JP3590595B2 - Radio wave quality measuring device, radio wave quality measuring system and radio wave quality measuring method for mobile phone - Google Patents

Description

[0001]
TECHNICAL FIELD OF THE INVENTION
The present invention relates to a radio wave quality measuring device, a radio wave quality measuring system, and a radio wave quality measuring method for a mobile phone.
[0002]
[Prior art]
The spread of mobile phones in recent years has been remarkable. The call state of the mobile phone is determined by whether or not radio waves can be transmitted and received satisfactorily to and from an antenna installed in the call area. For this reason, each mobile phone service company carries out a measurement survey of radio wave quality under various environments in a call area in order to improve a call state. Conventionally, as a survey for measuring radio wave quality, a researcher carries a mobile phone in a call area, makes a call from an appropriate point using a mobile phone, and checks the communication state and radio wave quality of the call and the LCD screen. We confirmed at the radio wave level and responded by writing on a map.
[0003]
However, the environment is changing every day due to the rapid increase in the number of mobile phone subscribers, the construction and demolition of buildings, and the like. Under these circumstances, the manual measurement survey by the investigator took time and made mistakes. Also, in order to accurately measure the current radio wave quality in response to changes in the environment, a considerable number of investigators were required, and the subsequent aggregation of data required a great deal of labor. .
[0004]
As a measure for improving such a manual measurement survey, for example, a vehicle-mounted radio wave quality measuring device using a car navigation system and a general-purpose personal computer has been developed and used. This device controls the general-purpose personal computer to make a call to the mobile phone connected to it, and measures the communication status (eg, successful call, normal disconnection, abnormal disconnection, busy, out of service area, etc.) and radio wave quality at that time. Then, the measured values are recorded on a map received by the car navigation system.
[0005]
This measurement device has the advantages of automatically recording the measured value of radio wave quality at a given point and the fact that the movement is by car so that the range of action is widened. Efficiency was improved. However, the configuration of the measuring device is large because a general-purpose personal computer controls the call origination and measurement of the mobile phone. In addition, the driver and the researcher who operates the personal computer must be on the specific vehicle, and the researcher must constantly check whether the measuring device is operating normally. In addition, whenever there is a change in the measurement conditions, etc., the investigator must input the change from the keyboard of the personal computer. Furthermore, in order to cover a wide area, there is a problem that many specific vehicles and a considerable number of drivers and researchers are required in parallel.
[0006]
[Problems to be solved by the invention]
The problem to be solved by the present invention is to provide a mobile phone radio wave quality measurement device that automatically observes the communication state and radio wave quality of a mobile phone without requiring a number of specific vehicles and a large number of drivers and investigators. A radio wave quality measuring system and a radio wave quality measuring method are provided.
[0007]
[Means for Solving the Problems]
In order to achieve the above object, the radio wave quality monitoring device according to claim 1 is a radio wave quality monitoring device for a mobile phone mounted on a mobile body, wherein the main body portion and the mobile device connected to the main body portion are connected. An automatic detection unit for detecting a current position of a body, and at least one or more mobile phones connected to the main unit, wherein the main unit has at least one or more mobile phones for connecting to the mobile phone. Interface, as a measurement condition required to measure the radio wave quality of the mobile phone, Measurement start conditions for starting automatic measurement, measurement value transmission conditions for automatically transmitting measurement values, and measurement parameters for performing automatic measurement First storage means for storing, and calling control of the mobile phone connected to the mobile phone interface based on the measurement conditions stored in the first storage means, in a call process from a connection process to a subsequent call process. Measuring means for measuring communication conditions and radio wave quality;
A second storage unit that stores the radio wave quality measured by the measurement unit as a measurement value in association with current position information of the moving object detected by the automatic detection unit,
The mobile phone includes a unit that wirelessly receives the measurement condition, and a radio wave quality obtained as a result of calling control by the measurement unit of the main unit, via the mobile phone interface of the main unit. Means for outputting to the measuring means;
Means for wirelessly transmitting the measured values stored in the second storage means of the main body unit based on the measurement conditions stored in the first storage means.
[0008]
The radio wave quality monitoring device for a mobile phone according to claim 2 is the radio wave quality measurement device for a mobile phone according to claim 1, wherein the moving object is a taxi, a bus, a truck, a railway, a general business vehicle, or the like. Or any combination thereof.
[0009]
The radio wave quality monitoring system for a mobile phone according to claim 3, wherein the data collection center is wirelessly connected to at least one or more moving objects that travel in various places. The collection center includes, as measurement conditions for monitoring the radio wave quality of the mobile phone, measurement condition setting means for setting measurement start conditions, measurement value transmission conditions, and measurement parameters, and measurement conditions set by the measurement condition setting means. A measuring condition transmitting means for transmitting to the moving body, and a means for receiving from the moving body a measured value measured based on the measuring condition transmitted by the measuring condition transmitting means, the moving body includes An automatic detection unit for detecting a current position, at least one or more mobile phones, and a measurement condition transmitting unit of the data collection center via the mobile phones; Means for receiving measurement conditions, first storage means for storing the received measurement conditions, and calling of the cellular phone based on the measurement start conditions and measurement parameters of the measurement conditions stored in the first storage means A measuring means for controlling and measuring the communication state and the radio wave quality in the subsequent call process from the connection process, and storing the radio wave quality measured by the measuring means in association with the current position information detected by the automatic detection unit. And a measurement value transmission unit for transmitting the measurement value stored in the second storage unit to the data collection center based on the measurement value transmission condition of the measurement condition stored in the first storage unit. It is characterized by having means.
[0010]
The radio wave quality monitoring system for a mobile phone according to claim 4 is the radio wave quality monitoring system for a mobile phone according to claim 3, wherein the data collection center collects and analyzes a measurement value received from the mobile body. It is characterized by having analysis means for performing the analysis.
[0011]
The radio wave quality monitoring system for a mobile phone according to claim 5 is the radio wave quality monitoring system for a mobile phone according to claim 3 or 4, wherein the moving object is a taxi, a bus, a truck, a railway, a general business. It is characterized in that it is any one of the transportation media having another purpose such as a car or a combination thereof.
[0012]
The radio wave quality monitoring method for a mobile phone according to claim 6 is a method for automatically monitoring the radio wave quality of a mobile phone in a wide range, wherein the radio wave quality monitoring method according to claim 1 is applied to a plurality of mobile objects. Installing a quality monitoring device, and connecting a measurement start condition, a measurement value transmission condition, and a measurement parameter as a measurement condition to each of the radio wave quality monitoring devices mounted on each of the moving objects from the data collection center to the radio wave quality monitoring device. Setting via a set mobile phone, a step in which each of a plurality of moving objects equipped with the radio wave quality monitoring device starts moving, and the radio wave quality monitoring device detects a value corresponding to each of the measurement start conditions. Starting the measurement based on the measurement parameter and storing the measured value, and storing the measured value in the radio wave quality monitoring device. Transmitting a value corresponding to the fixed value transmission condition to the data collection center via the mobile phone, wherein the data collection center includes a radio wave quality monitor mounted on the plurality of mobile objects. It is characterized in that measurement values of a wide range received from the device are automatically collected and accumulated.
[0013]
The method for monitoring radio wave quality of a mobile phone according to claim 7 is the method for monitoring radio wave quality of a mobile phone according to claim 6, wherein the moving object is a taxi, a bus, a truck, a railway, a general business vehicle, or the like. Or any combination thereof.
[0015]
BEST MODE FOR CARRYING OUT THE INVENTION
An embodiment of the present invention will be described in detail with reference to FIGS.
[0016]
【Example】
FIG. 1 is a diagram showing a configuration of a radio wave quality measuring device for a mobile phone according to Embodiment 1 of the present invention.
[0017]
As shown in FIG. 1, the radio wave quality measuring device 4 is connected to a main body 1, an automatic detection mechanism (eg, GPS) 2 for a current position, and a mobile phone 3 to the main body 1. The mobile phone 3 is a mobile phone for data collection for measuring radio wave quality, and is either a PDC (Personal Digital Cellular) compatible mobile phone or a CDMA (Code Division Multiple Access) compatible mobile phone. A mobile phone can be connected. Further, the mobile phone 3 has a function of receiving the setting of the measurement condition for measuring the radio wave quality from the communication terminal 62 of the data collection center 6 located at a remote place, and the function of receiving the measured value from the communication terminal 62 of the data collection center 6. And a function of a data communication terminal for transmitting data to the terminal. Further, the main body 1 is provided with a charging connector 5.
[0018]
Next, as shown in FIG. 2, the main unit 1 includes a control unit 10 including a CPU, a memory 11 for storing measurement conditions and measured values, a mobile phone interface 12 to which the mobile phone 3 is connected, A GPS interface 13 and a battery power supply 14 are provided. The mobile phone interface 12 is used for PDC or CDMA depending on the method of the mobile phone 3 to be measured, and performs signal conversion according to each method to exchange signals with the control unit.
[0019]
The control unit 10 automatically controls the calling and disconnection of the mobile phone 3 based on the call on / off operation command based on the measurement condition, detects the communication state from the mobile phone 3, and stores the communication point in the memory 11 at the measurement point. And recording in association with the measurement time.
[0020]
The memory 11 stores the measurement conditions received from the communication terminal 62 of the data collection center 6 and the detected measurement values. The control unit 10 transmits the measurement values stored in the memory 11 from the mobile phone interface 12 to the communication terminal 62 of the data collection center 6 based on the measurement value transmission conditions based on the measurement conditions. The personal computer 61 of the data collection center 6 that has received the measured values processes the data, and as a result, the measurement results as shown in FIG.
[0021]
FIGS. 3 and 4 are drawings relating to the setting and updating of each measurement condition performed by the personal computer 61 of the data collection center 6. FIG. 3 is an example of a screen display for setting / updating measurement start conditions and measurement value transmission conditions. The measurement start conditions include, for example, a time specification, a point specification, and a call specification. When the measurement start condition is set to a certain time, the measurement is started when the current time reaches the set measurement start time. When the measurement start condition is set to a fixed point designation, the measurement is started when the current position data detected by the GPS 2 reaches the set measurement start point. When the measurement start condition is set to call designation, the measurement is started by a call from the communication terminal 62 of the data collection center 6.
[0022]
The measurement value transmission condition sets the timing of transmitting the measurement value stored in the memory 11 to the communication terminal 62 of the data collection center 6, and includes, for example, time specification, point number specification, and outgoing call. Some are designated and some are designated by events. When the measurement value transmission condition is set to a certain time, the measurement value stored in the memory 11 is transmitted when the current time reaches the set measurement value transmission time. When the measurement value transmission condition is set to the maximum number of points, the measurement value stored in the memory 11 is transmitted when the number of points stored in the memory 11 reaches this value. When the measurement value transmission condition is set to call designation, a call from the communication terminal 62 of the data collection center 6 causes the measurement value stored in the memory 11 to be transmitted. If the measurement value transmission condition is set to event designation, the measurement value stored in the memory 11 is transmitted when a specific event occurs. The event may be, for example, a case where an abnormal radio wave level is set and transmission is performed when this level continues.
[0023]
In this embodiment, for the sake of convenience, the measurement start condition and the measurement value transmission condition will be described in a form in which only one item is set for each item. However, each condition can be set multiple times, and a combination of these conditions can be set. It is also possible.
[0024]
FIG. 4 is an example of a screen display for setting and updating measurement parameters. As the measurement parameters, for example, the setting of the transmission number, the measurement time, the rest time, the number of repetitions, and the measurement position (latitude and longitude) are set. The calling number is a number that is called from the mobile phone 3, and is set to a number that does not interfere with the measurement, such as “117”. It is possible to set and select a plurality of transmission numbers. The measurement time indicates one call time, and a predetermined value within 10 to 60 seconds is set. For example, if "10 seconds" is set, a call is made for 10 seconds and then disconnected. The transmission interval indicates a time period during which the mobile phone is in a standby state after being disconnected, and a predetermined value within 10 to 30 seconds is set. For example, if "10 seconds" is set, a rest time of 10 seconds is taken.
[0025]
The number of repetitions is for setting how many times the combination of the talk time and the rest time is measured repeatedly, and a predetermined value within 1 to 5 times is set. For example, if "3 times" is set, the call is disconnected after a 10-second call, then a 10-second rest period is set, then a 10-second call, a disconnect, a 10-second rest, a 10-second call, a disconnect, a 10-second rest, etc. Is repeated three times. The measurement position (latitude, longitude) is to set a designated measurement point in advance. For example, a plurality of latitudes such as “N32 / 00 / 56.0001” and a longitude “E131 / 24 / 07.001” are used. Set points. By doing so, when the measurement start condition is set to point designation, the current position data detected by GPS2 is the latitude “N32 / 00 / 56.0001” and the longitude “E131 / 24 / 07.001 ", the detection is the measurement start condition, and the measurement is started. The latitude and longitude may be set by directly inputting numerical values, or may be set by referring to map data using the map display button 43.
[0026]
The setting and updating of these measurement conditions are stored in the personal computer 61 of the data collection center 6 by pressing the save buttons 31 and 41 and the setting transmission buttons 32 and 42 in the screen displays of FIGS. The data is transmitted from the communication terminal 62 to the mobile phone 3 and written into the memory 11 by the control unit 10. As long as the power switch of the radio wave quality measuring device 4 is ON, these settings and changes can be made before mounting the radio wave quality measuring device 4 on a car, before mounting the radio wave quality measuring device 4 and before starting measurement. , During the measurement and at any time after the end of the measurement.
[0027]
Next, the operation of the radio wave quality measuring system for a mobile phone according to the present embodiment will be described with reference to FIGS. FIG. 5 is a flowchart illustrating a processing procedure of the radio wave quality measuring system for a mobile phone according to the embodiment of the present invention.
[0028]
Referring to FIG. 5, in step ST1, measurement conditions (measurement start conditions, measurement value transmission conditions, measurement parameters) are set by the personal computer 61 of the data collection center 6 at the time of initial setting before the start of measurement. The set measurement conditions are transmitted to the mobile phone 3 via the communication terminal 62 of the data collection center 6 and stored in the memory 11 by the control unit 10. The meaning and setting method of the measurement conditions are as described above. In this case, the measurement start condition is point designation, the measurement value transmission condition is time designation “00: 00: 00: 00”, and the transmission number of the measurement parameter is “117”. , The measurement time is “10 seconds”, the transmission interval is “10 seconds”, the number of repetitions is “3 times”, and the measurement position (latitude, longitude) has 200 designated measurement points. .
[0029]
The radio wave quality measuring device 4 initially set by the data collection center 6 is mounted on a trunk of a car 6a of a taxi company contracted in advance as shown in FIG.
[0030]
After confirming that the power switch of the radio wave quality measuring device 4 is in the ON state, the taxi driver gets on board for his business and starts driving. As shown in FIG. 7, the car 6a moves to various places according to the destination of the occupant. With this movement, the GPS 2 constantly outputs the current position data to the control unit 10.
[0031]
In step ST2, the control unit 10 determines whether the current position data or the current time corresponds to the measurement start condition stored in the memory 11, or the measurement start condition is transmitted from the communication terminal 62 of the data collection center 6. When a call is set, the presence or absence of the call is monitored. In this case, since the measurement start condition is point designation, when the vehicle 6a moves to the latitude “N32 / 00 / 56.0001” and the longitude “E131 / 24 / 07.001” which are the first measurement points. , ST3.
[0032]
In step ST3, the control unit 10 retrieves the measurement parameters from the memory 11, repeats the transmission / pause of the mobile phone 3 a specified number of times, and measures the communication quality with the mobile phone antenna 71 installed in each place. . In this case, the transmission 10 seconds and the pause 10 seconds are repeated three times.
[0033]
In step ST4, the control unit 10 stores the measurement result in the memory 11. The memory 11 stores a series of progress from the point transmission, disconnection, network connection, interruption, and acquisition of received data. For example, in transmission, “CTM, time” and “SND, transmission number” are stored. In the disconnection, “DTM, time” is stored. In the network connection, “ONL, time” is stored. In the interruption, “STP, manual interruption” is stored. In the received data, “LVL, reception level”, “RSN, reason display value CC”, “RSN, reason display value RT”, “RSN, reason display value MM”, “ELS, [HexData], other information” are stored.
[0034]
A specific example of the content stored in the memory 11 is as follows. “PDC1, 001, N32 / 00 / 56.0001, E131 / 24 / 07.001” as measurement points, “CTM, 00080”, “SND, 117” as transmission, and “ELS, [D1] 12” as reception data LVL, -83 dBm or more, "ELS, [21], dial tone" are stored. Thereafter, “ELS, [35] 2620000001,” “ONL, network connection”, “ELS, [6A],” “LVL, * -83 dBm or more” is stored as the received data. Further, thereafter, "LVL, * -83 dBm or more", "LVL, * -83 dBm or more", "DTM, 000080", "LVL, * -83 dBm or more" are stored as received data.
[0035]
Next, in step ST5, the control unit 10 determines whether or not the measurement value transmission condition is satisfied. If the measurement value transmission condition is satisfied, the process proceeds to step ST6. If it does not correspond to the measurement value transmission condition, the process returns to step ST2 to monitor whether the next measurement start condition is satisfied, and if so, further measures the radio wave quality of the mobile phone 3 and stores it in the memory 11. Save.
[0036]
In step ST6, the control unit 10 transmits the measured values stored in the memory 11 from the mobile phone 3 to the communication terminal 62 of the data collection center 6, and deletes the measured values stored in the memory 11. In this case, since the measurement value transmission condition is the time specification “00: 00: 0”, the measurement value is transmitted when the current time becomes 00:00:00.
[0037]
In step ST7, it is monitored whether there is a change in the measurement condition from the data collection center 6. If there is a change in the measurement conditions, the process proceeds to step ST8. If there is no change in the measurement conditions, the process returns to step ST2 to monitor whether or not the next measurement start condition is satisfied. If so, the radio wave quality of the mobile phone 3 is further measured and stored in the memory 11. I will do it.
[0038]
In step ST8, the control unit 10 receives the changed measurement condition, overwrites and saves the measurement condition stored in the memory 11, returns to step ST2, and performs monitoring and measurement under the changed measurement start condition. To go.
[0039]
In this way, the measured values from all the vehicles owned by the contracted taxi company are transmitted to the data collection center 6 and accumulated. The stored measurement values are analyzed by an analysis program installed in the personal computer 61 of the data collection center 6. For example, as shown in FIG. 14, a personal computer screen displays a latitude / longitude display or a map display showing the survey points, a display field of the measurement data of the mobile phone 3, and a lower part of the screen. By operating each button of "Statistical data", "Graph display (RSSI)", "Graph display (success rate)", and "Graph display (access time)", as shown on the left end, the comparison statistical graph by region is displayed. It can be displayed.
[0040]
In this embodiment, the case where the radio wave quality measuring device 4 is mounted on the car owned by the taxi company has been described. However, as shown in FIGS. 81, a bus 82 of a route bus company, a car 83 used by a salesperson of a sales office, a car 84 used by a maintenance staff of a maintenance service center, and the like. It is possible, and as shown in FIG. 9, it is also possible to carry it by a person by reducing the size. By integrating the measured values from the plurality of moving bodies, it becomes possible to perform a wider range of measurement survey automatically without requiring a specific vehicle or a researcher.
[0041]
In addition, since it can be regularly installed on route buses, etc., it is possible to conduct regular measurement surveys, so detailed measurements such as surveys at the same place at different times and surveys at the same place on different days of the week at the same time. Survey analysis becomes possible.
[0042]
FIG. 10 is a diagram showing a configuration of a radio wave quality measuring device for a mobile phone according to Embodiment 2 of the present invention. As shown in FIG. 10, a radio wave quality measuring device 4 according to the second embodiment includes a main body 1, an automatic detection mechanism (eg, GPS) 2 for the current position, and mobile phones 3a to 3e. Multiple units are connected. The mobile phone 3e receives the setting of the measurement condition for measuring the radio wave quality from the communication terminal 62 of the data collection center 6 located at a remote place, and transmits the measured value to the communication terminal 62 of the data collection center 6. It is a data communication terminal. The mobile phones 3a to 3d are data collection mobile phones for measuring radio wave quality. For example, 3a to 3c are different from PDC mobile phones and 3d are CDMA mobile phones. Multiple mobile phones can be connected to the business.
[0043]
Next, as shown in FIG. 11, a control unit 10 having a CPU, a memory 11 for storing measured values, and five mobile phone interfaces 12a to 5 to which the mobile phones 3a to 3e are connected are provided in the main body unit 1. 12 e, a GPS interface 13, and a battery power supply 14. Of the mobile phone interfaces 12a to 12d corresponding to the data collection mobile phones 3a to 3d, 12a to 12c are for PDC and 12d are for CDMA, and perform signal conversion in accordance with the respective systems. It exchanges signals with the control unit 10. With this configuration, a plurality of mobile phones of different operators can be measured and investigated at once.
[0044]
As Embodiment 3 of the present invention, as shown in FIGS. 12 and 13, 3d which is one of the mobile phones 3a to 3d for data collection for measuring the radio wave quality is used in the present invention. As in Embodiment 1, both data collection and data communication for receiving measurement conditions and transmitting measurement values can be made to function.
[0045]
Further, in the first to third embodiments, the configuration has been described in which the main body 1 and the automatic detection mechanism (eg, GPS) 2 are separated from each other, but the automatic detection mechanism 2 may be built in the main body 1. Is also possible. Further, if the automatic detection mechanism 2 is constituted by the mobile phone 3 having the built-in mechanism, the automatic detection mechanism is not required.
[0046]
【The invention's effect】
As described above, the radio wave quality measuring device, the radio wave quality measuring system, and the radio wave quality measuring method of the mobile phone according to the present invention have frequently traveled around the country without dispatching a specific vehicle and a researcher. By mounting the radio wave quality measuring device 4 of the present invention on moving means such as taxis, trucks, buses, general business vehicles, and human beings, these moving bodies are completely conscious of radio wave quality measurement. By simply moving based on one's own purpose without performing the above, it is possible to automatically measure the radio wave quality of the mobile phone over a wide range and collect and analyze the measured values.
[Brief description of the drawings]
FIG. 1 is an explanatory diagram showing a configuration of a first embodiment of the present invention.
FIG. 2 is a diagram showing a configuration of a main body according to the first embodiment of the present invention.
FIG. 3 is a screen display example of the present invention.
FIG. 4 is a screen display example of the present invention.
FIG. 5 is a flowchart illustrating a processing procedure of the radio wave quality measuring system for the mobile phone according to the embodiment of the present invention.
FIG. 6 is a diagram showing an embodiment of the present invention.
FIG. 7 is a diagram showing an embodiment of the present invention.
FIG. 8 is a diagram showing an embodiment of the present invention.
FIG. 9 is a diagram showing an embodiment of the present invention.
FIG. 10 is a diagram showing a configuration of a second embodiment of the present invention.
FIG. 11 is a diagram showing a configuration of a main body according to the second embodiment of the present invention.
FIG. 12 is a diagram showing a configuration of a third embodiment of the present invention.
FIG. 13 is a diagram showing a configuration of a main body according to the third embodiment of the present invention.
FIG. 14 is a screen display example of the present invention.
[Explanation of symbols]
1 Body
10 control unit
11 Memory
12 Mobile phone interface
13 GPS Interface
14 Battery Power
2 GPS
3, 3a-3e mobile phone
4 Radio wave quality measuring device
5 Connector for charging
6 Data Collection Center
61 PC
62 communication terminal
71 Antenna

Claims (7)

In a radio wave quality monitoring device for a mobile phone to be mounted on a mobile object,
Body part,
An automatic detection unit that detects a current position of the moving object connected to the main body unit;
And at least one or more mobile phones connected to the main body,
The main unit includes at least one or more mobile phone interfaces for connecting to the mobile phone,
As measurement conditions necessary for measuring the radio wave quality of the mobile phone, a measurement start condition for starting automatic measurement, a measurement value transmission condition for automatically transmitting a measurement value, and A first storage unit for storing measurement parameters, and calling control of the mobile phone connected to the mobile phone interface based on the measurement conditions stored in the first storage unit, and after the connection process, Measuring means for measuring the communication state and radio wave quality during the call process;
A second storage unit that stores the radio wave quality measured by the measurement unit as a measurement value in association with current position information of the moving object detected by the automatic detection unit,
The mobile phone includes a unit that wirelessly receives the measurement condition, and a radio wave quality obtained as a result of calling control by the measurement unit of the main unit, via the mobile phone interface of the main unit. Means for outputting to the measuring means;
Means for wirelessly transmitting the measured values stored in the second storage means of the main body based on the measurement conditions stored in the first storage means. 2. The radio wave quality according to claim 1, wherein the moving object is any one of a transportation medium having another purpose, such as a taxi, a bus, a truck, a railroad, and a general business vehicle, or a combination thereof. Monitoring device. What is claimed is: 1. A radio wave quality monitoring system for a mobile phone, comprising: a data collection center and at least one or more moving objects traveling in various places connected wirelessly; Measurement condition setting means for setting measurement start conditions, measurement value transmission conditions, and measurement parameters as conditions; measurement condition transmission means for transmitting the measurement conditions set by the measurement condition setting means to the mobile object; Means for receiving a measurement value measured based on the measurement condition transmitted by the condition transmitting means from the mobile object, wherein the mobile object includes an automatic detection unit for detecting a current position, and at least one mobile phone. A telephone, means for receiving the measurement condition from the measurement condition transmitting means of the data collection center via the mobile phone, and storing the received measurement condition. A first storage unit for performing a call control of the mobile phone based on a measurement start condition and a measurement parameter of a measurement condition stored in the first storage unit, and a communication state and a radio wave quality in a connection process and a subsequent call process. And a second storage unit for storing the radio wave quality measured by the measurement unit in association with the current position information detected by the automatic detection unit. A radio wave quality monitoring system for a mobile phone, comprising: a measurement value transmitting unit that transmits a measurement value to the data collection center based on a measurement value transmission condition of a measurement condition stored in the first storage unit. . 4. The system according to claim 3, wherein the data collection center includes an analysis unit that collects and analyzes the measurement values received from the mobile object. 5. The mobile object according to claim 3, wherein the moving object is any one of transportation media having another purpose, such as a taxi, a bus, a truck, a railroad, and a general business vehicle, or a combination thereof. 6. Radio wave quality monitoring system for mobile phones. A method for automatically monitoring the radio wave quality of a mobile phone in a wide area, comprising: mounting the radio wave quality monitoring device according to claim 1 on a plurality of mobile bodies; Setting measurement start conditions, measurement value transmission conditions, and measurement parameters as measurement conditions for each of the obtained radio wave quality monitoring devices from a data collection center via a mobile phone connected to the radio wave quality monitoring device; A plurality of mobile units each equipped with a monitoring device to start moving, and when the radio wave quality monitoring device detects a value corresponding to each of the measurement start conditions, starts measurement based on the measurement parameter and performs measurement. Storing the value, the stored measurement value, when the radio wave quality monitoring device detects a value corresponding to each measurement value transmission conditions, the Transmitting to the data collection center via a mobile phone, the data collection center automatically receives a measurement value of a wide area received from a radio wave quality monitoring device mounted on the plurality of mobile units. A radio wave quality monitoring method for a mobile phone, wherein the radio wave quality is collected and stored. 7. The mobile phone according to claim 6, wherein the moving object is any one of a transportation medium having another purpose, such as a taxi, a bus, a truck, a railway, and a general business vehicle, or a combination thereof. Radio quality monitoring method.

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