TW201525479A - Solar panel inspection machine table - Google Patents
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- TW201525479A TW201525479A TW102146401A TW102146401A TW201525479A TW 201525479 A TW201525479 A TW 201525479A TW 102146401 A TW102146401 A TW 102146401A TW 102146401 A TW102146401 A TW 102146401A TW 201525479 A TW201525479 A TW 201525479A
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- 238000001514 detection method Methods 0.000 claims description 18
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- 238000006243 chemical reaction Methods 0.000 description 1
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Abstract
Description
本發明係關於一種太陽能板檢測機台，尤指一種可大範圍移動探針之太陽能板檢測機台。
The invention relates to a solar panel detecting machine, in particular to a solar panel detecting machine capable of moving a probe in a wide range.
為了檢測太陽能板於製作過程中是否產生不良單元(cell)或裂隙，目前業界使用的方式，係以探針排上的探針接觸太陽能板上的匯流電極並導入電流，令太陽能板上的各單元發光，再以目視、影像感測器或攝影器材檢視或檢測各單元是否包含有暗區，若有暗區，則可判定該單元為不良。
此外，量測太陽能板的光電轉換效率，則是以高強度的平行光垂直照射受測太陽能板的受光面，並同時以探針排上的探針接觸太陽能板上的匯流電極，藉以量測強光照射時太陽能板上所產生的電壓及電流。
以往使用的探針排係於一探針架上設置複數個探針，各探針分別焊接一導線，藉由導線連接到檢測機台的電極，用以提供電流或量測電壓及電流。
由於不同大小的太陽能板上，各單元(cell)的大小並不相同，同時單元的行數與列數也不一樣。因此，檢測機台經常需使用不同規格與數量的探針排。更換探針排時，需整理焊接於探針上數量龐大的導線，導致耗時費工，增加許多無形成本。此外，眾多導線在檢視太陽能板時上所產生的遮蔽面積，以及光線照射太陽能板時所產生的陰影區，都會影響檢測的準確度。因此，如何改善檢測機台的構造，為業界亟需解決的課題。
In order to detect whether a solar cell produces a defective cell or a crack during the manufacturing process, the method used in the industry is to contact the probe on the solar cell with a probe on the probe row and introduce a current to cause each of the solar panels. The unit emits light, and then visually checks or detects whether each unit contains a dark area by a visual, image sensor or photographic equipment. If there is a dark area, it can be determined that the unit is bad.
In addition, measuring the photoelectric conversion efficiency of the solar panel, the high-intensity parallel light is vertically irradiated to the light-receiving surface of the solar panel to be tested, and at the same time, the probe on the probe row contacts the bus electrode on the solar panel, thereby measuring The voltage and current generated on the solar panel when illuminated by strong light.
Conventionally used probes are arranged on a probe holder to provide a plurality of probes, each of which is soldered with a wire, which is connected to the electrode of the detection machine by a wire for supplying current or measuring voltage and current.
Due to the different sizes of solar panels, the size of each cell is not the same, and the number of rows and columns of the cells are different. Therefore, the inspection machine often needs to use different specifications and the number of probe rows. When replacing the probe row, it is necessary to arrange a large number of wires welded to the probe, which leads to time-consuming and labor-intensive work, and increases the inefficiency. In addition, the shielding area produced by many wires when viewing the solar panel and the shadow area generated when the light illuminates the solar panel affect the accuracy of the detection. Therefore, how to improve the structure of the inspection machine is an urgent problem to be solved in the industry.
本發明之一目的，在於提供一種太陽能板檢測機台，尤指一種可大範圍移動探針之太陽能板檢測機台。
本發明之另一目的，在於提供一種太陽能板檢測機台，利用電極與滑軌平行設置的構造，可大範圍移動探針之位置，而無需整理導線。
本發明之又一目的，在於提供一種太陽能板檢測機台，其探針以金屬條連接，且金屬條設置於探針架之上端面或下端面，可提供良好的傳導效果，且無額外遮蔽或陰影產生。
本發明提供一種太陽能板檢測機台，包含：一基座；一上檢測架，設於基座前端上方，該上檢測架之兩側邊分別設有一上滑軌，並於其中至少一側邊設置一上電極，該上電極與上滑軌平行設置；複數個上探針架模組，各上探針架模組之兩端分別可滑動設置於兩側之上滑軌，各上探針架模組分別設有複數個探針及一上金屬條，該上金屬條連接各探針，並經由一上電極接點組連接該上電極；一下檢測架，設於基座前端下方，該下檢測架之兩側邊分別設有一下滑軌，並於其中至少一側邊設置一下電極，該下電極與下滑軌平行設置；及複數個下探針架模組，各下探針架模組之兩端分別可滑動設置於兩側之下滑軌，各下探針架模組分別設有複數個探針及一下金屬條，該下金屬條連接各探針，並經由一下電極接點組連接該下電極；其中，該上檢測架及下檢測架可利用探針夾持一太陽能板進行檢測。
上述太陽能板檢測機台之一實施例，其中各上探針架模組包含有：二上滑塊，分別可滑動套設於兩側之上滑軌；一上探針架，兩端分別設置於上滑塊；一第一上金屬條，設置於上探針架之上端面或下端面；複數個探針，設置於上探針架並分別連接第一上金屬條；及一或二個上電極接點組，分別設於二上滑塊之其中之一，令第一上金屬條與上電極形成電性連接。
上述太陽能板檢測機台之一實施例，其中各上電極接點組包含有：一接點座，連接上滑塊；至少一電極接點，設置於該接點座，用以與上電極電性連接。
上述太陽能板檢測機台之一實施例，其中各上電極接點組尚包含有一旋鈕，用以調整接點座之高低，可令各電極接點接觸或離開上電極。
上述太陽能板檢測機台之一實施例，其中各上探針架模組之電極接點係以一導線連接第一上金屬條。
上述太陽能板檢測機台之一實施例，其中各下探針架模組包含有：二下滑塊，分別可滑動套設於兩側之下滑軌；一下探針架，兩端分別設置於下滑塊；一第一下金屬條，設置於下探針架之上端面或下端面；複數個探針，設置於下探針架並分別連接第一下金屬條；及一或二個下電極接點組，分別設於二下滑塊之其中之一，令第一下金屬條與下電極形成電性連接。
上述太陽能板檢測機台之一實施例，其中各下電極接點組包含有：一接點座，連接下滑塊；至少一電極接點，設置於該接點座，用以與下電極電性連接。
上述太陽能板檢測機台之一實施例，其中各下電極接點組尚包含有一旋鈕，用以調整接點座之高低，可令各電極接點接觸或離開下電極。
上述太陽能板檢測機台之一實施例，其中各下探針架模組之電極接點係以一導線連接第一下金屬條。
上述太陽能板檢測機台之一實施例，其中各探針分別包含有一套筒及一接觸端。
上述太陽能板檢測機台之一實施例，其中各上探針架模組包含有：二上滑塊，分別可滑動套設於兩側之上滑軌；一上探針架，兩端分別設置於上滑塊；一第一上金屬條，設置於上探針架之下端面；一第二上金屬條，設置於上探針架之上端面；複數個探針，設置於上探針架；及二上電極接點組，分別設於二上滑塊，令第一上金屬條及第二上金屬條與上電極分別形成電性連接；其中，複數個探針中一部分探針連接第一上金屬條，另一部分探針連接第二上金屬條。
上述太陽能板檢測機台之一實施例，其中各下探針架模組包含有：二下滑塊，分別可滑動套設於兩側之下滑軌；一下探針架，兩端分別設置於下滑塊；一第一下金屬條，設置於下探針架之下端面；一第二下金屬條，設置於下探針架之上端面；複數個探針，設置於下探針架；及二下電極接點組，分別設於二下滑塊，令第一下金屬條及第二下金屬條與下電極分別形成電性連接；其中，複數個探針中一部分探針連接第一下金屬條，另一部分探針連接第二下金屬條。
An object of the present invention is to provide a solar panel detecting machine, and more particularly to a solar panel detecting machine capable of moving a probe in a wide range.
Another object of the present invention is to provide a solar panel detecting machine which can move the position of the probe in a wide range by using a structure in which the electrodes are arranged in parallel with the slide rails without arranging the wires.
Another object of the present invention is to provide a solar panel detecting machine, wherein the probes are connected by metal strips, and the metal strip is disposed on the upper end surface or the lower end surface of the probe holder, which can provide good conduction effect without additional shielding. Or a shadow is produced.
The invention provides a solar panel detecting machine, comprising: a base; an upper detecting frame, disposed above the front end of the base, wherein the upper side of the upper detecting frame is respectively provided with an upper sliding rail, and at least one side of the upper detecting frame An upper electrode is disposed, the upper electrode is disposed in parallel with the upper sliding rail; and a plurality of upper probe holder modules are respectively slidably disposed on the two sides of the upper probe bracket module, and the upper probes are respectively The rack module is respectively provided with a plurality of probes and an upper metal strip, the upper metal strips are connected to the probes, and the upper electrodes are connected via an upper electrode contact group; the lower detection frame is disposed under the front end of the base, A sliding rail is disposed on each side of the lower detecting frame, and an electrode is disposed on at least one side of the lower detecting frame, the lower electrode is disposed in parallel with the lower sliding rail; and a plurality of lower probe frame modules, each lower probe frame module The two ends of the probe frame are respectively slidably disposed on the sliding rails on both sides, and each of the lower probe frame modules is respectively provided with a plurality of probes and a lower metal strip, and the lower metal strips are connected to the probes and connected through the lower electrode contact groups. The lower electrode; wherein the upper detection frame and the lower detection frame It is detected by a probe holding solar panel.
In an embodiment of the solar panel detecting machine, each of the upper probe rack modules comprises: two upper sliders, respectively slidably sleeved on the two sides of the sliding rail; an upper probe frame, respectively disposed at both ends a first upper metal strip disposed on an upper end surface or a lower end surface of the upper probe holder; a plurality of probes disposed on the upper probe holder and respectively connected to the first upper metal strip; and one or two The upper electrode contact group is respectively disposed on one of the two upper sliders, so that the first upper metal strip is electrically connected to the upper electrode.
An embodiment of the solar panel detecting machine, wherein each of the upper electrode contact groups comprises: a contact seat connected to the upper slider; at least one electrode contact disposed on the contact seat for electrically connecting with the upper electrode Sexual connection.
In an embodiment of the solar panel detecting machine, each of the upper electrode contact groups further includes a knob for adjusting the height of the contact seat, so that the electrode contacts can contact or leave the upper electrode.
In one embodiment of the solar panel inspection machine, the electrode contacts of each of the upper probe holder modules are connected to the first upper metal strip by a wire.
In one embodiment of the solar panel detecting machine, each of the lower probe rack modules comprises: two lower sliding blocks respectively slidably disposed on the sliding rails on both sides; and a lower probe holder, the two ends of which are respectively disposed on the lower sliding block a first lower metal strip disposed on the upper end surface or the lower end surface of the lower probe holder; a plurality of probes disposed on the lower probe holder and respectively connected to the first lower metal strip; and one or two lower electrode contacts The group is respectively disposed on one of the two lower sliders, so that the first lower metal strip is electrically connected to the lower electrode.
An embodiment of the solar panel detecting machine, wherein each of the lower electrode contact groups comprises: a contact seat connected to the lower slider; at least one electrode contact disposed on the contact seat for electrically connecting the lower electrode connection.
In one embodiment of the solar panel detecting machine, each of the lower electrode contact groups further includes a knob for adjusting the height of the contact seat, so that the electrode contacts can contact or leave the lower electrode.
In one embodiment of the solar panel inspection machine, the electrode contacts of each lower probe holder module are connected to the first lower metal strip by a wire.
In one embodiment of the solar panel inspection machine, each of the probes includes a sleeve and a contact end.
In an embodiment of the solar panel detecting machine, each of the upper probe rack modules comprises: two upper sliders, respectively slidably sleeved on the two sides of the sliding rail; an upper probe frame, respectively disposed at both ends a first upper metal strip disposed on the lower end surface of the upper probe holder; a second upper metal strip disposed on the upper end surface of the upper probe holder; a plurality of probes disposed on the upper probe holder And two upper electrode contact groups are respectively disposed on the two upper sliders, so that the first upper metal strip and the second upper metal strip and the upper electrode respectively form an electrical connection; wherein a part of the plurality of probes are connected to the probe One upper metal strip and the other part of the probe are connected to the second upper metal strip.
In one embodiment of the solar panel detecting machine, each of the lower probe rack modules comprises: two lower sliding blocks respectively slidably disposed on the sliding rails on both sides; and a lower probe holder, the two ends of which are respectively disposed on the lower sliding block a first lower metal strip disposed on the lower end surface of the lower probe holder; a second lower metal strip disposed on the upper end surface of the lower probe holder; a plurality of probes disposed on the lower probe holder; and two lower The electrode contact groups are respectively disposed on the two lower sliders, so that the first lower metal strip and the second lower metal strip and the lower electrode are respectively electrically connected; wherein a part of the plurality of probes are connected to the first lower metal strip, Another part of the probe is connected to the second lower metal strip.
10‧‧‧太陽能板檢測機台
12‧‧‧基座
14‧‧‧上檢測架
141‧‧‧上滑軌
143‧‧‧上電極
15‧‧‧探針
151‧‧‧套筒
153‧‧‧接觸端
16‧‧‧下檢測架
161‧‧‧下滑軌
163‧‧‧下電極
18‧‧‧上探針架模組
181‧‧‧上滑塊
182‧‧‧上探針架
183‧‧‧上金屬條
184‧‧‧上電極接點組
185‧‧‧接點座
186‧‧‧旋鈕
187‧‧‧電極接點
19‧‧‧下探針架模組
191‧‧‧下滑塊
192‧‧‧下探針架
193‧‧‧下導體
194‧‧‧下電極接點組
195‧‧‧接點座
196‧‧‧旋鈕
197‧‧‧電極接點10‧‧‧Solar panel inspection machine
12‧‧‧ Pedestal
14‧‧‧Upper inspection rack
141‧‧‧Upper rail
143‧‧‧Upper electrode
15‧‧‧ probe
151‧‧‧ sleeve
153‧‧‧Contact end
16‧‧‧下下架
161‧‧‧Lower rail
163‧‧‧ lower electrode
18‧‧‧Upper probe frame module
181‧‧‧Upper slider
182‧‧‧Upper probe holder
183‧‧‧Metal strip
184‧‧‧Upper electrode contact group
185‧‧‧Contact Block
186‧‧‧ knob
187‧‧‧Electrode contacts
19‧‧‧Lower probe frame module
191‧‧‧ Lower slider
192‧‧‧Lower probe holder
193‧‧‧lower conductor
194‧‧‧ lower electrode contact group
195‧‧‧Contact Block
196‧‧‧ knob
197‧‧‧Electrode contacts
第１圖：係本發明一實施例之示意圖。
第２圖：係本發明如第１圖所示實施例之局部放大圖。
Fig. 1 is a schematic view showing an embodiment of the present invention.
Fig. 2 is a partially enlarged view of the embodiment of the present invention as shown in Fig. 1.
請參閱第１圖及第２圖，係分別為本發明太陽能板檢測機台一實施例之示意圖及局部放大圖。如圖所示，本發明之太陽能板檢測機台10包含有：一基座12、一上檢測架14、複數個上探針架模組18、一下檢測架16及複數個下探針架模組19。
其中，上檢測架14設於基座12前端上方，兩側邊分別設有一上滑軌141，於至少一側邊設置一上電極143，並令該上電極143與上滑軌141平行設置。
各上探針架模組18之兩端分別可滑動設置於兩側之上滑軌141，各上探針架模組18分別設有複數個探針15及一上金屬條183。各探針15分別連接該上金屬條183，並經由一上電極接點組184連接該上電極143。
下檢測架16設於基座12前端下方，兩側邊分別設有一下滑軌161，於至少一側邊設置一下電極163，並令該下電極163與下滑軌161平行設置。
各下探針架模組19之兩端分別可滑動設置於兩側之下滑軌161，各下探針架模組19分別設有複數個探針15及一下金屬條193。各探針15分別連接該下金屬條193，並經由一下電極接點組194連接該下電極163。
利用本發明之太陽能板檢測機台10之構造，可由設於上檢測架14及下檢測架16之探針15夾持一太陽能板(未顯示)進行檢測。
在本發明之一實施例中，可利用各上探針架模組18與下探針架模組19可分別於上檢測架14與下檢測架16上滑動的構造，依需求自由調整各探針架模組的位置，以利檢測之進行。
在本發明之一實施例中，各上探針架模組18包含有：二上滑塊181、一上探針架182、一上金屬條183、複數個探針15及一上電極接點組184。其中，二上滑塊181分別可滑動套設於上檢測架14兩側之上滑軌141。上探針架182之兩端分別設置於兩側之上滑塊181；上金屬條183設置於上探針架182之上端面或下端面(圖示實施例係設於下端面)。複數個探針15則設置於上探針架182，並分別與上金屬條183形成電性連接。上電極接點組184設於二上滑塊181之其中之一，可令上金屬條183與上電極143形成電性電連接。
利用本實施例之太陽能板檢測機台10構造，可減少機台在太陽能板上所造成的遮蔽面積或陰影，提高檢測之準確度，並可提高機台之電性效能與散熱效率。
在本發明之一實施例中，尚可於相對於上電極接點組184之另一滑塊181設置另一上電極接點組184，並令上金屬條183透過另一上電極接點組184與另一側之上電極143形成電性連接。利用本實施例之太陽能板檢測機台10構造，可於檢測時分散電流路徑，減少各路徑之發熱量，並可提高裝置之安全性及可靠度。
在本發明之一實施例中，各上電極接點組184分別包含有：一接點座185及至少一電極接點187。其中，接點座185設置於上滑塊181；電極接點187設置於該接點座185，用以與上電極143形成電性連接。
在本發明之一實施例中，各上電極接點組184尚設有一旋鈕186，用以調整接點座185之高低，可令各電極接點187接觸或離開上電極143。利用本實施例之構造，可於各上探針架模組18需進行移動或不使用時，令電極接點187離開上電極143，藉以減少電極接點187與上電極143之摩擦損耗，並防止意外觸電之危險。
在本發明之一實施例中，各上探針架模組18之電極接點187係以一導線(未顯示)連接上金屬條183。
在本發明之一實施例中，各下探針架模組19包含有：二下滑塊191、一下探針架192、一下金屬條193、複數個探針15及一下電極接點組194。其中，二下滑塊191分別可滑動套設於下檢測架16兩側之下滑軌161。下探針架192之兩端分別設置於兩側之下滑塊191；下金屬條193設置於下探針架192之上端面或下端面(圖示實施例係設於上端面)。複數個探針15則設置於下探針架192，並分別與下金屬條193形成電性連接。下電極接點組194設於二下滑塊191之其中之一，可令下金屬條193與下電極163形成電性電連接。
利用本實施例之太陽能板檢測機台10構造，可提高檢測之準確度，並可提高機台之電性效能與散熱效率。
在本發明之一實施例中，尚可於相對於下電極接點組194之另一滑塊191設置另一下電極接點組194，並令下金屬條193透過另一下電極接點組194與另一側之下電極163形成電性連接。利用本實施例之太陽能檢測機台10構造，可於檢測時分散電流路行，減少各路徑之發熱量，並可提高裝置之安全性及可靠度。
在本發明之一實施例中，各下電極接點組194分別包含有：一接點座195及至少一電極接點197。其中，接點座195設置於下滑塊191；電極接點197設置於該接點座195，用以與下電極163形成電性連接。
在本發明之一實施例中，各下電極接點組194尚設有一旋鈕196，用以調整接點座195之高低，可令各電極接點197接觸或離開下電極163。利用本實施例之構造，可於各下探針架模組19需進行移動或不使用時，令電極接點197離開下電極163，藉以減少電極接點197與下電極163之摩擦損耗，並防止意外觸電之危險。
在本發明之一實施例中，各下探針架模組19之電極接點197係以一導線(未顯示)連接下金屬條193。
在本發明之一實施例中，尚可於上探針架182相對於上金屬條183之另一端面設置(如圖示之上端面)另一上金屬條(未顯示)，於相對於上電極接點組184之另一滑塊181設置另一上電極接點組184，並令該另一上金屬條透過另一上電極接點組184與另一側之上電極143形成電性連接。其中，複數個探針15中之一部分探針連接上金屬條183，另一部分探針連接該另一上金屬條。
在本發明之一實施例中，尚可於下探針架192相對於下金屬條193之另一端面設置(如圖示之下端面)另一下金屬條(未顯示)，於相對於下電極接點組194之另一滑塊191設置另一下電極接點組194，並令該另一下金屬條透過另一下電極接點組194與另一側之下電極163形成電性連接。其中，複數個探針15中之一部分探針連接下金屬條193，另一部分探針連接該另一下金屬條。
利用本實施例之構造，並令上檢測架14兩側之上電極143及下檢測架16兩側之下電極163分別連接至不同的檢測儀器，即可於同一機台中同時檢測兩種數值，藉以縮短檢測流程及時間。
由上述說明可知，利用本發明之太陽能板檢測機台10之構造，除了可依需求移動探針架的位置之外，尚可減少連接各探針之導線簡化機台構造，強化機台之電性效能，且可減少太陽能板上的遮蔽或陰影面積。
以上所述者，僅為本發明之實施例而已，並非用來限定本發明實施之範圍，即凡依本發明申請專利範圍所述之形狀、構造、特徵、方法及精神所為之均等變化與修飾，均應包括於本發明之申請專利範圍內。
Please refer to FIG. 1 and FIG. 2 , which are respectively a schematic view and a partial enlarged view of an embodiment of a solar panel detecting machine of the present invention. As shown in the figure, the solar panel inspection machine 10 of the present invention comprises: a base 12, an upper detection frame 14, a plurality of upper probe holder modules 18, a lower detection frame 16 and a plurality of lower probe frame molds. Group 19.
The upper detecting frame 14 is disposed above the front end of the base 12, and an upper sliding rail 141 is disposed on each of the two sides, and an upper electrode 143 is disposed on at least one side thereof, and the upper electrode 143 is disposed in parallel with the upper sliding rail 141.
The two ends of the upper probe frame module 18 are slidably disposed on the two sides of the slide rails 141, and each of the upper probe rack modules 18 is respectively provided with a plurality of probes 15 and an upper metal strip 183. Each of the probes 15 is connected to the upper metal strip 183, and is connected to the upper electrode 143 via an upper electrode contact group 184.
The lower detecting frame 16 is disposed below the front end of the base 12, and a sliding rail 161 is disposed on each of the two sides, and the lower electrode 163 is disposed on at least one side, and the lower electrode 163 is disposed in parallel with the lower rail 161.
The two ends of each of the lower probe holder modules 19 are slidably disposed on the sliding rails 161 on both sides, and each of the lower probe holder modules 19 is provided with a plurality of probes 15 and a lower metal strip 193, respectively. Each of the probes 15 is connected to the lower metal strip 193, and is connected to the lower electrode 163 via a lower electrode contact group 194.
With the configuration of the solar panel detecting machine 10 of the present invention, a solar panel (not shown) can be sandwiched by the probes 15 provided on the upper detecting frame 14 and the lower detecting frame 16 for detection.
In an embodiment of the present invention, each of the upper probe holder module 18 and the lower probe holder module 19 can be respectively slid on the upper detection frame 14 and the lower detection frame 16, and the probes can be freely adjusted according to requirements. The position of the needle holder module is used for the detection.
In an embodiment of the present invention, each of the upper probe holder modules 18 includes: two upper sliders 181, an upper probe holder 182, an upper metal strip 183, a plurality of probes 15 and an upper electrode contact. Group 184. The two upper sliders 181 are slidably sleeved on the upper rails 141 of the upper detection frame 14 . The two ends of the upper probe holder 182 are respectively disposed on the upper side of the upper slider 181; the upper metal strip 183 is disposed on the upper end surface or the lower end surface of the upper probe holder 182 (the illustrated embodiment is disposed on the lower end surface). A plurality of probes 15 are disposed on the upper probe holder 182 and electrically connected to the upper metal strips 183, respectively. The upper electrode contact group 184 is disposed on one of the two upper sliders 181 to electrically connect the upper metal strip 183 and the upper electrode 143.
By using the solar panel detecting machine 10 structure of the embodiment, the shielding area or shadow caused by the machine on the solar panel can be reduced, the accuracy of detection can be improved, and the electrical performance and heat dissipation efficiency of the machine can be improved.
In an embodiment of the present invention, another upper electrode contact group 184 is disposed on the other slider 181 with respect to the upper electrode contact group 184, and the upper metal strip 183 is passed through the other upper electrode contact group. The 184 is electrically connected to the upper electrode 143 on the other side. By using the solar panel detecting machine 10 structure of the embodiment, the current path can be dispersed during the detection, the heat generation of each path can be reduced, and the safety and reliability of the device can be improved.
In an embodiment of the present invention, each of the upper electrode contact groups 184 includes a contact pad 185 and at least one electrode contact 187. The contact pad 185 is disposed on the upper slider 181. The electrode contact 187 is disposed on the contact pad 185 for electrically connecting with the upper electrode 143.
In an embodiment of the present invention, each of the upper electrode contact groups 184 is further provided with a knob 186 for adjusting the height of the contact base 185 to contact or leave the upper electrode 143. With the configuration of the embodiment, when the upper probe frame module 18 needs to be moved or not used, the electrode contact 187 is separated from the upper electrode 143, thereby reducing the friction loss between the electrode contact 187 and the upper electrode 143, and Prevent the risk of accidental electric shock.
In one embodiment of the invention, the electrode contacts 187 of each of the upper probe holder modules 18 are connected to the metal strips 183 by a wire (not shown).
In one embodiment of the present invention, each of the lower probe holder modules 19 includes a lower slider 191, a lower probe holder 192, a lower metal strip 193, a plurality of probes 15 and a lower electrode contact group 194. The two lower sliders 191 are respectively slidably sleeved on the sliding rails 161 on both sides of the lower detecting frame 16 . The two ends of the lower probe holder 192 are respectively disposed on the lower side sliders 191; the lower metal strips 193 are disposed on the upper end surface or the lower end surface of the lower probe holder 192 (the illustrated embodiment is disposed on the upper end surface). A plurality of probes 15 are disposed on the lower probe holder 192 and electrically connected to the lower metal strips 193, respectively. The lower electrode contact group 194 is disposed on one of the two lower sliders 191 to electrically connect the lower metal strip 193 and the lower electrode 163.
By using the solar panel detecting machine 10 structure of the embodiment, the accuracy of the detection can be improved, and the electrical performance and heat dissipation efficiency of the machine can be improved.
In an embodiment of the present invention, another lower electrode contact group 194 is disposed on the other slider 191 of the lower electrode contact group 194, and the lower metal strip 193 is passed through the other lower electrode contact group 194. The lower side electrode 163 on the other side forms an electrical connection. By using the solar energy detecting machine 10 structure of the embodiment, the current path can be dispersed during the detection, the heat generation of each path can be reduced, and the safety and reliability of the device can be improved.
In one embodiment of the present invention, each of the lower electrode contact groups 194 includes a contact pad 195 and at least one electrode contact 197. The contact pad 195 is disposed on the lower slider 191. The electrode contact 197 is disposed on the contact pad 195 for electrically connecting with the lower electrode 163.
In one embodiment of the present invention, each of the lower electrode contact sets 194 is further provided with a knob 196 for adjusting the height of the contact base 195 to allow the electrode contacts 197 to contact or leave the lower electrode 163. With the configuration of the embodiment, when the lower probe holder module 19 needs to be moved or not used, the electrode contact 197 is separated from the lower electrode 163, thereby reducing the friction loss between the electrode contact 197 and the lower electrode 163. Prevent the risk of accidental electric shock.
In one embodiment of the invention, the electrode contacts 197 of each of the lower probe holder modules 19 are connected to the lower metal strip 193 by a wire (not shown).
In an embodiment of the present invention, the upper probe holder 182 is disposed on the other end surface of the upper metal strip 183 (such as the upper end surface as shown) and another upper metal strip (not shown) on the opposite side. The other slider 181 of the electrode contact group 184 is provided with another upper electrode contact group 184, and the other upper metal strip is electrically connected to the other upper electrode 143 through the other upper electrode contact group 184. . Wherein, one of the plurality of probes 15 is connected to the metal strip 183, and the other part of the probe is connected to the other upper metal strip.
In an embodiment of the present invention, another lower metal strip (not shown) may be disposed on the other end surface of the lower probe holder 192 with respect to the lower end of the lower metal strip 193 (not shown), relative to the lower electrode. The other slider 191 of the contact group 194 is provided with another lower electrode contact group 194, and the other lower metal strip is electrically connected to the other lower electrode 163 through the other lower electrode contact group 194. Wherein, one of the plurality of probes 15 is connected to the lower metal strip 193, and the other part of the probe is connected to the other lower metal strip.
By using the configuration of the embodiment, and the upper electrode 143 on both sides of the upper detecting frame 14 and the lower electrode 163 on the lower sides of the lower detecting frame 16 are respectively connected to different detecting instruments, two values can be simultaneously detected in the same machine. In order to shorten the testing process and time.
As can be seen from the above description, by using the structure of the solar panel detecting machine 10 of the present invention, in addition to the position where the probe holder can be moved as needed, the wire connecting the probes can be simplified to simplify the structure of the machine, and the power of the machine can be enhanced. Sexual performance, and can reduce the shadow or shadow area on the solar panel.
The above is only the embodiment of the present invention, and is not intended to limit the scope of the present invention, that is, the equivalent changes and modifications of the shapes, structures, features, methods and spirits described in the claims of the present invention. All should be included in the scope of the patent application of the present invention.
10‧‧‧太陽能板檢測機台 10‧‧‧Solar panel inspection machine
12‧‧‧基座 12‧‧‧ Pedestal
14‧‧‧上檢測架 14‧‧‧Upper inspection rack
141‧‧‧上滑軌 141‧‧‧Upper rail
143‧‧‧上電極 143‧‧‧Upper electrode
15‧‧‧探針 15‧‧‧ probe
16‧‧‧下檢測架 16‧‧‧下下架
161‧‧‧下滑軌 161‧‧‧Lower rail
163‧‧‧下電極 163‧‧‧ lower electrode
18‧‧‧上探針架模組 18‧‧‧Upper probe frame module
181‧‧‧上滑塊 181‧‧‧Upper slider
182‧‧‧上探針架 182‧‧‧Upper probe holder
183‧‧‧上金屬條 183‧‧‧Metal strip
184‧‧‧上電極接點組 184‧‧‧Upper electrode contact group
185‧‧‧接點座 185‧‧‧Contact Block
186‧‧‧旋鈕 186‧‧‧ knob
187‧‧‧電極接點 187‧‧‧Electrode contacts
19‧‧‧下探針架模組 19‧‧‧Lower probe frame module
191‧‧‧下滑塊 191‧‧‧ Lower slider
192‧‧‧下探針架 192‧‧‧Lower probe holder
193‧‧‧下金屬條 193‧‧‧Metal strip
194‧‧‧下電極接點組 194‧‧‧ lower electrode contact group
195‧‧‧接點座 195‧‧‧Contact Block
196‧‧‧旋鈕 196‧‧‧ knob
197‧‧‧電極接點 197‧‧‧Electrode contacts
Claims (1)
2.如申請專利範圍第1項所述之太陽能板檢測機台，其中各上探針架模組包含有：二上滑塊，分別可滑動套設於兩側之上滑軌；一上探針架，兩端分別設置於上滑塊；一第一上金屬條，設置於上探針架之上端面或下端面；複數個探針，設置於上探針架並分別連接第一上金屬條；及一或二個上電極接點組，分別設於二上滑塊之其中之一，令第一上金屬條與上電極形成電性連接。
3.如申請專利範圍第2項所述之太陽能板檢測機台，其中各上電極接點組包含有：一接點座，連接上滑塊；至少一電極接點，設置於該接點座，用以與上電極電性連接。
4.如申請專利範圍第3項所述之太陽能板檢測機台，其中各上電極接點組尚包含有一旋鈕，用以調整接點座之高低，可令各電極接點接觸或離開上電極。
5.如申請專利範圍第3項所述之太陽能板檢測機台，其中各上探針架模組之電極接點係以一導線連接第一上金屬條。
6.如申請專利範圍第1項所述之太陽能板檢測機台，其中各下探針架模組包含有：二下滑塊，分別可滑動套設於兩側之下滑軌；一下探針架，兩端分別設置於下滑塊；一第一下金屬條，設置於下探針架之上端面或下端面；複數個探針，設置於下探針架並分別連接第一下金屬條；及一或二個下電極接點組，分別設於二下滑塊之其中之一，令第一下金屬條與下電極形成電性連接。
7.如申請專利範圍第6項所述之太陽能板檢測機台，其中各下電極接點組包含有：一接點座，連接下滑塊；至少一電極接點，設置於該接點座，用以與下電極電性連接。
8.如申請專利範圍第7項所述之太陽能板檢測機台，其中各下電極接點組尚包含有一旋鈕，用以調整接點座之高低，可令各電極接點接觸或離開下電極。
9.如申請專利範圍第7項所述之太陽能板檢測機台，其中各下探針架模組之電極接點係以一導線連接第一下金屬條。
10.如申請專利範圍第1項所述之太陽能板檢測機台，其中各探針分別包含有一套筒及一接觸端。
11.如申請專利範圍第1項所述之太陽能板檢測機台，其中各上探針架模組包含有：二上滑塊，分別可滑動套設於兩側之上滑軌；一上探針架，兩端分別設置於上滑塊；一第一上金屬條，設置於上探針架之下端面；一第二上金屬條，設置於上探針架之上端面；複數個探針，設置於上探針架；及二上電極接點組，分別設於二上滑塊，令第一上金屬條及第二上金屬條與上電極分別形成電性連接；其中，複數個探針中一部分探針連接第一上金屬條，另一部分探針連接第二上金屬條。
12.如申請專利範圍第1項所述之太陽能板檢測機台，其中各下探針架模組包含有：二下滑塊，分別可滑動套設於兩側之下滑軌；一下探針架，兩端分別設置於下滑塊；一第一下金屬條，設置於下探針架之下端面；一第二下金屬條，設置於下探針架之上端面；複數個探針，設置於下探針架；及二下電極接點組，分別設於二下滑塊，令第一下金屬條及第二下金屬條與下電極分別形成電性連接；其中，複數個探針中一部分探針連接第一下金屬條，另一部分探針連接第二下金屬條。
A solar panel detecting machine comprises: a base; an upper detecting frame, disposed above the front end of the base, the upper side of the upper detecting frame is respectively provided with an upper sliding rail, and an upper side is disposed on at least one side thereof An electrode, the upper electrode is disposed in parallel with the upper sliding rail; a plurality of upper probe frame modules, the two ends of each upper probe frame module are slidably disposed on the two sides of the sliding rail, and each upper probe frame module Each of the plurality of probes and a first upper metal strip are respectively connected to the probes, and the upper electrodes are connected via an upper electrode contact group; the lower detection frame is disposed below the front end of the base. A sliding rail is disposed on each side of the lower detecting frame, and an electrode is disposed on at least one side of the lower detecting frame, the lower electrode is disposed in parallel with the lower sliding rail; and a plurality of lower probe holder modules, each lower probe frame module The two ends of the group are respectively slidably disposed on the sliding rails on both sides, and each of the lower probe rack modules is respectively provided with a plurality of probes and a first lower metal strip, and the first lower metal strip is connected to each probe, and a lower electrode contact group is connected to the lower electrode; wherein the upper detection frame and the lower Measuring carrier can be detected with a probe holding a solar panel.
2. The solar panel inspection machine according to claim 1, wherein each of the upper probe frame modules comprises: two upper sliders, respectively slidably sleeved on the two sides of the slide rail; The needle holder has two ends respectively disposed on the upper slider; a first upper metal strip is disposed on the upper end surface or the lower end surface of the upper probe holder; a plurality of probes are disposed on the upper probe holder and respectively connected to the first upper metal And one or two upper electrode contact groups are respectively disposed on one of the two upper sliders, so that the first upper metal strip and the upper electrode are electrically connected.
3. The solar panel inspection machine of claim 2, wherein each of the upper electrode contact groups comprises: a contact seat connected to the upper slider; at least one electrode contact disposed at the contact seat For electrically connecting to the upper electrode.
4. The solar panel inspection machine of claim 3, wherein each of the upper electrode contact groups further includes a knob for adjusting the height of the contact seat, so that the electrode contacts contact or leave the upper electrode. .
5. The solar panel inspection machine of claim 3, wherein the electrode contacts of each of the upper probe holder modules are connected to the first upper metal strip by a wire.
6. The solar panel inspection machine of claim 1, wherein each lower probe frame module comprises: two lower sliders, respectively slidable on the sliding rails on both sides; a lower probe holder, The two ends are respectively disposed on the lower slider; a first lower metal strip is disposed on the upper end surface or the lower end surface of the lower probe holder; a plurality of probes are disposed on the lower probe holder and respectively connected to the first lower metal strip; and one Or two lower electrode contact groups are respectively disposed on one of the two lower sliders, so that the first lower metal strip and the lower electrode form an electrical connection.
7. The solar panel inspection machine according to claim 6, wherein each of the lower electrode contact groups comprises: a contact seat connected to the lower slider; at least one electrode contact is disposed at the contact seat, It is used to electrically connect with the lower electrode.
8. The solar panel inspection machine according to claim 7, wherein each of the lower electrode contact groups further comprises a knob for adjusting the height of the contact seat, so that the contact points of the electrodes contact or leave the lower electrode. .
9. The solar panel inspection machine of claim 7, wherein the electrode contacts of each of the lower probe holder modules are connected to the first lower metal strip by a wire.
10. The solar panel inspection machine of claim 1, wherein each of the probes comprises a sleeve and a contact end.
11. The solar panel inspection machine of claim 1, wherein each of the upper probe frame modules comprises: two upper sliders, respectively slidably sleeved on the two sides of the slide rail; The needle holder has two ends respectively disposed on the upper slider; a first upper metal strip disposed on the lower end surface of the upper probe holder; a second upper metal strip disposed on the upper end surface of the upper probe holder; a plurality of probes , disposed on the upper probe holder; and two upper electrode contact groups, respectively disposed on the two upper sliders, so that the first upper metal strip and the second upper metal strip and the upper electrode respectively form an electrical connection; wherein, a plurality of probes A part of the probe is connected to the first upper metal strip, and the other part of the probe is connected to the second upper metal strip.
12. The solar panel inspection machine of claim 1, wherein each of the lower probe holder modules comprises: two lower sliders, respectively slidably disposed on the sliding rails on both sides; a lower probe holder, The two ends are respectively disposed on the lower slider; a first lower metal strip is disposed on the lower end surface of the lower probe holder; a second lower metal strip is disposed on the upper end surface of the lower probe holder; a plurality of probes are disposed under The probe holder and the two lower electrode contact groups are respectively disposed on the two lower sliders, so that the first lower metal strip and the second lower metal strip and the lower electrode respectively form an electrical connection; wherein a part of the plurality of probes are electrically connected The first lower metal strip is connected, and the other part of the probe is connected to the second lower metal strip.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| TW102146401A TW201525479A (en) | 2013-12-16 | 2013-12-16 | Solar panel inspection machine table |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| TW102146401A TW201525479A (en) | 2013-12-16 | 2013-12-16 | Solar panel inspection machine table |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| TW201525479A true TW201525479A (en) | 2015-07-01 |
Family
ID=54197569
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| TW102146401A TW201525479A (en) | 2013-12-16 | 2013-12-16 | Solar panel inspection machine table |
Country Status (1)
| Country | Link |
|---|---|
| TW (1) | TW201525479A (en) |
Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| TWI488407B (en) * | 2012-11-23 | 2015-06-11 | Htc Corp | Battery module |
| CN112212910A (en) * | 2020-08-28 | 2021-01-12 | 南京沃瑞新能源科技有限公司 | New energy photovoltaic panel good product detection platform and use method |
| CN114985313A (en) * | 2022-07-19 | 2022-09-02 | 宿迁庆阳太阳能科技有限公司 | Sample testing system based on solar panel processing |
-
2013
- 2013-12-16 TW TW102146401A patent/TW201525479A/en unknown
Cited By (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| TWI488407B (en) * | 2012-11-23 | 2015-06-11 | Htc Corp | Battery module |
| CN112212910A (en) * | 2020-08-28 | 2021-01-12 | 南京沃瑞新能源科技有限公司 | New energy photovoltaic panel good product detection platform and use method |
| CN114985313A (en) * | 2022-07-19 | 2022-09-02 | 宿迁庆阳太阳能科技有限公司 | Sample testing system based on solar panel processing |
| CN114985313B (en) * | 2022-07-19 | 2022-10-21 | 宿迁庆阳太阳能科技有限公司 | Sample testing system based on solar panel processing |
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