201108643 、，j 、 六、發明說明： 【發明所屬之技術領域】 本發明是有關於一種無線通訊裝置驗證系統及方 法，特別是有關於一種簡化大型測試設備以及取得待 測無線通訊裝置之效缺雜訊分析的無線通訊裝置驗 證系統及方法’適用於無線通訊產品在設計階段的設 計驗證和工廠驗證組裝品質。 【先前技術】 目前’無線通訊領域’特別是應用於泛歐數位行 動电話糸統（Global System for Mobile201108643, j, VI, invention description: [Technical field of invention] The present invention relates to a wireless communication device verification system and method, and more particularly to a method for simplifying large-scale test equipment and obtaining a wireless communication device to be tested. The wireless communication device verification system and method for noise analysis is suitable for design verification and factory-verified assembly quality of wireless communication products at the design stage. [Prior Art] At present, the 'wireless communication field' is especially applied to the pan-European digital mobile phone system (Global System for Mobile)
Communications ’ GSM)、全球互通微波存取系統 (Worldwide Interoperability for Microwave Access ， WiMAX)、見頻分碼多工系統(wide band Code Division Multiple Access，WCDMA)、全球定位系統（Global φ Positioning System，GPS)、藍芽系統(Bluetooth，BT)、 無線區域網路系統(Wireless LAN，WLAN)、個人手持 式電話系統(Personal Handy-phone System，PHS)、數 位 影 像廣播 系 統 （Digital VideoCommunications ' GSM ), Worldwide Interoperability for Microwave Access (WiMAX), Wide Band Code Division Multiple Access (WCDMA), Global φ Positioning System (GPS) , Bluetooth (BT), Wireless LAN (WLAN), Personal Handy-phone System (PHS), Digital Video Broadcasting System (Digital Video)
Broadcasting-Terrestrial，DVB-T)、分時-同步分碼多 工存取系統（Time Division - Synchronous Code Division Multiple Access，TD-SCDMA)、分碼多工系 統(Code Division Multiple Access，CDMA)或長期演進 技術系統(Long Term Evolution ’ LTE)等各式系統之無 201108643 線通訊裴置，無論於設計階段或產線製造階段的通訊 品質，皆為各家無線通訊裝置製造廠商所極為重視。 為確保各家廠商所生產製造的無線通訊裝置皆能 具備一定水準的相容性及穩定性，無線通訊裝置須通 過遵循無線通訊協定標準所制定的測試，以及出貨前 各豕薇商自訂的品質測試等，故如何簡化測試以及降 低測試隨之產生的成本’為各家廠商所欲解決之問題。 以傳統的無線通訊裝置所使用的無線通訊模組為 例，一般須要測試此無線通訊模組的電性特性及功能 特性。先刚技術就電性特性而言，使用頻譜儀檢測感 應無線通訊模組所使用的天線中心頻率或射頻功率 值，或者是使用電流計來檢測感應無線通訊模組最大 消耗電流值，以期無線通訊模組電性特性可符合電性 相容的安全規範。 此外，就功能特性而言，通常是將待測無線通訊 模組设置於室外空曠場所，再利用天線測試設備來實 際驗證遠距離的傳輸狀況與接收訊號靈敏度的大小及 範圍。 但因現有空間與周遭環境因無線通訊的發展隨之 複雜度增加’四周存在著各式各樣訊號輻射干擾源或 是訊號傳遞時的阻隔物，要尋朗無干擾的場所進行 測試變得相#困難。此外’室外測試還須受限於天氣 狀態’由於天氣狀態不穩定，導致無線通訊模組檢測 201108643 結果會因環境變因，產生誤差。於是，現有無線通訊 裝置通常會利用外測實驗室所使用之電波暗室 (Anechoic Chamber)，進行開放空間的模擬測試。電波 暗室主要可將外來電磁干擾加以屏蔽，另一方面亦可 對發射源加以屏蔽，不向外界造成電磁波干擾。 就電波暗室結構而言，為能達到上述目的，亦即 達到高吸波性及高阻隔性，傳統會在電波暗室六個壁 面上加裝吸波材料以防止内部訊號反射以及增加與外 界隔離程度。以便於將電波暗室模擬成室外開放測試 場所。 以無線通訊模組實際使用電波暗室測試而言，首 先使用第一電波暗室對無線通訊模組電性特性，即天 線中心頻率、射頻功率值或消耗電流等靜態電性特性 進行檢測，接著使用第二電波暗室進行如接收靈敏度 的動態功能特性檢測。 然而，上述習知的測試流程必須分段、分項進行 使整體測試時間較長’電波暗室所須空間較大及設置 成本昂貴。綜合上述可得知，先前技術具有下述缺點： (1) 測試用電波暗室所須費用昂貴、測試時間須 事先預約，測試設備佔用空間大，測試所須時間較長。 (2) —般載台雜訊量測系統(Noise floor)僅限於 驗證天線布局被系統雜訊干擾的程度，無法完整驗證 無線通訊裝置於整體組裝後，對通訊品質的影響。 201108643 (3)測試設備體積過大，無法應用於生產線產品 出貨前品質管制（OQC，Out-going Quality Control)， 亦即無法針對產線組裝時所引起問題做正確且有效篩 選。 【發明内容】 有鑑於上述先前技術問題，本發明目的就在提供 一種無線通訊裝置驗證系統，以解決上述各項問題。 本發明之無線通訊裝置驗證系統，包含：隔離箱、 雜讯探測單元、無線收發單元、量測裝置。其中，隔 離粕，用以容置待測之無線通訊裝置。雜訊探測單元， 设置於隔離箱内，用以探測無線通訊裝置之雜訊。無 線收發單元，設置於隔離箱内，用以接收或發射無線 電波訊號。量測裝置，電性連接於雜訊探測單元，量 測裝置透過雜訊探測單元接收雜訊，以進行雜訊分析。 一再f，進一步透過設置於隔離箱内之無線收發單 元以量/則裴置透過無線收發單元與無線通訊裝置建 立無線通tfi連結，以進行無線通訊效能分析。 /此外，本發明之無線通訊裝置驗證方法，首先， 將待測之無線通訊裝置容置於隔_中，透過設置於 隔離箱内之雜訊量測單元，探測無線通訊裝置之雜 Λ 2測裝置對雜訊進行雜訊分析，亦可藉由設 置於隔離I目内之無線收發單元，接收或發射無線電波 201108643 ' 訊號’以量測裝置透過無線收發單元與無線通訊裝置 建立—無線通訊連結，並據以進行無線通訊效能分析。 其中，雜訊探測單元可以為傳輸線、探測棒、天 線型探測器或圓型探測棒。 其中，量測裝置可包括：放大器及頻譜儀。放大 器’耦接於雜訊探測單元，用以接收並補償雜訊在傳 輪過程中之強度損耗。頻譜儀，耦接於放大器，用以 # 接收補償後之雜訊，並分析雜訊之頻譜，以完成雜訊 分析。無線收發單元可以為天線。 其中，量測裝置更可包括基地台模擬裝置，此基 地台模擬裝置是用以與無線通訊裝置之間建立無線通 訊連結。 本發明之無線通訊裝置驗證系統及方法，更可用 以驗證無線通訊裝置與基地台模擬裝置間之總輻射功 φ 率（Total Radiated Power，TRP)、總全向靈敏度(Total Isotropic Sensitivity，TIS)、傳輸量（throughput)或交遞 (handover) 〇 其中，基地台模擬裝置可以是模擬泛歐數位行動 電話系統、全球互通微波存取系統、寬頻分碼多工系 統、全球定位系統、藍芽系統、無線區域網路系統、 個人手持式電話系統、數位影像廣播系統、分時_同步 分碼多工存取系統、分碼多工系統或長期演進技術系 統。 201108643 本發明之無線通訊裝置驗證系統及方法之隔離箱 更包含固定治具，用以固定無線通訊裝置。 承上所述，本發明之無線通訊裝置驗證系統及方 法，可具有一或多個下述優點： (1) 本發明之系統及方法可藉由設備簡單化、佔 用空間小、架設費用低廉、測試時間短，藉此可提高 於設計階段時之工作效率以及降低於設計、驗證無線 通訊裝置之花費。 (2) 本發明之系統及方法可藉由無須受限於外部 測試認證實驗室的預約，且無須增購昂貴的測試設 備，藉此有效針對產線組裝時所引起的問題進行正確 且有效的篩選，確保生產品質。 【實施方式】 請參閱第1圖，係為本發明無線通訊裝置驗證系 統示意圖，圖中，無線通訊裝置驗證系統100包含隔 離箱110、無線收發單元114及量測裝置130。隔離箱 110，用以容置待測之無線通訊裝置112。無線收發單 元114電性連接量測裝置130，用以接收或發射無線 電波訊號，並與無線通訊裝置112建立無線通訊連 結，據以進行無線通訊效能分析。 請參閱第2圖，係為本發明無線通訊裝置驗證系 統示意圖，為使便於理解，第1圖及第2圖中之相同 201108643 元件以相同符號標示說明。以下僅就與 施方式予以說明，雜訊探測單元214電、圖相異實 置130，用以探測無線通訊裴置112之性連接量測裝 進行雜訊分析。於本圖中，雜訊探測單元=並據以 線的方式來實施，此傳輸線電性連接於 ^以傳輪 112時’用以量測無線通訊裝置112内；之=訊裝置 傳輸線可以為阻抗30Ω或45Ω之射頻傳輪線Ί該 此為限。 丨—Broadcasting-Terrestrial, DVB-T), Time Division - Synchronous Code Division Multiple Access (TD-SCDMA), Code Division Multiple Access (CDMA) or long-term The 201108643 line communication device of various systems such as the Long Term Evolution 'LTE (LTE) system is highly valued by the manufacturers of wireless communication devices regardless of the communication quality at the design stage or the production line. In order to ensure that the wireless communication devices manufactured by various manufacturers have a certain level of compatibility and stability, wireless communication devices must pass the tests established in accordance with the wireless communication protocol standards, and each of the Rosers before shipment. Quality testing, etc., so how to simplify the test and reduce the cost associated with the test 'is the problem that each manufacturer wants to solve. For example, a wireless communication module used in a conventional wireless communication device generally needs to test the electrical characteristics and functional characteristics of the wireless communication module. In terms of electrical characteristics, the spectrum analyzer is used to detect the antenna center frequency or RF power value used by the inductive wireless communication module, or the ammeter is used to detect the maximum current consumption value of the inductive wireless communication module, in order to wirelessly communicate. The electrical characteristics of the module are in compliance with electrical compatibility safety regulations. In addition, in terms of functional characteristics, the wireless communication module to be tested is usually placed in an outdoor open space, and the antenna test equipment is used to actually verify the long-distance transmission condition and the magnitude and range of the received signal sensitivity. However, due to the increasing complexity of the existing space and the surrounding environment due to the development of wireless communication, there are various sources of radiation interference sources or barriers during signal transmission. It is necessary to find a place where there is no interference. #difficult. In addition, 'outdoor testing must be limited by weather conditions' due to unstable weather conditions, resulting in wireless communication module detection 201108643 results will cause errors due to environmental changes. Therefore, existing wireless communication devices usually use the Anechoic Chamber used by the external testing laboratory to perform simulation tests in open space. The electric darkroom can mainly shield external electromagnetic interference, and on the other hand, it can shield the emission source without causing electromagnetic interference to the outside world. In terms of the structure of the anechoic chamber, in order to achieve the above objectives, that is, to achieve high absorbing and high barrier properties, conventionally, absorbing materials are added to the six walls of the anechoic chamber to prevent internal signal reflection and increase the degree of isolation from the outside. . In order to simulate the anechoic chamber into an outdoor open test site. In the actual use of the anechoic chamber test of the wireless communication module, the first anechoic chamber is first used to detect the electrical characteristics of the wireless communication module, that is, the static electrical characteristics such as the antenna center frequency, the RF power value, or the current consumption, and then the first The second anechoic chamber performs dynamic functional characteristic detection such as reception sensitivity. However, the above-mentioned conventional test procedure must be performed in stages and sub-items to make the overall test time longer. The space required for the anechoic chamber is large and the installation cost is high. In summary, the prior art has the following disadvantages: (1) The test anechoic chamber is expensive, the test time must be reserved in advance, the test equipment takes up a large space, and the test takes a long time. (2) The noise floor measurement system (Noise floor) is limited to verifying the extent to which the antenna layout is disturbed by the system noise. It is impossible to fully verify the impact of the wireless communication device on the communication quality after the overall assembly. 201108643 (3) The test equipment is too large to be used in the production line products (OQC, Out-going Quality Control), that is, it cannot correctly and effectively screen the problems caused by the assembly of the production line. SUMMARY OF THE INVENTION In view of the above prior art problems, an object of the present invention is to provide a wireless communication device verification system to solve the above problems. The wireless communication device verification system of the present invention comprises: an isolation box, a noise detecting unit, a wireless transceiver unit, and a measuring device. Wherein, the 粕 is used to accommodate the wireless communication device to be tested. The noise detecting unit is disposed in the isolation box to detect the noise of the wireless communication device. The wireless transceiver unit is disposed in the isolation box for receiving or transmitting radio wave signals. The measuring device is electrically connected to the noise detecting unit, and the measuring device receives the noise through the noise detecting unit for noise analysis. Further, the wireless transceiver unit disposed in the isolation box is further configured to establish a wireless communication tfi connection with the wireless communication device through the wireless transceiver unit to perform wireless communication performance analysis. In addition, in the wireless communication device verification method of the present invention, first, the wireless communication device to be tested is placed in the _, and the noise detecting unit of the wireless communication device is detected through the noise measuring unit disposed in the isolation box. The device performs noise analysis on the noise, and can receive or transmit the radio wave 201108643 'signal' through the wireless transceiver unit disposed in the isolated I mesh to establish a wireless communication link between the measuring device and the wireless communication device through the wireless transceiver unit. And based on the analysis of wireless communication performance. The noise detecting unit may be a transmission line, a detecting rod, an antenna type detector or a round detecting rod. Wherein, the measuring device can comprise: an amplifier and a spectrum analyzer. The amplifier 'couples to the noise detecting unit for receiving and compensating for the loss of noise during the transmission process. The spectrum analyzer is coupled to the amplifier for receiving the compensated noise and analyzing the spectrum of the noise to complete the noise analysis. The wireless transceiver unit can be an antenna. The measuring device may further comprise a base station analog device for establishing a wireless communication link with the wireless communication device. The wireless communication device verification system and method of the present invention can be further used to verify Total Radiated Power (TRP) and Total Isotropic Sensitivity (TIS) between the wireless communication device and the base station analog device. Throughput or handover 〇, the base station analog device can be an analog pan-European digital mobile phone system, a global interoperable microwave access system, a broadband code division multiplexing system, a global positioning system, a Bluetooth system, Wireless local area network system, personal handy phone system, digital video broadcasting system, time-sharing_synchronous code division multiplexing access system, code division multiplexing system or long term evolution technology system. 201108643 The isolation box of the wireless communication device verification system and method of the present invention further comprises a fixed fixture for fixing the wireless communication device. As described above, the wireless communication device verification system and method of the present invention may have one or more of the following advantages: (1) The system and method of the present invention can be simplified by a device, occupy a small space, and have a low installation cost. The test time is short, which improves the efficiency of the design phase and reduces the cost of designing and verifying the wireless communication device. (2) The system and method of the present invention can effectively and effectively solve the problems caused by the assembly of the production line by not requiring an appointment with an external test certification laboratory and without the need to purchase expensive test equipment. Screen to ensure production quality. [Embodiment] Please refer to FIG. 1 , which is a schematic diagram of a wireless communication device verification system according to the present invention. In the figure, the wireless communication device verification system 100 includes a separation box 110, a wireless transceiver unit 114, and a measuring device 130. The isolation box 110 is configured to accommodate the wireless communication device 112 to be tested. The wireless transceiver unit 114 is electrically connected to the measuring device 130 for receiving or transmitting the wireless wave signal and establishing a wireless communication connection with the wireless communication device 112 for performing wireless communication performance analysis. Please refer to FIG. 2, which is a schematic diagram of the verification system of the wireless communication device of the present invention. For ease of understanding, the same elements in FIG. 1 and FIG. 2 are denoted by the same symbols. The following is only described with respect to the embodiment. The noise detecting unit 214 is electrically and graphically different 130 for detecting the sex connection of the wireless communication device 112 for noise analysis. In the figure, the noise detecting unit is implemented according to a line, and the transmission line is electrically connected to the transmitting wheel 112 to measure the wireless communication device 112; the signal transmission line can be impedance The 30 Ω or 45 Ω RF transmission line is limited to this.丨—
一請參閱第3圖，係為本發明無線通訊裝置驗护 統示意圖，雜訊探測單A 2H卩探測棒的方式=實 施，此探測棒可探測無線通訊裝置112特定區域雜 訊，進而找出雜訊干擾源，以便於設計工程師發現問 題徵結，進而可縮短解決問題所須時間以及可作為驗 證是否已解決問題之依據。 睛參閱第4圖，本發明無線通訊裝置驗證系統示 意圖，雜訊探測單元214以圓型探測棒的方式來實 施。雜訊探測單元214除圓型探測棒外，亦可為天線 型探測器’可用以量測無線通訊裝置U2整體雜訊之 探測器或探測棒皆適用。 量測裝置130可包括放大器132及頻譜儀134。 放大斋132’耗接雜訊探測單元214，用以接收並補償 雜訊在傳輪過程中之強度損耗。頻譜儀134 ’耦接放 大器132，可接收補償後之雜訊，並分析雜訊頻譜’ 201108643 以完成雜訊分析。無線收發單元114可以為天線。 量測裝置130亦可包括基地台模擬裝置136，用 與無線通訊裝置112建立無線通訊連結，於本實施例 中，基地台模擬裝置136可以使用羅德史瓦茲 (ROHDE&SCHWARZ，R&S)有限公司所生產之通訊測 試儀（CMU200)，但不以此為限。 無線通訊裝置驗證系統100可用來驗證無線通訊 裝置112與基地台模擬裝置136間之總輻射功率、總 全向靈敏度、傳輸量或交遞，但不以此為限。基地台 模擬裝置136可以是模擬泛歐數位行動電話系統、全 球互通微波存取系統、寬頻分碼多工系統、全球定位 系統、藍芽系統、無線區域網路系統、個人手持式電 話系統、數位影像廣播系統、分時-同步分碼多工存取 系統、分碼多工系統或長期演進技術系統。 該隔離箱110更包含固定治具，用以固定無線通 訊裝置112。 請參閱第5圖，本發明之無線通訊裝置驗證方法 流程圖。圖中，本實施例所提出之無線通訊裝置驗證 方法，包含下列步驟： 步驟S501 :將待測之無線通訊裝置112容置於隔 離箱110中； 步驟S502 :透過設置於隔離箱110内之雜訊量測 201108643 、 單元214，探測無線通訊裝置112之雜訊； 步驟S503:藉由設置於隔離箱110内之無線收發 單元114，接收或發射無線電波訊號； 步驟S504:利用量測裝置130對雜訊進行雜訊分 析；以及 步驟S505:以量測裝置130透過無線收發單元114 與無線通訊裝置112建立一無線通訊連結，並據以進 行無線通訊效能分析。 此外亦可依實際情況不同，例如僅須測試無線通 訊裝置112雜訊時，可實行上述步驟S5(H、步驟S502 及步驟S504 ;當僅須測試無線通訊裝置112之無線通 訊效能分析時，則可實行上述步驟S501、步驟502及 步驟S505來加以實現。 其中，量測裝置130所包括之放大器132、頻譜 儀134及基地台模擬裝置136，其連接方式與功能與 上述相同，於此不贅述。 本發明之無線通訊裝置驗證方法，是用來驗證無 線通訊裝置112與基地台模擬裝置136間之總輻射功 率、總全向靈敏度、傳輸量或交遞。其中，於具體實 施本發明時’假設以夾角φ之角度為〇。的條件下執行 本實施例之無線通訊裝置驗證方法時，於檢測總輻射 功率及總全向靈敏度可分別採用下列式（1)及式（2)來 201108643 計算取得。 TUP s ：J!_^^EIRPe(Qi}(pj)+ EIRP<p(a,(f!/)]sm(ei) /«I /_Λ 式⑴Please refer to FIG. 3, which is a schematic diagram of the wireless communication device inspection system of the present invention. The method of detecting the noise of the A 2H detection bar of the noise detection device is implemented. The detection bar can detect the noise of the specific area of the wireless communication device 112, thereby finding out The source of noise interference, so that the design engineer can find the problem, which can shorten the time required to solve the problem and can be used as the basis for verifying whether the problem has been solved. Referring to Figure 4, the wireless communication device verification system of the present invention is shown, and the noise detecting unit 214 is implemented in the form of a circular probe. The noise detecting unit 214 can be used as an antenna type detector in addition to the round type detecting rod. The detector or the detecting rod which can be used to measure the overall noise of the wireless communication device U2 is applicable. The measurement device 130 can include an amplifier 132 and a spectrum analyzer 134. The amplifying chip 132' consumes the noise detecting unit 214 for receiving and compensating for the intensity loss of the noise during the transmitting process. The spectrum analyzer 134' is coupled to the amplifier 132 to receive the compensated noise and analyze the noise spectrum '201108643' to complete the noise analysis. The wireless transceiver unit 114 can be an antenna. The measurement device 130 can also include a base station simulation device 136 for establishing a wireless communication link with the wireless communication device 112. In this embodiment, the base station simulation device 136 can use Rohde & Schwarz (ROHDE & SCHWARZ, R&S ) The communication tester (CMU200) produced by the company, but not limited to this. The wireless communication device verification system 100 can be used to verify the total radiated power, total omnidirectional sensitivity, transmission amount, or handover between the wireless communication device 112 and the base station analog device 136, but is not limited thereto. The base station analog device 136 can be an analog pan-European digital mobile phone system, a global interoperable microwave access system, a broadband code division multiplexing system, a global positioning system, a Bluetooth system, a wireless local area network system, a personal handy phone system, and a digital position. Image broadcasting system, time-sharing-synchronous code division multiplex access system, code division multiplexing system or long-term evolution technology system. The isolation box 110 further includes a fixed fixture for securing the wireless communication device 112. Please refer to FIG. 5, a flow chart of the method for verifying the wireless communication device of the present invention. In the figure, the method for verifying the wireless communication device in the embodiment includes the following steps: Step S501: accommodating the wireless communication device 112 to be tested in the isolation box 110; Step S502: transmitting the interference in the isolation box 110 The measurement unit 201108643, the unit 214, detects the noise of the wireless communication device 112; Step S503: receiving or transmitting the radio wave signal by the wireless transceiver unit 114 disposed in the isolation box 110; Step S504: using the measurement device 130 The noise is analyzed by the noise; and the step S505 is performed by the measuring device 130 to establish a wireless communication link with the wireless communication device 112 through the wireless transceiver unit 114, and the wireless communication performance analysis is performed accordingly. In addition, depending on the actual situation, for example, when only the wireless communication device 112 noise is to be tested, the above steps S5 (H, step S502, and step S504 may be performed; when only the wireless communication performance analysis of the wireless communication device 112 needs to be tested, The foregoing steps S501, 502, and S505 can be implemented. The amplifier 132, the spectrum analyzer 134, and the base station simulation device 136 included in the measurement device 130 are connected and function the same as the above, and are not described herein. The wireless communication device verification method of the present invention is used to verify the total radiated power, total omnidirectional sensitivity, transmission amount or handover between the wireless communication device 112 and the base station analog device 136. Wherein, in the specific implementation of the present invention, Assuming that the wireless communication device verification method of the present embodiment is performed under the condition that the angle φ is 〇, the total radiation power and the total omnidirectional sensitivity can be calculated by using the following equations (1) and (2) to 201108643, respectively. Get TUP s :J!_^^EIRPe(Qi}(pj)+ EIRP<p(a,(f!/)]sm(ei) /«I /_Λ (1)
TISTIS
2NM N—\ A/—1:ςς /=1 js〇 EISe(9i,^) £7&(ft，办) 式（2) 其中，計算總輻射功率時，可以N=12與M=24 代入取得，計算總全向靈敏度時，可以N=6且M=12 代入取得。上述式（1)及式(2)中所使用之有效輻射功率 EIRP(Effective Isotropic Radiated Power)及接收靈敏 度 EIS(Effective Isotropic Sensitivity)分別如式（3)及式 (4)所示。 式（3) 式（4) EIRP = ^[(ΕΙΚΡΦ)2 +(EIRP9f ΕΙΞ^ΕΙΞΦ)2 + (Else)2} 上述基地台板擬裝置136可以用來模擬如上所述 之各類無線通訊系統，於此不贅述。 本發明之隔離箱110更包含固定治具，用以固定 無線通訊裝置112。 請參閱第6圖，係為本發明無線通訊裝置驗證系 統應用於無線傳輸系統測試流程圖。圖中，於步癖 S601中，綠認功率雜訊是否合乎標準值，若合乎標準 值則進入步驟S602確認系統整體雜訊是否合乎標準 201108643 »j 、 值；若未合乎標準值則進入步驟S606，進行除錯。接 下來’當於步驟S602中，確認系統整體雜訊是否合乎 標準值時，若合乎標準值則進入步驟S6〇3確認是否通 過無線傳輸網路測試；若未合乎標準值則進入步驟 S607 ’進行除錯。 接著’於步驟S603中，進行無線傳輸網路測試 時，若合乎標準值則進入步驟S605進行空中下載 • (0ver the Air ’ OTA)測試；若未合乎標準值則進入步 驟S609 ’進行除錯後，並回到步驟s6〇i重新驗證流 程。 接著’於步驟S604中’進行空中下載測試時，若 通過空中下載測試則進入步驟S605將通過此些測試 之樣品做為最完美樣品；若未通過空中下載測試則進 入步驟S609，進行除錯後，並回到步驟S6〇1重新驗 證流程。 最後，以於步驟S605通過此些測試之樣品做為最 完美樣品的原本，進入步驟S608複製至其他樣品後， 並對此些複製樣品進行無線傳輸網路測試，即進入步 驟S603，以確認於最完美樣品上除錯所使用之解決問 題的手段是否有效。 以上所述僅為舉例性，而非為限制性者。任何未 脫離本發明之精神與範疇，而對其進行之等效修改或 變更，均應包含於後附之申請專利範圍中。〆5 201108643 【圖式簡單說明】 - 第1圖係為本發明無線通訊裝置驗證系統示意圖； 第2圖係為本發明無線通訊裝置驗證系統示意圖； 第3圖係為本發明無線通訊裝置驗證系統示意圖； 第4圖係為本發明無線通訊裝置驗證系統示意圖； 第5圖係為本發明無線通訊裝置驗證方法流程圖；以 及 · 第6圖係為本發明無線通訊裝置驗證系統應用於無 線傳輸系統測試流程圖。 14 201108643 -- 【主要元件符號說明】 100 :無線通訊裝置驗證系統； 110 :隔離箱； 112 :無線通訊裝置； 114 :無線收發單元； 130 :量測裝置； • 132 :放大器； 134 :頻譜儀； 136 :基地台模擬裝置； 214 :雜訊探測單元； S501〜S505 :各流程步驟；以及 S601〜S609 :各流程步驟。 152NM N—\ A/—1:ςς /=1 js〇EISe(9i,^) £7&(ft,do) Equation (2) where, when calculating the total radiated power, N=12 and M=24 can be substituted Obtained, when calculating the total omnidirectional sensitivity, it can be obtained by substituting N=6 and M=12. The effective radiant power EIRP (Effective Isotropic Radiated Power) and the EIS (Effective Isotropic Sensitivity) used in the above formulas (1) and (2) are as shown in the formulas (3) and (4), respectively. Equation (3) Equation (4) EIRP = ^[(ΕΙΚΡΦ)2 +(EIRP9f ΕΙΞ^ΕΙΞΦ)2 + (Else)2} The above-mentioned base plate assembly device 136 can be used to simulate various types of wireless communication systems as described above. I will not go into details here. The isolation box 110 of the present invention further includes a fixture for securing the wireless communication device 112. Please refer to FIG. 6 , which is a flow chart of testing the wireless communication device verification system of the present invention applied to the wireless transmission system. In the figure, in step S601, whether the green power noise meets the standard value, if it meets the standard value, the process proceeds to step S602 to confirm whether the overall system noise meets the standard 201108643 »j, the value; if the standard value is not met, the process proceeds to step S606. , to debug. Next, in step S602, if it is confirmed whether the overall noise of the system meets the standard value, if it meets the standard value, it proceeds to step S6〇3 to confirm whether it passes the wireless transmission network test; if it does not meet the standard value, it proceeds to step S607. Debugging. Then, in step S603, when performing the wireless transmission network test, if the standard value is met, the process proceeds to step S605 to perform the over-the-air (OTA) test; if the standard value is not met, the process proceeds to step S609. And return to step s6〇i to re-verify the process. Then, when performing the over-the-air download test in step S604, if the test is performed by over the air, the process proceeds to step S605 to make the sample passing the test as the most perfect sample; if the test is not passed over the air, the process proceeds to step S609, after the debugging is performed. And return to step S6〇1 to re-verify the process. Finally, the sample of the test samples is used as the most perfect sample in step S605, and after copying to other samples in step S608, and performing wireless transmission network test on the replicated samples, the process proceeds to step S603 to confirm The means of solving the problem on the perfect sample is effective. The above is intended to be illustrative only and not limiting. Any equivalent modifications or alterations to the spirit and scope of the invention are intended to be included in the scope of the appended claims. 〆5 201108643 [Simple description of the diagram] - Figure 1 is a schematic diagram of the wireless communication device verification system of the present invention; Figure 2 is a schematic diagram of the wireless communication device verification system of the present invention; Figure 3 is a wireless communication device verification system of the present invention FIG. 4 is a schematic diagram of a wireless communication device verification system according to the present invention; FIG. 5 is a flow chart of a wireless communication device verification method according to the present invention; and FIG. 6 is a wireless communication device verification system of the present invention applied to a wireless transmission system Test flow chart. 14 201108643 -- [Main component symbol description] 100 : Wireless communication device verification system; 110 : Isolation box; 112 : Wireless communication device; 114 : Wireless transceiver unit; 130 : Measurement device; • 132 : Amplifier; 136: base station analog device; 214: noise detecting unit; S501~S505: each process step; and S601~S609: each process step. 15