  In each of the above embodiments, the tag signal may not include ID information. In this case, for example, the tag signal may include power information indicating the strength of received power of the tag signal instead of the ID information. In that case, the mobile phone devices 2 and 2a determine whether they are in the proximity state or the non-proximity state based on the power information, and perform the control of each of the above embodiments. In addition, the mobile phone device 2 or 2a measures the strength of the received power of the tag signal, determines whether it is in the proximity state or the non-proximity state based on the measured strength of the received power, and controls the above embodiments May be performed.

  In each of the above embodiments, the cellular phone devices 2 and 2a may limit the functions of the cellular phone devices 2 and 2a based on the received power data indicating the strength of the received power of the tag signal. For example, the mobile phone devices 2 and 2a can use a part of the functions of the mobile phone devices 2 and 2a only when the strength of the received power of the tag signal is equal to or greater than the threshold value. If it is smaller, the function may not be used.

In each of the above embodiments, the mobile phone devices 2 and 2a may include a modulation unit. In this case, the mobile phone devices 2 and 2a modulate data with the modulation unit, and supply power to the transmission antenna coil 232 according to the modulation result.
In each of the above embodiments, the case where the tag communication method is the electromagnetic coupling method has been described. However, the present invention is not limited to this, and the tag communication method includes the electrostatic coupling method, the electromagnetic induction method, and the microwave method. It may be. When the tag communication is an electromagnetic coupling method or an electromagnetic induction method, the mobile phone devices 2 and 2a can perform communication with a short communication distance and resistance to noise.

  In each of the above embodiments, for example, the seller of the mobile phone device 2 or 2a may use an accessory (for example, the emblem 1 or the like) attached with the IC card 12 when the user purchases the mobile phone device 2 or 2a. Earrings 1a, glasses 1b, and a hat) are attached. In addition, the accessory as an accessory may be charged or may be free. Further, these accessories may be sold separately after the user purchases the mobile phone device 2 or 2a. Alternatively, the IC card 12 may be provided to the user, and the user may use the IC card 12 attached to an arbitrary accessory. Further, for example, the seller of the mobile phone devices 2 and 2a may reset and use the non-contact ID card that the user already holds for another purpose so that the card can be applied to the present invention. In this case, the program recorded in the memory of the non-contact ID card may be rewritten with a program executed by the IC card 12 of the present invention.

In addition, you may make it implement | achieve a part of IC card 12 and the mobile telephone apparatuses 2 and 2a in embodiment mentioned above with a computer. In that case, the program for realizing the control function may be recorded on a computer-readable recording medium, and the program recorded on the recording medium may be read by a computer system and executed. Here, the “computer system” is a computer system built in the IC card 12 or the mobile phone device 2 or 2a, and includes an OS and hardware such as peripheral devices. The “computer-readable recording medium” refers to a storage device such as a flexible medium, a magneto-optical disk, a portable medium such as a ROM and a CD-ROM, and a hard disk incorporated in a computer system. Furthermore, the “computer-readable recording medium” is a medium that dynamically holds a program for a short time, such as a communication line when transmitting a program via a network such as the Internet or a communication line such as a telephone line, In such a case, a volatile memory inside a computer system serving as a server or a client may be included and a program that holds a program for a certain period of time. The program may be a program for realizing a part of the functions described above, and may be a program capable of realizing the functions described above in combination with a program already recorded in a computer system.
Moreover, you may implement | achieve part or all of the IC card 12 and the mobile telephone apparatuses 2 and 2a in embodiment mentioned above as integrated circuits, such as LSI (Large Scale Integration). Each functional block of the IC card 12 and the mobile phone devices 2 and 2a may be individually made into a processor, or a part or all of them may be integrated into a processor. Further, the method of circuit integration is not limited to LSI, and may be realized by a dedicated circuit or a general-purpose processor. Further, in the case where an integrated circuit technology that replaces LSI appears due to progress in semiconductor technology, an integrated circuit based on the technology may be used.

  As described above, the embodiment of the present invention has been described in detail with reference to the drawings. However, the specific configuration is not limited to the above, and various design changes and the like can be made without departing from the scope of the present invention. It is possible to

  The present invention can be used in a communication device such as a mobile phone device, and the communication device can be used easily.

  DESCRIPTION OF SYMBOLS 1 ... Patch, 10 ... IC card storage part, 11 ... Safety pin, 12 ... IC card, 121 ... Antenna coil, 122 ... Demodulation part, 123 ... Tag control part , 124 ... Memory, 125 ... Modulation section, 201 ... Display section, 202 ... Input operation section, 21 ... Control section, 221 ... Power supply switch, 23 ... Reader module 241 ... hook switching unit, 242 ... communication unit, 243 ... microphone, 244 ... earpiece, 245 ... antenna, 231 ... AC generator, 232 ... transmitting antenna coil, 233 ... Receiving antenna coil, 234 ... Demodulation unit, 211 ... Phone book information setting unit, 212 ... Phone book information storage unit, 213 ... Incoming call detection unit, 214 ... Communication partner verification Part, 215 ・· RFID reader power control unit, 216 ... RFID information acquiring unit (detection unit), 217 ... state converter

Claims (14)

A detection unit for detecting a communication state with the wireless tag;
A state switching unit that switches between an on-hook state and an off-hook state based on a change in the communication state detected by the detection unit;
A mobile phone device comprising: The detection unit includes proximity determination information indicating whether the mobile phone device and the wireless tag are close to each other within a certain distance, or whether the mobile phone device and the wireless tag are not close to each other. Detect
The mobile phone device according to claim 1, wherein the state switching unit switches between an on-hook state and an off-hook state based on the proximity determination information.   3. The mobile phone according to claim 2, wherein when the mobile phone device is in an on-hook state, the state switching unit switches to an off-hook state when the state indicated by the proximity determination information changes from the proximity state to the non-proximity state. Telephone device.   The said state switching part switches to an on-hook state, when the state which the said proximity | contact determination information turns into the said proximity state from the said non-proximity state when the own mobile telephone apparatus is an off-hook state. Mobile phone device.   5. The mobile phone device according to claim 3, wherein the mobile phone device is stored in a position close to the wireless tag when waiting for an incoming call.   3. The mobile phone according to claim 2, wherein when the mobile phone device is in an on-hook state, the state switching unit switches to an off-hook state when the state indicated by the proximity determination information changes from the non-proximity state to the proximity state. Telephone device.   6. The state switching unit according to claim 2 or 5, wherein when the mobile phone device is in an off-hook state, the state switching unit switches to an on-hook state when the state indicated by the proximity determination information is changed from the proximity state to the non-proximity state. Mobile phone device.   The mobile phone device according to claim 6 or 7, wherein the mobile phone device is used at a position close to the wireless tag during a call. A correspondence information storage unit that stores the identification information of the transmission source and the availability information indicating whether or not to switch between the on-hook state and the off-hook state;
An incoming call detection unit that extracts the identification information of the caller when receiving an incoming call,
The state switching unit stores the identification information of the caller detected by the incoming call detection unit in the correspondence information storage unit, and the availability information associated with the identification information indicates whether the on-hook state and the off-hook state can be switched. The mobile phone device according to any one of claims 1 to 8, which switches between an on-hook state and an off-hook state. A communication unit for communicating with the wireless tag;
A power control unit that activates the communication unit when there is an incoming call;
The mobile phone device according to any one of claims 1 to 9, further comprising: In the control method in the mobile phone device,
A detection process in which the detection unit detects a communication state with the wireless tag;
A state switching process in which the state switching unit switches between an on-hook state and an off-hook state based on a change in the communication state detected in the detection process;
A control method. In a control system comprising a wireless tag and a mobile phone device,
The mobile phone device includes:
A detection unit for detecting a communication state with the wireless tag;
A state switching unit that switches between an on-hook state and an off-hook state based on a change in the communication state detected by the detection unit;
A control system comprising: To the computer of the mobile phone device,
Detection procedure for detecting the communication status with the wireless tag,
A state switching procedure for switching between an on-hook state and an off-hook state based on a change in the communication state detected in the detection procedure;
A control program to execute.   A processor that switches between an on-hook state and an off-hook state based on a change in a communication state with the wireless tag.

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