JP5960219B2 - Parameter setting apparatus, parameter setting method, and mobile terminal test apparatus - Google Patents

Description

The present invention relates to a parameter setting device , a parameter setting method, and a mobile terminal test device for setting parameters such as a measuring instrument.

  Conventionally, as in the technique proposed in Patent Document 1, a technique for displaying a parameter setting window on a screen of a display device and setting parameters on the displayed window has been proposed.

JP-A-6-314087 (FIG. 2 (b))

  However, when such a conventional technique is applied to an apparatus that refers to various parameters such as a measuring instrument, the value of the parameter set for each parameter is outside the setting range of each parameter. It was necessary to cause the user to reset the parameters by issuing a warning. As described above, the conventional technique has a problem that it places a burden on the user when setting parameters.

The present invention has been made to solve such problems, and provides a parameter setting device , a parameter setting method, and a mobile terminal test device that can reduce the burden on the user when setting parameters. The purpose is to do.

The parameter setting device according to the present invention includes a display control unit (24) for displaying on the display device (21) a parameter setting screen representing at least an operator (53 to 57) for setting a parameter value, and the operation described above. An operation detection unit (22) for detecting an operation on the child;
An input value specifying unit (42) for specifying an input value of the parameter according to an operation detected by the operation detecting unit, and the input value specifying unit is based on the specified input value of the parameter , then disabling the operation on the manipulated when previous parameter setting range become operator, the display control unit by the input value identification unit can identify the operator that is invalidated and operations other operators To display on the display device.

  With this configuration, the parameter setting device of the present invention can invalidate the operation of setting the parameter input value outside the setting range and can identify that the operation of setting the parameter input value outside the setting range is invalid. Since the operation element is displayed on the display device, it is possible to prevent the parameter value from being set outside the setting range.

  Therefore, the parameter setting device of the present invention can set the parameter value without burdening the user to reset the parameter, thereby reducing the burden on the user when setting the parameter. can do.

The display control unit causes the display device to display buttons (55, 56) for selecting a numerical value and a unit as the operation elements, and an operation representing the unit whose operation is invalidated by the input value specifying unit. it may be displayed before Symbol display device so that the child can identify with the other operator.

  With this configuration, the parameter setting device of the present invention can invalidate the operation of setting the parameter input value outside the setting range and can identify that the operation of setting the parameter input value outside the setting range is invalid. Since the operator for setting the parameter unit is displayed on the display device, it is possible to prevent the parameter value from being set outside the setting range.

The mobile terminal test apparatus according to the present invention includes a display device (21), the parameter setting device described above, and a test execution unit (11) that performs a test of the mobile terminal based on information including the parameters. In the mobile terminal test apparatus, the test execution unit tests the mobile terminal based on the parameter information set by the parameter setting apparatus.
The parameter setting method of the present invention is a parameter setting method for setting a parameter by a parameter setting device, and displays a parameter setting screen at least representing an operator for setting the value of the parameter. A display control step for displaying the operation element, an operation detection step for detecting an operation on the operation element, and an input value specifying step for specifying the input value of the parameter according to the operation detected in the operation detection step. and, wherein the input value specifying step, based on the input value of the parameter identified, then disabling the operation of the setting range become operator of the parameter to be operated, in the display control step, the input value displayed identifiably the display operation element which is disabling the operation at a specific step to other operators To.

  As described above, the parameter setting method of the present invention makes it possible to identify that the operation of setting the parameter input value outside the setting range is invalid and that the operation of setting the parameter input value outside the setting range is invalid. Since the operator is displayed on the display device, it is possible to prevent the parameter value from being set outside the setting range.

  Therefore, the parameter setting method of the present invention can set the parameter value without burdening the user to reset the parameter, thereby reducing the burden on the user when setting the parameter. can do.

The present invention can provide a parameter setting device , a parameter setting method, and a mobile terminal test device that can reduce the burden on the user when setting parameters.

FIG. 1 is a block diagram of a mobile terminal test apparatus according to an embodiment of the present invention. FIG. 2 is a conceptual diagram showing a hierarchical relationship of parameters referred to by the mobile terminal test apparatus according to the embodiment of the present invention. FIG. 3 is a conceptual diagram following FIG. FIG. 4 is a schematic diagram of the main window in the first display control state displayed by the mobile terminal test apparatus according to the embodiment of the present invention. FIG. 5 is a schematic diagram of the main window in the second display control state displayed by the mobile terminal test apparatus according to the embodiment of the present invention. FIG. 6 is a schematic diagram showing a part of the first display area of the main window shown in FIG. FIG. 7A is a schematic diagram showing a list image that is scrolled in the image display area in the first display area of the main window shown in FIG. 4, and FIG. 7B is a boundary in the image display area. FIG. 7C is a schematic diagram showing a list image in which scrolling is restricted within the image display area, and FIG. It is a schematic diagram which shows the list image in which the scroll is further controlled within the area. FIG. 8A is a schematic diagram showing a list image scrolled in the image display area in the first display area of the main window shown in FIG. 4, and FIG. 8B is a boundary in the image display area. FIG. 8C is a schematic diagram showing a list image in which scrolling is restricted in the image display area, and FIG. 8D is an image display. It is a schematic diagram which shows the list image in which the scroll is further controlled within the area. FIG. 9A is a schematic diagram showing a state before the parameter items constituting the list displayed in the first display area of the main window shown in FIG. 4 are changed, and FIG. FIG. 9C is a schematic diagram showing a state after an item has been changed, and FIG. 9C is a schematic diagram showing a state after the parameter item has been changed. FIG. 10 is a first schematic diagram of a parameter setting screen displayed by the mobile terminal test apparatus according to the embodiment of the present invention. FIG. 11 is a second schematic diagram of a parameter setting screen displayed by the mobile terminal test apparatus according to the embodiment of the present invention. FIG. 12 is a third schematic diagram of a parameter setting screen displayed by the mobile terminal test apparatus according to the embodiment of the present invention. FIG. 13 is a schematic diagram of a parameter extraction screen displayed by the mobile terminal test apparatus according to the embodiment of the present invention.

  Embodiments of the present invention will be described below with reference to the drawings. In the present embodiment, an example in which the parameter setting apparatus of the present invention is applied to a mobile terminal test apparatus for testing a mobile terminal will be described.

  As shown in FIG. 1, the mobile terminal test apparatus 1 transmits and receives signals to and from the mobile terminal 2 by wire via a coaxial cable or the like. The mobile terminal test apparatus 1 may transmit and receive signals to and from the mobile terminal 2 wirelessly via an antenna.

  The mobile terminal test apparatus 1 includes a test information storage unit 10 in which information including a scenario and parameters for executing a test of the mobile terminal 2 is stored, and a mobile terminal based on the information stored in the test information storage unit 10 Parameters for managing parameters stored in the test information storage unit 10, a test execution unit 11 that executes the test 2, a communication unit 12 that communicates with the mobile terminal 2 according to the test executed by the test execution unit 11 And a management unit 14.

  In addition, the mobile terminal test apparatus 1 includes an input device 20 configured with a touch pad, a display device 21 configured with a liquid crystal display device, an operation detection unit 22 that detects an operation performed on the input device 20, and It further includes an operation execution unit 23 that executes processing according to the operation detected by the operation detection unit 22, and a display control unit 24 that controls the display device 21.

  Here, the mobile terminal test apparatus 1 is configured by a computer apparatus (not shown) provided with a communication module for communicating with the mobile terminal 2. Each of the computer devices includes a CPU (Central Processing Unit), a ROM (Read Only Memory), a RAM (Random Access Memory), a hard disk device, an input / output port, and a touch panel (not shown).

  The ROM and the hard disk device of this computer device store a program for causing the computer device to function as the mobile terminal test device 1. That is, when the CPU executes a program stored in the ROM using the RAM as a work area, the computer apparatus functions as the mobile terminal test apparatus 1.

  As described above, in the present embodiment, the test information storage unit 10 is configured by a RAM or a hard disk device, and the test execution unit 11, the parameter management unit 14, the operation detection unit 22, the operation execution unit 23, and the display control unit 24 include The communication unit 12 includes a communication module.

  Further, the input device 20 and the display device 21 are integrally configured by a touch panel 25. That is, the image displayed on the display device 21 by the display control unit 24 constitutes a user interface for inputting information in cooperation with the input device 20 in addition to representing information.

  The parameters stored in the test information storage unit 10 are hierarchized and managed by the parameter management unit 14. That is, the parameter management unit 14 updates and reads out the values of the parameters stored in the test information storage unit 10.

  As shown in FIGS. 2 and 3, the parameters of the first layer in the present embodiment are classified into “Common”, “Call Processing”, “TX Measurement Setup”, “RX Measurement Setup”, and “Fundamental Measurement”. ing. 2 and 3 are partly omitted for easy understanding of the invention.

  In FIG. 2, “Common” represents a group of parameters related to general communication as a first layer parameter, and includes “Frequency”, “Level”, “Signal”, and “UL RMC” parameters. .

  “Frequency” represents a group of parameters related to communication frequency as parameters of the second layer classified as “Common”. “Frame Structure”, “Channel Bandwidth”, “UL Channel”, “DL Channel”, “UL Each parameter of “Frequency”, “DL Frequency” and “Operation Band” is included.

  “Frame Structure” represents a duplex mode as a parameter of the third layer classified as “Frequency”, and in this embodiment, “FDD” (Frequency Division Duplex) and “TDD” (Time Division Duplex). It is selected from the inside. The initial value of “Frame Structure” is set to “FDD”.

  “Channel Bandwidth” represents a channel bandwidth as a parameter of the third layer classified as “Frequency”, and is “1.4 MHz”, “3 MHz”, “5 MHz”, “10 MHz”, “15 MHz”, and “20 MHz”. Is selected from. The initial value of “Channel Bandwidth” is set to “5 MHz”.

  “UL Channel” indicates the uplink (link from the mobile terminal 2 to the mobile terminal test apparatus 1) channel as a third layer parameter classified as “Frequency”, and is set to “0” to “65535”. A range is specified. The initial value of “UL Channel” is set to “18300”.

  “DL Channel” indicates a downlink (link from the mobile terminal test apparatus 1 to the mobile terminal 2) as a third layer parameter classified as “Frequency”, and is set to “0” to “65535”. A range is specified. The initial value of “DL Channel” is set to “300”.

  “UL Frequency” represents a downlink frequency as a third layer parameter classified as “Frequency”, and a setting range of “0.400000 MHz” to “2700.000000 MHz” is defined. Note that the initial value of “UL Frequency” is set to “195.000000 MHz”.

  “DL Frequency” represents an uplink frequency as a third layer parameter classified as “Frequency”, and a setting range of “0.400000 MHz” to “2700.000000 MHz” is defined. The initial value of “DL Frequency” is set to “2140.000000 MHz”.

  “Operation Band” represents an operation band as a parameter of the third layer classified as “Frequency”, and a setting range of “1” to “43” is defined. The initial value of “Operation Band” is set to “1”.

  “Level” represents a group of parameters related to the communication level as parameters of the second layer classified as “Common”. “Input Level”, “Output Level”, “External Loss”, “Main UL”, “Main” Each parameter of “DL” and “AUX” is included.

  “Input Level” represents the level of the RF signal input to the mobile terminal 2 as a third layer parameter classified as “Level”, and a setting range of “−65.0 dBm” to “+35.0 dBm” is defined. Has been. The initial value of “Input Level” is set to “−1.0 dBm”.

  “Output Level” represents the sum of the output levels of all channels as a parameter of the third layer classified as “Level”, and a setting range of “−120.0 dBm” to “−10.0 dBm” is defined. ing. The initial value of “Output Level” is set to “−60.2 dBm”.

  “External Loss” represents an external loss state as a parameter of the third layer classified as “Level”, and is selected from “ON”, “OFF”, and “COMMON”. The initial value of “External Loss” is set to “OFF”.

  “Main UL” represents the uplink offset value of the main connector as a third layer parameter classified as “Level”, and a setting range of “−99.0 dBm” to “+99.0 dBm” is defined. Yes. The initial value of “Main UL” is set to “0.0 dBm”.

  “Main DL” is a third-layer parameter classified as “Level” and represents a downlink offset value of the main connector, and a setting range of “−99.0 dBm” to “+99.0 dBm” is defined. Yes. The initial value of “Main DL” is set to “0.0 dBm”.

  “AUX” represents the offset value of the downlink of the spare connector as a third layer parameter classified as “Level”, and a setting range of “−99.0 dBm” to “+99.0 dBm” is defined. . The initial value of “AUX” is set to “0.0 dBm”.

  “Signal” represents a group of parameters related to a communication signal as a second layer parameter classified as “Common”, and includes parameters of “Channel Coding”, “Antenna Configuration”, and “DCI Format”.

  “Channel Coding” represents a channel configuration as a parameter of the third layer classified as “Signal”, and is selected from “RMC” (Reference Measurement Channel) and “Packet”. The initial value of “Channel Coding” is set to “RMC”.

  “Antenna Configuration” represents the antenna configuration as a third-layer parameter classified as “Signal”, “Single Antenna”, “Receiver Diversity”, “Transmit Diversity”, “2x2 MIMO (Open Loop)”, It is selected from “2 × 2 MIMO (Closed Loop Single Layer)” and “2 × 2 MIMO (Closed Loop Multi Layer)”. The initial value of “Antenna Configuration” is set to “Single Antenna”.

  “DCI Format” (Downlink Control Information Format) represents a format of a downlink control signal as a third layer parameter classified as “Signal”, and is selected from “1A” and “1”. The initial value of “DCI Format” is set to “1A”.

  “UL RMC” represents a group of parameters related to RMC of the uplink signal as a parameter of the second layer classified as “Common”, and “Number of RB”, “Starting RB”, “RB Pos.”, “ Each parameter of “MCS Index” and “Modulation” is included.

  “Number of RB” represents the number of RBs (Resource Blocks) to be allocated to uplink signals as a third layer parameter classified as “UL RMC”, and a setting range of “0” to “100” Is stipulated. The initial value of “Number of RB” is set to “25”.

  “Starting RB” represents the RB start number of the uplink signal as a third layer parameter classified as “UL RMC”, and a setting range of “0” to “99” is defined. The initial value of “Starting RB” is set to “0”.

  “RB Pos.” Represents a position to which RB is allocated in the uplink signal as a third layer parameter classified as “UL RMC”, and is selected from “MIN”, “MID”, and “MAX”. . The initial value of “RB Pos.” Is set to “MIN”.

  “MCS Index” represents an MSC (Mobile Switching Center) index of uplink signals as a third layer parameter classified as “UL RMC”, and a setting range of “0” to “28” is defined. Yes. The initial value of “MCS Index” is set to “5”. In addition, when a value such as “Modulation” is changed in “MCS Index”, the set value is changed in conjunction with it.

  “Modulation” represents the modulation method of the uplink signal as a third layer parameter classified as “UL RMC”, and is included in “QPSK” (Quadrature Phase Shift Keying) and “16 QAM” (16 Quadrature Amplitude Modulation). Selected from. The initial value of “Modulation” is set to “QPSK”. In addition, when a value such as “MCS Index” is changed in “Modulation”, the set value is changed in conjunction with it.

  “Call Processing” represents a group of parameters related to call connection as parameters of the first layer, and includes “Base Station Identity”, “Mobile Station Identity”, “Power Control”, and “BCCH / PCCH” parameters. Yes.

  “Base Station Identity” represents a group of parameters related to the identification information of the base station as parameters of the second layer classified as “Call Processing”, and includes “Cell ID”, “MCC”, “MNC”, and “TAC”. Each parameter is included.

  “Cell ID” represents an ID for identifying a cell as a third layer parameter classified as “Base Station Identity”, and a setting range of “0” to “503” is defined. The initial value of “Cell ID” is set to “0”.

  “MCC” represents a Mobile Country Code (MCI) of LAI (Local Area Identification) as a third layer parameter classified as “Base Station Identity”, and a setting range of “0” to “999” is defined. ing. The initial value of “MCC” is set to “1”.

  “MNC” represents a LAI MNC (Mobile Network Code) as a third layer parameter classified as “Base Station Identity”, and a setting range of “0” to “999” is defined. The initial value of “MNC” is set to “1”.

  “TAC” represents a LAC TAC (Tracking Area Code) as a third layer parameter classified as “Base Station Identity”, and a setting range of “0x0000” to “0xFFFF” is defined. The initial value of “TAC” is set to “0x0001”.

  “Mobile Station Identity” represents a group of parameters related to the identification information of the mobile terminal 2 as parameters of the second layer classified as “Call Processing”, and includes “Paging IMSI”, “C-RNTI”, “Temporary C-”. Each parameter includes “RNTI for Handover”, “Authentication”, “Authentication Algorithm”, “Authentication Key K”, “AMF”, and “Integrity Protection”.

  “Paging IMSI” represents a type of IMSI (International Mobile Subscriber Identity) to be transmitted to the mobile terminal 2 at the time of paging transmission, as a third layer parameter classified as “Mobile Station Identity”. “AUTO” and “FIX” Selected from. The initial value of “Paging IMSI” is set to “AUTO”.

  “C-RNTI” represents a C-RNTI (Cell-Radio Network Temporary Identifier) as a third layer parameter classified as “Mobile Station Identity”, and a setting range of “0x0001” to “0xFFF3” is defined. ing. Note that the initial value of “C-RNTI” is set to “0xAAAA”.

  “Temporary C-RNTI for Handover” represents a temporary C-RNTI used at the time of handover as a parameter of the third layer classified as “Mobile Station Identity”, and the setting range of “0x0001” to “0xFFF3” is It is prescribed. The initial value of “C-Temporary C-RNTI for Handover” is set to “0xAAAA”.

  “Authentication” represents whether or not to generate an authentication key as a third-layer parameter classified as “Mobile Station Identity”, and is switched between “ON” and “OFF”. Note that the initial value of “Authentication” is set to “ON”.

  “Authentication Algorithm” represents an algorithm for generating an authentication key as a third-layer parameter classified as “Mobile Station Identity”, and is selected from “XOR” and “MILENAGE”. The initial value of “Authentication Algorithm” is set to “XOR”.

  “Authentication Key K” represents the authentication key (Authentication Key) of the mobile terminal 2 represented by a 32-digit hexadecimal number as a third-layer parameter classified as “Mobile Station Identity”, and “0x00000000” to “ A setting range of “0xFFFFFFFF” is defined. The initial value of “Authentication Key K” is set to “0x112233”.

  “AMF” represents an AMF (Action Message Format) authentication key expressed as a 4-digit hexadecimal number as a third layer of parameters, and a setting range of “0x0000” to “0xFFFF” is defined. The initial value of “AMF” is set to “0x8000”.

  “Integrity Protection” represents C-plane Integrity Protection related to the exchange of information related to call control as a parameter of the third layer classified as “Mobile Station Identity”, and includes “OFF”, “NULL” and “SNOW3G”. It is selected from the inside. The initial value of “Integrity Protection” is set to “NULL”.

  “Power Control” represents a group of parameters related to power control as parameters of the second layer classified as “Call Processing”. “TPC Pattern”, “p-Max”, “p0-NominalPUSCH”, “additionalSpectrumEmission” , “FilterCoefficient” and “Power Control Offset” parameters.

  “TPC Pattern” represents an uplink TPC (Transmit Power Control) Pattern as a third layer parameter classified as “Power Control”, and includes “AUTO”, “ALLM1”, “ALL0”, “ALL1”, It is selected from “ALL3” and “ALT”. The initial value of “TPC Pattern” is set to “AUTO”.

  “P-Max” represents p-Max included in the SystemInformationBlockType1 message transmitted from the base station to the mobile terminal as a third layer parameter classified as “Power Control”, and is “−30” to “33”. The setting range is defined. The initial value of “p-Max” is set to “33”.

  “P0-NominalPUSCH” represents p0-NominalPUSCH included in a SystemInformationBlockType2 (hereinafter referred to as “SIB2”) message transmitted from the ground station to the mobile terminal as a third layer parameter classified as “Power Control”. A setting range of “−126” to “24” is defined. The initial value of “p0-NominalPUSCH” is set to “−85”.

  “AdditionalSpectrumEmission” represents additionalSpectrumEmission included in the SIB2 message as a third layer parameter classified as “Power Control”, and a setting range of “NS — 01” to “NS — 32” is defined. The initial value of “p0-NominalPUSCH” is set to “NS_01”.

  “FilterCoefficient” represents a filter coefficient as a third layer parameter classified as “Power Control”, and is selected from “FC4” and “FC8”. The initial value of “filterCoefficient” is set to “FC4”.

  “Power Control Offset” represents an offset value from the input level of the target level of the uplink controlled by TPC as a third layer parameter classified as “Power Control”. .0 "is specified. The initial value of “Power Control Offset” is set to “0.0”. “Power Control Offset” is referred to only when “TPC Pattern” is set to “AUTO”.

  “BCCH / PCCH” represents a group of parameters related to BCCH (Broadcast Control Channel) and PCCH (Paging Control Channel) as parameters of the second layer classified as “Call Processing”, and includes “modificationPeriodCoeff”, “defaultPagingCycle”, and Each parameter of “nB” is included.

  “ModificationPeriodCoeff” represents a modificationPeriodCoeff included in the SIB2 message as a third layer parameter classified as “BCCH / PCCH”, and is selected from “N2”, “N4”, “N8”, and “N16”. The The initial value of “modificationPeriodCoeff” is set to “N4”.

  “DefaultPagingCycle” represents the defaultPagingCycle included in the SIB2 message as a third layer parameter classified as “BCCH / PCCH”, and is selected from “32”, “64”, “128”, and “256”. The The initial value of “defaultPagingCycle” is set to “128”.

  “NB” represents nB included in the SIB2 message as a third layer parameter classified as “BCCH / PCCH”, and “4T”, “2T”, “T”, “T_2”, “T_4”, It is selected from “T_8”, “T_16”, and “T_32”. The initial value of “nB” is set to “T”.

  In FIG. 3, “TX Measurement Setup” represents a group of parameters relating to measurement related to transmission of the mobile terminal 2 as parameters of the first layer, and includes parameters of “Relative Power” and “Aggregate Power”.

  “Relative Power” represents a group of parameters related to the relative value of the transmission power set in the mobile terminal 2 as the second layer parameter classified in “TX Measurement Setup”, and includes “Measurement Method”, “Measurement Subframe”, Each parameter of “UL Number of RB 1” and “RB Change” is included.

  “Measurement Method” represents a measurement method at the time of Power Control Tolerance (Relative Power) measurement as a third layer parameter classified as “Relative Power”, and is selected from “AUTO” and “MANUAL”. The initial value of “Measurement Method” is set to “AUTO”.

  “Measurement Subframe” represents the number of measurement subframes during Power Control Tolerance (Relative Power) measurement as a parameter of the third layer classified as “Relative Power”, and the setting range of “2” to “100” is specified. Has been. The initial value of “Measurement Subframe” is set to “10”.

  “UL Number of RB 1” represents UL Number of RB-1 at the time of Power Control Tolerance (Relative Power) measurement as a parameter of the third layer classified as “Relative Power”, and “1” to “100”. The setting range is defined. The initial value of “UL Number of RB 1” is set to “1”.

  “RB Change” sets “UL Number of RB” as “Ramping Up” or “Ramping Down” of Relative Power as the parameter of the third layer classified as “Relative Power”. This represents a subframe to be changed from “UL Number of RB 1” to “UL Number of RB 2”, and a setting range of “0” to “99” is defined. The initial value of “RB Change” is set to “10”.

  “Aggregate Power” represents a group of parameters related to a reference value of transmission power set in the mobile terminal 2 as a second layer parameter classified as “TX Measurement Setup”, and includes a parameter of “Measurement Subframe”. .

  “Measurement Subframe” represents the number of measurement subframes at the time of Power Control Tolerance (Aggregate Power) measurement as a third layer parameter classified as “Aggregate Power”, and the setting range of “2” to “20” is specified. Has been. The initial value of “Measurement Subframe” is set to “5”.

  “RX Measurement Setup” represents a group of parameters related to measurement related to reception by the mobile terminal 2 as parameters of the first layer, and includes parameters of “Throughput” and “CQI”.

  “Throughput” represents a group of parameters relating to throughput as a parameter of the second layer classified as “RX Measurement Setup”, and includes parameters of “Number of Sample” and “Early Decision”.

  “Number of Sample” represents the number of samples for throughput measurement as a parameter of the third layer classified as “Throughput”, and a setting range of “1” to “99999999” is defined. The initial value of “Number of Sample” is set to “2000”.

  “Early Decision” represents the ON / OFF of Early Decision as a parameter of the third layer classified as “Throughput”, and is switched between “ON” and “OFF”. The initial value of “Early Decision” is set to “OFF”.

  Also, when “Early Decision” is set to ON, DL Throughput measurement ends when the Early Decision is reached, and when “Early Decision” is set to OFF, “Number of The number of samples set in “Sample” is measured.

  “CQI” represents a group of parameters relating to CQI (Channel Quality Indicator) as a second layer parameter classified as “RX Measurement Setup”, and is “Number of Sample”, “Range of Counting”, and “RX Measurement Timeout”. Each parameter of “Length” is included.

  “Number of Sample” represents the number of samples of CQI (Channel Quality Indicator) measurement as a third layer parameter classified as “CQI”, and a setting range of “1” to “9999” is defined. The initial value of “Number of Sample” is set to “2000”.

  “Range of Counting” represents a range in which CQI is counted as a third-layer parameter classified as “CQI”, and a setting range of “0” to “15” is defined. The initial value of “Range of Counting” is set to “3”.

  “RX Measurement Timeout Length” is a third layer parameter classified as “CQI” and represents a timeout time of reception measurement, and a setting range of “1 s” to “60 s” is defined. The initial value of “RX Measurement Timeout Length” is set to “10 s”.

  “Fundamental Measurement” represents a basic parameter group related to measurement as a first layer parameter, and includes a “General” parameter.

  “General” represents a group of general parameters as parameters of the second layer classified as “Fundamental Measurement”. “Power Measurement”, “Meas. Count”, “Power Template”, “Meas. Count” , “Occupied Bandwidth”, “Meas. Count”, “Spectrum Emission Mask”, “Meas. Count”, “Adjacent Channel Power”, “Meas. Count”, “Modulation Analysis”, “Meas. Count”, “Throughput” And “CQI” parameters.

  “Power Measurement” represents whether or not power measurement is performed as a parameter of the third layer classified as “General”, and is switched between “ON” and “OFF”. The initial value of “Power Measurement” is set to “ON”.

  “Meas. Count” following “Power Measurement” represents the number of times of power measurement as a third layer parameter classified as “General”, and a setting range of “1” to “1000” is defined. . The initial value of “Meas. Count” is set to “1”.

  “Power Template” represents whether or not Power Template measurement is performed as a parameter of the third hierarchy classified as “General”, and is switched between “ON” and “OFF”. The initial value of “Power Template” is set to “OFF”.

  “Meas. Count” following “Power Template” represents the number of times of measurement of Power Template measurement as a parameter of the third layer classified as “General”, and a setting range of “1” to “1000” is defined. Yes. The initial value of “Meas. Count” is set to “1”.

  “Occupied Bandwidth” represents whether or not the occupied bandwidth measurement is performed as a parameter of the third layer classified as “General”, and is switched between “ON” and “OFF”. The initial value of “Occupied Bandwidth” is set to “OFF”.

  “Meas. Count” following “Occupied Bandwidth” represents the number of measurements of occupied bandwidth as a parameter of the third layer classified as “General”, and a setting range of “1” to “1000” is defined. ing. The initial value of “Meas. Count” is set to “1”.

  “Spectrum Emission Mask” indicates whether or not spectrum emission mask (also referred to as “SEM”) measurement is performed as a parameter of the third layer classified as “General”, and is between “ON” and “OFF”. It can be switched with. The initial value of “Spectrum Emission Mask” is set to “OFF”.

  “Meas. Count” following “Spectrum Emission Mask” represents the number of times of SEM measurement as a parameter of the third layer classified as “General”, and a setting range of “1” to “1000” is defined. Yes. The initial value of “Meas. Count” is set to “1”.

  “Adjacent Channel Power” indicates whether or not adjacent channel leakage power (also referred to as “ACLR”) measurement is performed as a parameter of the third layer classified as “General”. Can be switched between. The initial value of “Adjacent Channel Power” is set to “OFF”.

  “Meas. Count” following “Adjacent Channel Power” represents the number of times of ACLR measurement as a parameter of the third layer classified as “General”, and a setting range of “1” to “1000” is defined. Yes. The initial value of “Meas. Count” is set to “1”.

  “Modulation Analysis” represents whether or not modulation analysis is performed as a parameter of the third layer classified as “General”, and is switched between “ON” and “OFF”. The initial value of “Modulation Analysis” is set to “ON”.

  “Meas. Count” following “Modulation Analysis” represents the number of times of analysis of modulation analysis as a parameter of the third layer classified as “General”, and a setting range of “1” to “1000” is defined. . The initial value of “Meas. Count” is set to “1”.

  “Throughput” represents whether or not to perform throughput measurement as a parameter of the third layer classified as “General”, and is switched between “ON” and “OFF”. The initial value of “Throughput” is set to “OFF”.

  “CQI” represents whether or not to perform CQI measurement as a third-layer parameter classified as “General”, and is switched between “ON” and “OFF”. The initial value of “CQI” is set to “OFF”.

  The above are typical parameters set in the mobile terminal test apparatus 1. Thus, since the mobile terminal test apparatus 1 has a large number of parameter types, that is, setting items, setting parameters in the mobile terminal test apparatus 1 is a very complicated operation for the user.

  As shown in FIGS. 4 and 5, the display control unit 24 displays the main window 30 on the display device 21. The main window 30 includes a first display area 31 and a second display area 32 that is wider than the first display area 31. The first display area 31 includes an image display area 35.

  The display control unit 24 controls the display contents of the first display area 31 and the second display area 32. In addition, the display control unit 24 takes one of the display states of the first display control state shown in FIG. 4 and the second display control state shown in FIG. 5 with respect to the main window 30.

  The operation execution unit 23 sets the display state of the display control unit 24 with respect to the main window 30 to the first state on condition that an operation on the display mode switching button 28 displayed in the first display area 31 is detected by the operation detection unit 22. Switching between the display control state and the second display control state is performed. The main window 30 in the first display control state shown in FIG. 4 and the main window 30 in the second display control state shown in FIG. 5 are different in selected parameters.

  In the first display control state shown in FIG. 4, the display control unit 24 hierarchically displays setting parameter items including parameter names and setting values set in the parameters, and group parameter items representing parameter groups. One display area 31 is displayed. Hereinafter, the setting parameter items and the group parameter items are collectively referred to simply as “parameter items”.

  The display control unit 24 displays the execution result of the process referring to the setting value set in the parameter in the second display area 32. Specifically, the display control unit 24 displays the test execution result by the test execution unit 11 with reference to the setting value set in the parameter in the second display area 32.

  The display control unit 24 causes the first display area 31 to display the group parameter items of the first hierarchy on the tab 33, and the first hierarchy corresponding to the tab 33 selected in the parameter group of the first hierarchy. The second level group parameter items (in FIG. 4, “Frequency”, “Level”, etc.) included in the group of parameters (“Common” in FIG. 4) are displayed in the list 34, and the second level The third level setting parameter items (such as “Frame Structure” in FIG. 4) included in the group selected from the parameters are displayed in the same list 34 as the second level group parameter items in the vertical direction. It is supposed to let you.

  In the present embodiment, the number of parameter item hierarchies has been described as three. However, the number of parameter item hierarchies may be four or more. In this case, the display control unit 24 recognizes that the hierarchy is different by changing the display mode of the parameter items in the continuous hierarchy in a list format in the parameter items in the upper hierarchy in the parameter items in the fourth hierarchy and later. It is configured to be displayed as follows.

  As described above, the display control unit 24 displays each parameter item constituting the list 34, that is, an image (hereinafter, also referred to as “list image”) configured by each parameter item in the second hierarchy or less in the image display area 35. To be displayed.

  As shown in FIG. 6, the display control unit 24 displays the parameter names in the respective parameter items constituting the list 34 in a left-justified manner, and displays the setting values set for the parameters in a right-justified manner under the parameter names. It is supposed to let you.

  Thus, by displaying each parameter item constituting the list 34, each parameter item can be displayed in a compact manner in the width direction. On the other hand, each parameter item becomes longer in the vertical direction, but when the input device 20 is configured by the touch panel 25 as in the present embodiment, it is easy to select (for example, tap) each parameter item. .

  In addition, the display control unit 24 displays the parameter names and the set values set in the parameters on the display device 21 in different display modes in each parameter item constituting the list 34.

  For example, the display control unit 24 displays the parameter name and the set value set in the parameter on the display device 21 in different display colors in each parameter item constituting the list 34.

  Further, the display control unit 24 causes the display device 21 to display a parameter setting value representing an initial value and a parameter setting value changed from the initial value in different display modes.

  For example, the display control unit 24 causes the display device 21 to display the parameter setting value representing the initial value and the parameter setting value changed from the initial value in different display colors.

  The display control unit 24 causes the display device 21 to display all the parameter names in the parameter items constituting the list 34 in the same display mode. Thereby, the visibility of the parameter name is improved for a user who wants to see only the parameter name.

  In the example shown in FIG. 6, the initial value of the parameter “Operation Band” of the third layer in which the first layer is “Common” and the second layer is “Frequency” is “1”. The setting value is changed to “2”.

  Note that the display control unit 24 may display an initial setting button (not shown) for returning the setting values of all parameters to the initial values in the first display area 31. In this case, the operation execution unit 23 is configured to return the setting values of all parameters to the initial values on condition that the operation detected by the operation detection unit 22 is an operation on the initial setting button.

  The display control unit 24 can display the list image in a scrolled state in the image display area 35 allocated in the first display area 31. Therefore, the display control unit 24 displays a scroll bar 36 for scrolling the list image on the display device 21 together with the list image. Here, the scroll bar 36 represents a scroll amount of the list image and includes a slider 37 that is displaced in accordance with an operation by the input device 20.

  In FIG. 1, the operation execution unit 23 scrolls the list image according to the operation detected by the operation detection unit 22 on condition that the operation detected by the operation detection unit 22 is an operation for scrolling the list image. The scroll amount specifying unit 40 that specifies the amount is configured.

  Here, as an operation of scrolling the list image, an operation of dragging the list image in the image display area 35 as shown in FIG. 7 and a slider 37 of the scroll bar 36 as shown in FIG. There are operations such as dragging.

  In addition, when the operation execution unit 23 scrolls the list image according to the scroll amount specified by the scroll amount specifying unit 40, the list image is displayed so as to be out of the image display area 35. In other words, the list image is displayed as an image. On the condition that scrolling is performed so as to protrude from the region 35, a scroll amount regulating unit 41 that regulates the scroll amount so that the list image does not deviate from the image display region 35 is configured.

  The display control unit 24 scrolls the list image according to the scroll amount, and the display mode of at least a part of the peripheral region of the image display region 35 is set on condition that the scroll amount is regulated by the scroll amount regulation unit 41. It is supposed to change.

  In the present embodiment, at least a part of the peripheral area of the image display area 35 is the slider 37 of the scroll bar 36. Here, the display control unit 24 changes the display mode of the slider 37 in accordance with the amount of scroll amount restricted by the scroll amount restriction unit 41.

  That is, the display control unit 24 greatly changes the display mode of the slider 37 as the amount of control of the scroll amount restricted by the scroll amount restriction unit 41 increases. For example, as shown in FIGS. 7 and 8, the display control unit 24 changes the display mode of the slider 37 by changing the density of the display color of the slider 37.

  7 and 8, (a) shows a state in which the list image is scrolled downward in the figure in the image display area 35, and (b) shows the list image in the image display area 35 up to the boundary. In detail, the list image is scrolled to the upper end of the image display area 35. In these states, the display control unit 24 does not change the density of the display color of the slider 37.

  7 and 8, (c) and (d) show a state in which the scroll amount of the list image is regulated by the scroll amount regulating unit 41. In particular, (d) represents a state in which the scroll operation of the list image has been performed further downward in the figure from the state represented by (c). In these states, the display control unit 24 changes the density of the display color of the slider 37.

  Here, since the amount of control of the scroll amount controlled by the scroll amount control unit 41 is larger in the state shown in (d) than in the state shown in (c), the display control unit 24 is The display color density of the slider 37 in the state shown in (d) is set higher than the display color density of the slider 37 in the state shown in (c).

  Returning to FIG. 5, the display control unit 24 hierarchically displays the parameter items representing the parameter group in the first display area 31 in the second display control state. Further, in the second display control state, the display control unit 24 displays a list in which parameter items obtained by expanding a group of parameters are arranged in units of groups in the second display area 32.

  As described above, when the display mode switching button 28 is pressed in the first display control state as shown in FIG. 4, the display control unit 24 causes the main window 30 to be as shown in FIG. The mode is switched to the second display control state.

  In the second display control state, the display control unit 24 displays the parameter items expanded and displayed in the second display area 32 among the parameter items displayed in the first display area 31 and the second display area 32. The display device 21 displays the parameter items in different display modes so that they can be identified from the parameter items that are not set.

  For example, the display control unit 24 out of four types of parameter items (group names) displayed in the first display area 31 expands and displays the parameter items (“Mobile Station Identity”, “Group Name”) in the second display area 32. “Power Control” and “BCCH / PCCH”) and parameter items (“Base Station Identity”) not displayed in the second display area 32 are displayed on the display device 21 in different display colors so that they can be identified. It has become.

  The display control unit 24 causes the display device 21 to display correspondence information that associates the parameter items displayed in the first display area 31 with the columns in which the parameter items expanded and displayed in the second display area 32 are arranged. It is like that.

  For example, the display control unit 24 uses identifiers such as numbers as correspondence information between the parameter items displayed in the first display area 31 and the columns in which the parameter items expanded and displayed in the second display area 32 are arranged. Each is attached and displayed on the display device 21.

  The operation execution unit 23 selects a parameter item representing a group of parameters from among the parameter items displayed in the first display area 31 in the first display control state or the second display area 32 in the second display control state. Is detected by the operation detection unit 22, the display control unit 24 is requested to aggregate the parameter groups if they are expanded and to expand them if they are aggregated.

  Here, when a group of parameters is expanded, lower-order parameter items are arranged under the parameter item representing the parameter group. On the other hand, when a parameter group is aggregated, the parameter items below this parameter group are hidden, and if there is a parameter item that represents the next parameter group, the next parameter group below the aggregated parameter item. Parameter items representing are arranged.

  For example, in the list 34 shown in FIG. 4, the “Frame Structure”, “Channel Bandwidth”, “UL Channel”, “DL Channel” of the third hierarchy are placed under the group parameter item of “Frequency” classified into the second hierarchy. ”,“ UL Frequency ”,“ DL Frequency ”, and“ Operation Band ”setting parameter items are displayed.

  Here, when the group parameter items of the second hierarchy “Frequency” are aggregated, “Frame Structure”, “Channel Bandwidth”, “UL Channel”, “DL Channel”, “UL Frequency”, Each setting parameter item of “DL Frequency” and “Operation Band” is hidden, and the group parameter item of “Level” classified in the second layer is displayed immediately below the group parameter item of “Frequency”. .

  In this way, by allowing the parameter items to be expanded and aggregated in the vertical direction, rather than in the horizontal direction, by expanding a specific group parameter item, a list 34 of lower setting parameter items is listed. The parameter items can be displayed compactly in the list 34 by aggregating specific group parameter items.

  In addition, the operation execution unit 23 sets the parameter name and the parameter set among the parameter items displayed in the first display area 31 in the first display control state or the second display area 32 in the second display control state. The parameter setting process is executed on the condition that the selection operation of the parameter item representing the setting parameter item including the value is detected.

  In the present embodiment, the parameter setting process executed by the operation execution unit 23 includes three processes: an on / off setting process, a list selection process, and a setting screen process. Which process is to be executed is determined according to the target parameter.

  The on / off setting process has the setting values “ON” and “OFF” as in the third layer parameter “Authentication” in which the first layer is “Call Processing” and the second layer is “Mobile Station Identity”. Executed for parameters that are switched between.

  In the on / off setting process, the operation execution unit 23 sets “ON” and “OFF” to the parameter to be selected via the parameter management unit 14 every time the operation detection unit 22 detects a parameter item selection operation. Set alternately.

  The list selection processing is performed by selecting one of a plurality of candidate values as parameter value candidates, such as a parameter “Frame Structure” in the third layer where the first layer is “Common” and the second layer is “Frequency”. It is executed for the parameter for which one value is set.

  In the list selection process, the operation execution unit 23 requests the display control unit 24 to change the parameter value on the condition that the operation detection unit 22 has detected a parameter item selection operation. Upon receiving this change request, the display control unit 24 causes the display device 21 to display candidate values as parameter value candidates in a list format. The operation execution unit 23 sets a candidate value selected from a plurality of candidate values displayed on the display device 21 as a corresponding parameter via the parameter management unit 14.

  For example, as shown in FIG. 9, when a parameter item whose parameter name is “Channel Bandwidth” is selected for the list image displayed as shown in (a), as shown in (b), The display control unit 24 displays “1.4 MHz”, “3 MHz”, “5 MHz”, “10 MHz”, “15 MHz”, and “20 MHz” as list values in the display device 21 as candidate values for parameter values. Display.

  Here, the display control unit 24 displays the initial value (5 MHz) of the parameter on the display device 21 in a display mode different from other candidate values. For example, the display control unit 24 causes the initial value of the parameter to be displayed on the display device 21 in a display mode different from other candidate values by adding an underline to the initial value of the parameter.

  The display control unit 24 displays the parameter candidate values in a list format under the parameter item to be selected so that it is easy to refer to the parameter values set before the list selection process is executed. It has become.

  Specifically, as in the example illustrated in FIG. 9B, the display control unit 24 sets each candidate value “1.4 MHz so that the parameter name is expanded under the parameter item“ Channel Bandwidth ”. ”,“ 3 MHz ”,“ 5 MHz ”,“ 10 MHz ”,“ 15 MHz ”, and“ 20 MHz ”are displayed in a list format.

  Here, if the parameter candidate values cannot be displayed in a list format under the parameter item due to the display position of the parameter item to be selected, the display control unit 24 displays the parameter item under the parameter item to be selected. The list image may be scrolled so that the parameter candidate values can be displayed in a list format.

  Further, the display control unit 24 displays the set parameter value on the display device 21 in a display mode different from other candidate values so as to make it easier to refer to the set parameter value. Yes. For example, the display control unit 24 in the present embodiment adds a mark to the left of the set parameter value.

  In FIG. 9, “10 MHz” is selected from the candidate values of “1.4 MHz”, “3 MHz”, “5 MHz”, “10 MHz”, “15 MHz”, and “20 MHz” in the state shown in (b). Then, as shown in (c), the set value of “Channel Bandwidth” is changed to “10 MHz”.

  The setting screen processing is executed for the parameter that directly sets the parameter value, such as the parameter “DL Frequency” of the third layer where the first layer is “Common” and the second layer is “Frequency”. Is done.

  In the setting screen process, the operation execution unit 23 requests the display control unit 24 to change the parameter value on condition that the operation detection unit 22 has detected a parameter item selection operation. Upon receiving this change request, the display control unit 24 causes the display device 21 to display a parameter setting screen at least representing an operator for setting a parameter value, as shown in FIGS. The operation execution unit 23 sets the value set based on the parameter setting screen to the corresponding parameter via the parameter management unit 14.

  The operation executing unit 23 configures an input value specifying unit 42 that specifies an input value of a parameter in accordance with an operation on the operator in the setting screen processing detected by the operation detecting unit 22. Here, the operators displayed on the parameter setting screen include a cancel button for canceling the setting, an OK button for confirming the setting, a clear button for clearing the input value, a backspace button for canceling the input value by one character, and a numerical value. There are a numerical button for inputting a unit, a unit button for inputting a unit, a reciprocal conversion button for performing a reciprocal conversion, and the like.

  The display control unit 24 selectively displays these buttons on the parameter setting screen in accordance with the parameter to be selected in addition to the parameter input value 50. In the parameter setting screen for the parameter “DL Frequency” shown in FIG. 10, the display control unit 24 displays a cancel button 51, an OK button 52, a clear button 53, a backspace button 54, a numerical button 55, and a unit button 56. ing.

  In a state where the parameter setting screen is displayed, the input value specifying unit 42 performs the operation on the operation element on the condition that the operation detected by the operation detecting unit 22 is an operation for setting the parameter input value outside the parameter setting range. The operation is invalidated, and the display control unit 24 causes the display device 21 to display an operator so that it can be identified that the operation of setting the parameter input value outside the parameter setting range is invalid.

  In other words, the input value specifying unit 42 and the display control unit 24 are configured to enable or disable each operation element according to the setting range of the parameter to be selected and the input value.

  For example, in the parameter setting screen shown in FIG. 10, since the setting range of “0.400000 MHz” to “2700.000000 MHz” is defined for the parameter “DL Frequency”, “20100000” is input on the parameter setting screen. Then, each unit button 56 representing “GHz” and “MHz” is disabled, each unit button 56 representing “kHz” and “Hz” is enabled, and the unit is determined as an input value. Therefore, the OK button 52 is also disabled.

  Here, the disabled controls (unit buttons 56 and OK buttons 52 representing “GHz” and “MHz”) are different in display color from the enabled controls and are lighter than the enabled controls. Displayed in color.

  Further, when the display control unit 24 causes the display device 21 to display an operation element for selecting the numerical value and the reciprocal conversion, the input value specifying unit 42 determines that the operation detected by the operation detection unit 22 is an input value of a parameter. If the reciprocal of the input value of the parameter is within the parameter setting range even if the operation is outside the parameter setting range, the operation on the operator is validated, and the display control unit 24 Even if the input value is outside the parameter setting range, an operation element is displayed on the display device 21 so that it is possible to identify that the operation in which the inverse of the parameter input value is within the parameter setting range is effective. It is supposed to let you.

  However, the display control unit 24 displays the parameter input value in a display mode different from that when the parameter input value is within the parameter setting range, provided that the parameter input value is outside the parameter setting range. It is like that.

  In the present embodiment, the display control unit 24 inputs a parameter in a display color different from that when the parameter input value is within the parameter setting range, provided that the parameter input value is outside the parameter setting range. The value is displayed.

  For example, as shown in FIG. 11, in the parameter setting screen of the parameter “Input Level” of the third layer where the first layer is “Common” and the second layer is “Level”, the parameter “Input Level” is Since the setting range of “−65.0 dBm” to “35.0 dBm” is defined, “40.0 dBm” is outside the parameter setting range, but when the reciprocal number conversion button 57 is operated, Since the reciprocal “−40.0 dBm” can be set within the setting range, input of “40.0 dBm” is allowed.

  However, when “40.0 dBm” is input, no more numerical values can be input, and all the numerical buttons 55 are disabled. Further, since “40.0 dBm” is outside the setting range, the input value 50 is displayed in a display color different from that in the parameter setting range.

  As another mode different from the mode in which the input value specifying unit 42 and the display control unit 24 enable or disable each operation element, the input value specifying unit 42 sets the parameter input value to the parameter setting. You may make it restrict | limit the input value of a parameter within a setting range on condition that it is outside the range.

  Here, the display control unit 24 may change the display mode of the parameter input value on condition that the input value of the parameter is regulated by the input value specifying unit 42. For example, the display control unit 24 may change the display mode of the parameter input value by changing the display color of the parameter input value.

  Further, the display control unit 24 causes the display device 21 to display the parameter setting screen so as to further indicate the setting range, and on the condition that the input value of the parameter is regulated by the input value specifying unit 42, You may make it change the display mode of the regulation value in which the input value of the parameter became out of the setting range. For example, the display control unit 24 displays the setting range on the title bar 49 of the parameter setting screen, and changes the display color of the restriction value in which the parameter input value is outside the setting range in the setting range. The display mode may be changed.

  For example, as shown in FIG. 12, in the parameter setting screen of the parameter “Operation Band” of the third layer where the first layer is “Common” and the second layer is “Frequency”, the parameter “Operation Band” is Since the setting range of “1” to “43” is defined, an input value less than “1” is restricted to “1”, and an input value greater than “43” is restricted to “43”.

  In the “Operation Band” parameter setting screen shown in FIG. 12, the display control unit 24 includes an increment button 58 for incrementing the minimum digit of the input value by one, and a decrement button 59 for decrementing the minimum digit of the input value by one. Is displayed.

  In the “Operation Band” parameter setting screen, when the increment button 58 is operated while “43” is input, the input value is restricted to “43”. The input value 50 is displayed in a display color different from that in the parameter setting range.

  In addition, the restriction value in which the parameter input value is outside the setting range in the setting range displayed on the title bar 49 of the parameter setting screen is also displayed in a different display color from that when the input value is within the parameter setting range. Is done.

  Further, the display control unit 24 displays an initialization button 48 (“Back to Initial Value” button in the drawing) for returning the input value of the parameter being set to the initial value as an operator of the parameter setting screen. ing.

  The operation execution unit 23 sets the input value on the parameter setting screen to the initial value of the parameter being set on condition that an operation on the initialization button 48 is detected by the operation detection unit 22.

  For example, in the “Operation Band” parameter setting screen shown in FIG. 12, the operation execution unit 23 sets the input value on the parameter setting screen on the condition that the operation on the initialization button 48 is detected by the operation detection unit 22. The initial value of “Operation Band” is set to “1”. That is, when the initialization button 48 is operated, “1” is displayed as the parameter input value 50. The initialization button 48 may also be provided on each parameter setting screen shown in FIGS.

  The display control unit 24 displays a parameter extraction screen 60 as shown in FIG. 13 on the display device 21 on condition that an operation on the parameter extraction button 64 displayed in the first display area 31 is detected by the operation detection unit 22. It is supposed to be displayed.

  The parameter extraction screen 60 includes an input screen display area 61 and an extraction result display area 62. The display control unit 24 displays an operator for setting parameter search conditions, for example, a plurality of keys for inputting parameter names and a search condition input by an input operation on the plurality of keys in an input screen display area. 61 is displayed. Note that the search condition in the present embodiment includes an input keyword.

  The operation execution unit 23 configures a parameter extraction unit 43 that extracts parameters satisfying the search condition from the hierarchized parameter group. In the present embodiment, the parameter extraction unit 43 is configured to extract a parameter that satisfies the search condition from the third layer parameter group included in all the first layers. In addition, the display control unit 24 displays a parameter extraction screen 60 representing the parameters extracted by the operation execution unit 23 on the display device 21.

  The parameter extraction unit 43 may extract a parameter that satisfies the search condition from the parameter group of the third hierarchy included in the first hierarchy selected in the first display area 31 of the main window 30. Good.

  The scroll amount specifying unit 40 and the scroll amount regulating unit 41 function in the same manner as the list 34 displayed in the first display region 31 of the main window 30 for the list 63 displayed in the extraction result display region 62. It has become.

  Further, the operation execution unit 23 selects a parameter to be selected from among the above-described three processes of the on / off setting process, the list selection process, and the setting screen process according to the parameter selected in the list 63. The processing according to is performed.

  For example, when an operation on the parameter extraction button 64 of the main window 30 is detected by the operation detection unit 22, the parameter extraction screen 60 is displayed on the front surface of the main window 30 by the display control unit 24.

  Here, when “UL” is input as a search condition in the input screen display area 61 of the parameter extraction screen 60, the first hierarchy is “Common” and the second hierarchy is “Common” in the extraction result display area 62. Frequency “UL Channel” and “UL Frequency” in the third layer, “Common” in the first layer, “Main UL” in the third layer in which the second layer is “Level”, and The display control unit 24 displays a list 63 including parameter items of the parameter “UL Number of RB 1” of the third layer whose first layer is “TX Measurement Setup” and whose second layer is “Relative Power”. .

  The operation execution unit 23 executes an operation for setting the value of a parameter selected from the parameters represented by the parameter extraction screen. For example, when the operation detection unit 22 detects an operation on the parameter “UL Channel” of the third layer whose first layer is “Common” and whose second layer is “Frequency”, the operation execution unit 23 The display control unit 24 is controlled to display the parameter setting screen as shown in FIG.

  In this way, the operation execution unit 23 executes an operation for setting the value of the parameter selected from the parameters represented by the parameter extraction screen. In order to set the parameter value, the operation execution unit 23 executes the operation from the parameter extraction screen 60 to the main window. The user's trouble of switching to 30 can be saved.

  The display control unit 24 displays an extraction result screen in which the parameters extracted by the parameter extraction unit 43 are hierarchized in the same classification as the hierarchized parameter group described with reference to FIGS. 2 and 3. You may make it display on.

  Specifically, the display control unit 24 may display an extraction result obtained by hierarchizing the parameters extracted by the parameter extraction unit 43 in the extraction result display area 62 of the parameter extraction screen 60.

  In other words, the display control unit 24 displays the parameter items of the parameters extracted by the parameter extraction unit 43 in the list 63 having the same format as the list 34 displayed in the first display area 31 of the main window 30. Good.

  As described above, the present embodiment invalidates the operation for setting the parameter input value outside the setting range and the operation for setting the parameter input value outside the setting range on the parameter setting screen. Since the operation element is displayed on the display device 21 so that it can be identified, it is possible to prevent the parameter value from being set outside the setting range.

  Therefore, since this embodiment can set the value of the parameter without burdening the user to reset the parameter, the burden on the user when setting the parameter can be reduced. Can do.

  In addition, in the present embodiment, it is possible to identify that the operation of setting the parameter input value outside the setting range is invalid and the operation of setting the parameter input value outside the setting range is invalid on the parameter setting screen. In addition, since the operation element for setting the parameter unit is displayed on the display device, it is possible to prevent the parameter value from being set outside the setting range.

  In the present embodiment, even if the input value of the parameter is outside the setting range on the parameter setting screen, if the reciprocal of the input value of the parameter is within the setting range of the parameter, The reciprocal transformation is set to a numerical value so that the operation element is displayed on the display device so that it is possible to identify that the operation that makes the reciprocal of the input value of the parameter within the parameter setting range valid is enabled. It is possible to suppress a decrease in convenience for a user who selects after input.

  In addition, in the present embodiment, on the parameter setting screen, on the condition that the parameter input value is outside the parameter setting range, the parameter display value is different from that when the parameter input value is within the parameter setting range. In order to display the input value, the user can be made aware that the input value of the parameter cannot be within the setting range unless the reciprocal conversion of the input value of the parameter is performed.

  The parameter setting method in the present embodiment includes a display control step, an operation detection step, and an input value specifying step. The display control step is executed by the display control unit 24, and the operation detection step The input value specifying step is executed by the detection unit 22, and the input value specifying unit 42 is executed.

  Although the embodiments of the present invention have been disclosed above, it is obvious that those skilled in the art can make modifications without departing from the scope of the present invention. All such modifications and equivalents are intended to be included in the claims recited in the claims.

DESCRIPTION OF SYMBOLS 21 Display apparatus 22 Operation detection part 24 Display control part 42 Input value specific | specification part 53 Clear button (operator)
54 Backspace button (operator)
55 Numeric buttons (operators)
56 Unit button (operator)
57 Reciprocal number conversion button (operator)

Claims (4)

A display control unit (24) for causing a display device (21) to display a parameter setting screen at least representing operators (53 to 57) for setting parameter values;
An operation detection unit (22) for detecting an operation on the operation element;
An input value specifying unit (42) for specifying an input value of the parameter according to the operation detected by the operation detecting unit,
The input value specifying unit, based on the input value of the parameter identified, then disabling the operation on the manipulated when pre <br/> Symbol set outside become operator parameters,
The display control unit is a parameter setting device that causes the display device to display an operator whose operation is invalidated by the input value specifying unit so as to be distinguishable from other operators. The display controller, respectively buttons to select a (55, 56) the numerical values and units are displayed on the display device as the operator, the operator representing the units that are disabled at the operation by the input value specifying unit parameter setting apparatus according to claim 1 to be displayed before Symbol display device so as to identify with the other operator. A mobile terminal test comprising: a display device (21); a parameter setting device according to claim 1 or claim 2; and a test execution unit (11) for testing a mobile terminal based on information including the parameters. A device,
The test execution unit is a mobile terminal test apparatus that tests the mobile terminal based on the parameter information set by the parameter setting apparatus. A parameter setting method for setting parameters with a parameter setting device,
A display control step for causing the display device (21) to display a parameter setting screen representing at least an operator for setting the value of the parameter;
An operation detection step of detecting an operation on the operation element;
An input value specifying step for specifying an input value of the parameter according to the operation detected in the operation detecting step,
Wherein in the input value specifying step, based on the input value of the parameter identified, then disabling the operation of the setting range become operator of the parameter to be operated,
In the display control step, a parameter setting method for causing the display device to display the operation element whose operation is invalidated in the input value specifying step so as to be distinguishable from other operation elements.