1321543 » » 、九、發明說明： 【發明所屬之技術領域】 本發明係有關於-種緩衝包《結構；具體而言，本發明係 有關於-種利用被包褒物本身、结構作為緩衝之緩衝包^吉構。 【先前技術】 易碎物品之包裝向來為產品運送時之重要課題。包裝不夠 • 妥善時’往往造成物品於運送過程中之損壞，進而增加生產成 本。特別是具高精密性或易碎性之電子震置，例如液晶顯示裝 , 置、賴顯示裝置、有機發光二極體顯示器、家庭劇院組、燈 具等，容易因為運送過程中之撞擊而破壞内部之電路構造或其 他易碎結構’進而造成產品之損失。 以圖la及圖lb所示之顯示聚置包裝為例，一般在產品運 ^過程中，均將顯示裝置面板70無支觀5〇分離。首先將 1 目體1G之底部填充緩衝材⑵，接著將折疊至最小壓縮位置之 ^撐座50放入緩衝材22中。支樓座50上方設置有隔板30， 藉以隔離切座5G無板3G上方之顯讀置面板7{)，以避 免支樓座50在運送過程中撞擊顯示裝置面板7〇。最後在顯示 裝置面板70上方填充緩衝材21，以完成裝箱作業。 在上述之包裝方式中’對外力衝擊之防護及緩衝完全仰賴 其^所充填之緩衝材2卜22及隔板3G，因此缓衝材2卜22 及隔板^30之厚度及材質即決定了全部的緩衝效果。相對而 。支揮座則為其間造成顯示裝置面板7〇破壞的因素之 5 mi外，支撐座5(1之結構中多設有彈簧或其他之彈性材料， 體找之緩衝結構t作為吸震材料，亦 十分可惜。因此如何在包健射將樣t自魏電子裝置1 :改變為增加緩衝效果之裝置’即成為本發明之思考 【發明内容】 衝結構，具有較節省緩 衝材设置之優點。 ，發明之目的在於提供—種緩衝包裝結構，彻被包裝物 本身之結構提供緩衝、吸震之效果，以達避震之功能。 本發明之緩衝包裝結要包含紐、第— 部，以及被包裝之可變形第一内容物及第二内容物。箱體斜 :::間’第一緩衝材係設置於内部靖 置於箱體之内部空間中，並在其與第一緩衝材間形成 一工間。可變形第-内容物係處於伸張狀態與壓縮狀態間之 一較伸張狀態，並容納於第—空間内。此外，可變形第一内容 物較佳係讀_部，使其可機地設置於箱體内。第一缓衝 村並可充填可變形第一内容物與箱體間之空隙。第二亦 設置於内部空間内，並與第一緩衝材位於間隔部之兩側。第二 緩衝材與咖形成第二空間，第二内容物係容納於第二空 間内。第二緩衝材並可用以充填電子裝置主體與箱體間之空 隙。除與間隔部接觸之部份外，在較佳實施例中，第二緩衝材 覆可變形 係大致包覆電子裝置㈣；第—緩騎較佳亦大致包 第一内容物除與間隔部接觸之其他部分。 在較佳實施例中，可變形第一内容物係為一支標座 雜佳包含敍、切桿、連接舰元件。讀桿之^ 为別為相對之底座端及紐端1座端連接底座，而支標端則 係可相對底賴軸。支#桿射姉底座位於伸張位置、壓 縮位置及其間之較伸驗置及健齡置。雜元件分別連接 底座及支雜。t支碰條伸綠置時，雜树之變形量 及產生之彈性力係為最―當支樓座位於壓縮位置時，支樓桿 與底座之相對位移已至極限，使支撐座之體積收縮至最小。此 時彈性元件之變形量及產生之彈性力均為最大。當支撐座位於 較伸張位置及較壓縮位置時，彈性元件之變形量及產生之彈性 力均在可增加之區段。 當支撐座容納於箱體之第一空間中時，支撐座係可在第一 方向上伸縮。支撐座係抵觸間隔部，以提供間隔部一支樓力， 並吸收箱體搬運過程中，間隔部所受之震動及位移。當第二内 谷物党外力震動時’即沿第一方向壓縮間隔部。間隔部隨即將 外力沿第一方向傳遞至支撐座，使支撐座自較伸張位置壓縮至 較壓縮位置以吸收震動及產生之位移。此時，彈性元件之蓄積 一彈性力，使支撐座得以於壓縮後回復至原位置，即較伸張位 置。藉由支撑座之壓縮及彈性元件之彈性力，得以緩衝第二内 容物受外力震盪所產生之震動。 在較佳實施例中，間隔部及第一緩衝材間之第一預設間隙 1321543 '係設置有彈性材。與間隔部及第一緩衝材相較，雜材之剛性 係數最小；換言之，當受到等量外力時，彈性材對外力之抵抗 錄間_衫-猶材為少。相關受力郎-方向向下 壓時’由於彈性材之剛性係數較小，因此彈性材會先於間隔部 及第-緩衝材而產生壓縮形變’以提供支標部足夠之办 間。 二 【實施方式】 籲 本發_提供-種緩衝包裝結構。在較佳實施例中，此緩 衝包裝結構係為一電子裝置包裝結構。於本發明中，電子裝置 J 係以—顯示錢為例’如圖2所示；然而本發明亦可應胁其 他裝置或設備，例如風扇、燈具等。 在如圖3a及圖3b所示之實施例中，緩衝包裝結構較佳包 含箱體100、第一緩衝材220及間隔部3〇〇。箱體ι00係具有 一内部空間110。在此實施例中’箱體1〇〇較佳係為方形箱體， • 且内部空間110亦為方形之空間。然而在不同實施例中，箱體 100及其内部空間110之形狀亦可為其他不同形狀，以配合不 同之被包裝物外形。此外，箱體1〇〇較佳係為由紙板製作之紙 箱；然而在不同實施例中，箱體1〇〇亦可以塑膠製作或以其他 材質製作。 如圖3a及圖3b所示，第一緩衝材220係設置於内部空間 110内。第一緩衝材220較佳係由保麗龍所製成。然而在不同 實施例中，第一緩衝材220亦可採用泡棉、其他之有機發泡材 8 if是空氣墊等緩衝材料。_部300係可移動地設置於箱 技飽之内口p工間110中，且其兩端係分別與箱體100之内壁 笛1以維制隔部_水平方向之穩定性。間隔部綱係與 =衝材220保持第一預設間隙超，以與第一緩衝材22〇 刀離如® 3b所示，間隔部細係將内部空間11〇區隔 二，工間112與第二空間111。第一空間112係形成於間隔 i會叫與第I緩衝材22G之間，並具有第一高度。此外，以較 轭例而言’間隔部_之剛性係數係大於第—緩衝材220 之剛性係數。在較佳實施例中，間隔部3GG係藉由與箱體1〇〇 間之摩擦力可移動地設置於崎郎m巾；然而在不同實施 例中’間隔部_係藉由容納於第_空間112 +之内容物加以 支撐，以可移動地設置於箱體1〇〇内。 田箱體1〇〇受到碰撞或其他外力作用時，第一緩衝材22〇 即與間隔部300產生相對運動㈠寺別是當第-緩衝材220與間 隔部300因壓縮之外力產生相向運動時，如圖3c所示箱體 1〇〇會變形使第一緩衝材220與間隔部300間原本之第一預設 間隙221縮小為第二預設間隙222，且第二預設間隙222小於 第一預設間隙221。此時第一空間112原本之第一高度亦被壓 縮為較小之第一南度。此外’在較佳實施例中，當外力產生時， 箱體100係由接近第一預設間隙222處起始變形，以配合第一 緩衝材220與間隔部300間間隙之改變。 圖3d所示為間隔部300與第一緩衝材220之另一實施例。 在此實施例中，間隔部300之兩端係分別向第一緩衝材22〇延 伸。第一緩衝材220則具有板狀之形狀。第一緩衝材220係與 間隔部300之兩端延伸部分接觸並互為支撐。第一空間112則 形成於間隔部300之兩端延伸部分間。 在如圖4a及圖4b所示之實施例中，緩衝包裝結構進一步 包含被包裝之可變形第一内容物500及第二内容物700 ;可變 形第一内容物500係容納於第一空間ιι2内，而第二内容物 700則容納於第二空間111内。可變形第一内容物5〇〇較佳係 為具形變能力及形變回復力之支撐座；但在不同實施例中，亦 可為其他具形變能力及形變回復力之其他裝置。第二内容物 700係舉例為顯示器主體。然而在不同實施例中，第二内容物 700亦可為風扇主體、燈具主體等電子裝置。此外，在本發明 中，第二内容物7〇〇亦包含其他被包裝之非電子類產品替代， 例如鏡子、玻璃等。 在此實施例中，間隔部300之厚度係可隨箱體1〇〇内部空 間no之大小加以調整，以調整第二空間iu及第一空間ιΐ2 之尺寸1在較佳實施例中，間隔部咖係由保麗龍所製成。為 配2 一内容物700及可變形第一内容物500之耐衝擊程度， ，P 3GG之硬度可加整，例如選贿度較高之保麗龍材 Α做為間隔部300。此外，間隔部3〇〇亦可採用多層結構， =增加其緩衝能力朗應其他之需求。在如圖 g硬質隔板糊之設置，可減少間隔部_ 擊所雙之傷害以及被穿透之可能性。 在如圖4a及圖4b所示之實施例中，進一步包含設置於浐 體100内部空間110内之第二缓衝材210。第二緩衝材210 = 與間隔部300形成第二空間⑴供容納第二内容物糊。第二 緩衝材210係與間隔部3〇〇抵接，用以充填第二内容物7〇〇與 箱體100間之空隙。當箱體1〇〇受到外力作用時，第二緩衝材 210並不相對間隔部3〇〇產生移動；換言之，第二緩衝材21〇 與間隔部3GG之相對位置關係大致不變。如圖4b所示，除與 間隔部300接觸之部份外，第二緩衝材210較佳地係大致包覆 第二内容物7GG ;然而在不同實施例中，第二緩衝材21〇亦可 僅與間隔部300分設於第二内容物7〇0之上下。此外，第二緩 衝材210較佳係由保麗龍所製成。然而在不同實施例中，第二 緩衝材210亦可採用泡棉、其他之有機發泡材料，或是空氣墊 等緩衝材料。 在如圖4a及圖4b所示之實施例中，可變形第一内容物5〇〇 係為一支撐座501，供可分離地與第二内容物7〇〇結合以支撐 第二内容物700。如圖4b及圖6a所示，支撐座501較佳地包 含底座510、支撐桿530、連接座550及彈性元件570。支撐 桿530之兩端分別為相對之底座端531及支撐端533。底座端 531係可旋轉地連接底座510，而支撐端530則可旋轉地與連 接座550連接。若以底座51〇為參考點觀之，支撐端533係可 相對於底座端531旋轉。彈性元件570分別連接底座510及支 標桿530。在較佳實施例中，彈性元件57〇係為設置於支撐桿 530底座知531之扭簧；然而在圖gb所示之實施例中，彈性 1321543 元件57G亦可為沿切桿530延伸之直線彈簧。 ® IT" 510 6a ^ 550係可與第二内容物7〇°之背板連 f底座51G則放置於一平自以提供第二内容物必要之 此外’在此—狀態下，彈性元件57G之變形量及產生之 I::為t。如圖几所示，當支撐桿咖相對於底座51° 於壓縮位置時，支撐桿53G與底座51()之相對1321543 » », Nine, invention description: [Technical field to which the invention pertains] The present invention relates to a buffer package "structure; in particular, the invention relates to the use of the package itself, structure as a buffer Buffer package ^ Ji structure. [Prior Art] The packaging of fragile items has always been an important issue in the delivery of products. Insufficient packaging • When properly, it often results in damage to the item during shipment, which in turn increases production costs. Especially for high-precision or fragile electronic shocks, such as liquid crystal display devices, display devices, organic light-emitting diode displays, home theater groups, lamps, etc., it is easy to damage the interior due to impact during transportation. The circuit construction or other fragile structure' causes a loss of product. Taking the display of the stacked package shown in FIG. 1 and FIG. 1b as an example, generally, the display device panel 70 is separated without any support during the product transportation process. First, the bottom of the 1 mesh body 1G is filled with the cushioning material (2), and then the holder 50 folded to the minimum compression position is placed in the cushioning material 22. A partition 30 is disposed above the support base 50 to isolate the display reading panel 7{) above the cut-out seat 5G without the plate 3G to prevent the support base 50 from striking the display device panel 7 during transport. Finally, the cushioning material 21 is filled above the display device panel 70 to complete the packing operation. In the above-mentioned packaging method, the protection and buffering of the external impact is completely dependent on the buffer material 2 and 22 and the partition 3G filled by the ^, so the thickness and material of the cushioning material 2 and 22 and the partition 30 are determined. All buffering effects. Relatively. The support seat is 5 mi of the factor causing the destruction of the display panel 7 ,, and the support base 5 (the structure of the 1 is mostly provided with a spring or other elastic material, and the buffer structure t of the body is used as the shock absorbing material, and It is a pity. Therefore, how to change the device from the Wei electronic device 1 to the device for increasing the buffering effect is a reflection of the present invention. [The invention] The punching structure has the advantages of saving buffering material setting. The purpose is to provide a buffer packaging structure, which is provided with the function of cushioning and shock absorbing by the structure of the package itself to achieve the function of shock absorber. The cushioning package of the present invention should include a button, a part, and a deformable packaged package. The first content and the second content. The box body is inclined::: The first buffer material is disposed inside the interior space of the box body, and forms a work space between the box and the first cushioning material. The deformable first-content system is in a state of being stretched between the stretched state and the compressed state, and is accommodated in the first space. Further, the deformable first content is preferably read by the portion so that it is mechanically disposed on box The first buffer village can be filled with a gap between the deformable first content and the box. The second is also disposed in the inner space and is located on both sides of the partition with the first cushioning material. The second space is accommodated in the second space, and the second buffer material can be used to fill the gap between the main body of the electronic device and the box. In addition to the portion in contact with the spacer, it is preferably implemented. In an example, the second cushioning material is deformable to substantially cover the electronic device (4); the first cushioning preferably also includes the first portion of the first content except the portion in contact with the spacer. In a preferred embodiment, the deformable portion A content is a standard seat containing the narration, cutting rod, and connecting ship components. The reading rod is connected to the base of the opposite base end and the new end, and the branch end is relatively bottom. The axis of the rod is located at the extension position, the compression position and the extension and the age of the joint. The miscellaneous components are respectively connected to the base and the branch. When the t-bar is stretched green, the deformation of the tree And the elastic force generated is the most - when the support is in the compression position When the relative displacement of the support bar and the base has reached the limit, the volume of the support base is minimized. At this time, the deformation amount of the elastic member and the elastic force generated are the largest. When the support seat is at the extension position and the compression position The amount of deformation of the elastic member and the generated elastic force are both in an increaseable section. When the support seat is received in the first space of the casing, the support base can be expanded and contracted in the first direction. To provide a floor force in the partition and to absorb the vibration and displacement of the partition during the handling of the box. When the external force of the second inner grain is vibrated, the partition is compressed in the first direction. The external force is transmitted to the support seat in the first direction, so that the support seat is compressed from the more extended position to the more compressed position to absorb the shock and the displacement generated. At this time, the elastic element accumulates an elastic force, so that the support seat can be restored after being compressed. To the original position, that is, the extension position, the compression of the support seat and the elastic force of the elastic member can buffer the vibration of the second content caused by the shock of the external force. In a preferred embodiment, the first predetermined gap 1321543' between the spacer and the first cushioning material is provided with an elastic material. Compared with the partition portion and the first cushioning material, the rigidity coefficient of the miscellaneous material is the smallest; in other words, when the external force is received by an equal amount, the resistance of the elastic material to the external force is less. When the relevant force lang-direction is pressed downwards, the elastic material will have a compressive deformation prior to the spacer and the first cushioning material to provide a sufficient amount of the branch portion. [Embodiment] The present invention provides a buffer packaging structure. In a preferred embodiment, the buffer package structure is an electronic device package structure. In the present invention, the electronic device J is exemplified by the display of money as shown in Fig. 2; however, the present invention can also be applied to other devices or devices such as fans, lamps, and the like. In the embodiment shown in Figures 3a and 3b, the cushioning package structure preferably includes a case 100, a first cushioning material 220, and a spacer 3. The cabinet ι00 has an internal space 110. In this embodiment, the case 1 is preferably a square case, and the internal space 110 is also a square space. However, in various embodiments, the shape of the housing 100 and its interior 110 may be other different shapes to accommodate different shapes of the package. Further, the case 1 is preferably a carton made of cardboard; however, in various embodiments, the case 1 may be made of plastic or of other materials. As shown in Figures 3a and 3b, the first cushioning material 220 is disposed within the interior space 110. The first cushioning material 220 is preferably made of styrofoam. However, in different embodiments, the first cushioning material 220 may also be made of foam or other organic foaming material. 8 If it is a cushioning material such as an air cushion. The _ section 300 is movably disposed in the inner compartment 110 of the box, and its two ends are respectively connected to the inner wall flute 1 of the cabinet 100 to maintain the stability of the partition_horizontal direction. The spacer system and the stamping material 220 maintain the first predetermined gap super, so as to be separated from the first cushioning material 22 as shown in FIG. 3b, the spacing portion is thinned to divide the internal space 11〇, and the working chamber 112 is The second space 111. The first space 112 is formed between the interval i and the first cushioning material 22G and has a first height. Further, in the case of the yoke, the rigidity coefficient of the spacer portion is larger than the rigidity coefficient of the first cushioning member 220. In a preferred embodiment, the spacer 3GG is movably disposed on the sloping surface by friction with the housing 1; however, in various embodiments, the spacer is accommodated in the The contents of the space 112+ are supported to be movably disposed within the casing 1〇〇. When the field box body 1 is subjected to a collision or other external force, the first cushioning material 22 is relatively moved with the partition portion 300. (1) When the first cushioning material 220 and the spacer portion 300 are opposed to each other due to compression. As shown in FIG. 3c, the box body 1〇〇 is deformed to reduce the original first preset gap 221 between the first buffer material 220 and the spacer 300 to the second preset gap 222, and the second preset gap 222 is smaller than the first preset gap 222. A preset gap 221. At this time, the original first height of the first space 112 is also compressed to a smaller first south degree. Further, in the preferred embodiment, when an external force is generated, the casing 100 is initially deformed toward the first predetermined gap 222 to match the change in the gap between the first cushioning material 220 and the spacer 300. Another embodiment of the spacer 300 and the first cushioning material 220 is shown in Figure 3d. In this embodiment, both ends of the spacer 300 extend toward the first cushioning material 22, respectively. The first cushioning material 220 has a plate shape. The first cushioning material 220 is in contact with and supported by the extending portions of both ends of the partition portion 300. The first space 112 is formed between the extended ends of the spacers 300. In the embodiment shown in Figures 4a and 4b, the cushioning package structure further comprises a packaged deformable first content 500 and a second content 700; the deformable first content 500 is received in the first space The second content 700 is housed in the second space 111. The deformable first content 5 is preferably a support having a deformability and a restoring force; but in other embodiments, it may be other devices having a deformability and a strain restoring force. The second content 700 is exemplified by a display main body. However, in different embodiments, the second content 700 may also be an electronic device such as a fan body or a lamp body. Further, in the present invention, the second content 7〇〇 also includes other packaged non-electronic products, such as mirrors, glasses, and the like. In this embodiment, the thickness of the spacer 300 can be adjusted according to the size of the inner space no of the case 1 to adjust the size of the second space iu and the first space ι 2 in the preferred embodiment, the spacer The coffee is made from styrofoam. In order to match the impact resistance of the content 700 and the deformable first content 500, the hardness of the P 3GG may be adjusted. For example, the styrofoam material having a higher bribe degree is used as the spacer 300. In addition, the spacer 3 can also adopt a multi-layer structure, and increase its buffering capacity to meet other needs. In the setting of the hard partition paste as shown in Fig. g, it is possible to reduce the damage of the spacer _ and the possibility of being penetrated. In the embodiment shown in Figures 4a and 4b, a second cushioning material 210 disposed within the interior 110 of the body 100 is further included. The second cushioning material 210 = forms a second space (1) with the partition portion 300 for accommodating the second content paste. The second cushioning material 210 is in contact with the partition portion 3A to fill the gap between the second contents 7〇〇 and the casing 100. When the casing 1 is subjected to an external force, the second cushioning material 210 does not move relative to the partition portion 3; in other words, the relative positional relationship between the second cushioning material 21'' and the partition portion 3GG is substantially constant. As shown in FIG. 4b, in addition to the portion in contact with the spacer 300, the second buffer material 210 is preferably substantially covered with the second content 7GG; however, in various embodiments, the second buffer material 21 can also be Only the spacer 300 is placed above and below the second content 7〇0. Further, the second buffer 210 is preferably made of styrofoam. However, in various embodiments, the second cushioning material 210 may also use foam, other organic foaming materials, or cushioning materials such as air cushions. In the embodiment shown in Figures 4a and 4b, the deformable first content 5 is a support base 501 for detachably combining with the second content 7〇〇 to support the second content 700. . As shown in Figures 4b and 6a, the support base 501 preferably includes a base 510, a support rod 530, a connector block 550, and a resilient member 570. The two ends of the support rod 530 are opposite the base end 531 and the support end 533, respectively. The base end 531 is rotatably coupled to the base 510, and the support end 530 is rotatably coupled to the docking station 550. The support end 533 is rotatable relative to the base end 531 if the base 51 is used as a reference point. The elastic members 570 are connected to the base 510 and the support rod 530, respectively. In the preferred embodiment, the elastic member 57 is a torsion spring disposed on the base 531 of the support rod 530; however, in the embodiment shown in FIG. gb, the elastic member 132353 may also be a straight line extending along the cutting rod 530. spring. ® IT" 510 6a ^ 550 can be connected to the backing plate of the second content of 7 ° ° f. The base 51G is placed in a flat to provide the second content. In addition, in this state, the deformation of the elastic element 57G The amount and the resulting I:: is t. As shown in the figure, when the support bar is at a compression position of 51° with respect to the base, the support bar 53G is opposite to the base 51 ()
極限，使支標趟之體積收縮至最小。此時彈性元件5= ==生之彈性力均為最大。如圖7。所示，當支樓桿53〇 =於>丨在伸張位置及麵位朗之較伸張位置或較壓縮位置 時，支揮座501之體積亦介於前述二狀態下之體積。此時彈性 形量及產生之彈性力均在可增加之區段。支#桿_ β外力之改變相對於底座51〇旋轉，並進一步拉伸彈性元件 570以產生對應外力之彈性力，使支樓座5〇1整體形成具有吸 震機制之緩衝裝置。The limit makes the volume of the branch 收缩 shrink to a minimum. At this time, the elastic element 5 = = = the elastic force of the life is the largest. As shown in Figure 7. As shown, when the support bar 53〇 = is in the extended position and the face position or the compression position, the volume of the support seat 501 is also in the volume of the above two states. At this time, the amount of elastic shape and the elastic force generated are in the section where the amount of elasticity can be increased. The change of the external force of the rod_β is rotated relative to the base 51, and the elastic member 570 is further stretched to generate an elastic force corresponding to the external force, so that the branch base 5〇1 integrally forms a shock absorbing device having an absorbing mechanism.
此外’為維持支撐桿53(Μ立於較伸張位置而不致於彈回至 伸張位置，支撐座5()1較佳包含一圍束元件聊。圍束元件聊 係圍束底座510及讀桿53Q，以關支撐桿53()朝伸張位置 申張如圖7c所示’圍束元件59〇較佳係限制支樓座附處 於伸張位置錢齡置間之㈣驗置；然而在不同實施例 中，圍束元件590村限制支撑座501處於最壓縮之位置，以 避免支樓座501發生非預期之伸張。在較佳實施例巾，圍束元 件590較佳係為塑膠束帶―。細在不同實施例中，圍束元件 12 590亦可為繩索或其他材質之束帶。此外，圍束元件59〇亦可 =支撐座501 Θ建之定位裝置或卡榫等元件所取代。在不同實 施例中，圍束元件590亦使用於支撐座5Q1之外的其他類形可 變形第一内容物5〇〇上。 在圖8a及圖8b所示之實施例中，支撐座5〇1係處於伸張 位置於壓縮位置間之較伸張位置，並容納於箱體1〇〇之第一空 間112中。支撐座501係可在第一方向41〇上伸縮；換言之， 藉由支禮桿530與彈性元件570之設置，連接座550在第一方 向410上係可相對於底座51〇產生位移。在此較佳實施例中， 第一方向410係垂直於間隔部300設置之方向。支撐座5〇1係 抵觸間隔部300 ’以提供間隔部3〇〇 一支標力，並吸收間隔部 300所受之震動及位移。在此較佳實施例中，支撐座5〇1之連 接座550係抵觸間隔部300 ;然而在不同實施例中，亦可由支 撐座501之底座510抵觸間隔部300。此外，如圖8b所示， 支撐座501係藉由設置圍束元件590以維持其位於較伸張位 置，然而在不同實施例中，支撐座501亦可藉由承受間隔部 300及第二内容物7〇〇之重量，以維持在該較伸張位置，不至 於完全伸張❶ 此外，在此較佳實施例中，第二内容物7〇〇、支撐座5〇1 之伸張位置、較伸張位置及壓縮位置均在第一方向41〇上排 列。如圖8c所示，當第·一内谷物700受外力震動時，即沿第 一方向410壓縮間隔部300。間隔部300隨即將外力沿第一方 向410傳遞至支撐座501 ’使支撐座501朝壓縮位置產生壓縮 丄以1543 並移至較壓縮位置以吸收震動及產生之位移。由於間隔部3〇〇 相對第一緩衝材220移動，因此第一空間112之高度由原本的 第一高度降為第二高度。此時，彈性元件57〇因壓縮而蓄積一 彈性力，使支撐座501接著朝伸張位置回復至原位置（即較伸 張位置）。藉由支標座501之壓縮及彈性元件570之彈性力， 得以緩衝第二内容物7〇〇受外力震盪所產生之震動，以減低第 二内容物700所受的損害。 在如圖8a及圖8b所示之實施例中，包裝結構進一步包含 彈性材600。彈性材600係設置於間隔部300及第一緩衝材220 間之第一預設間隙221内。與間隔部300及第一緩衝材22〇相 較’彈性材600之剛性係數最小；換言之，當受到等量外力時， 彈性材600對外力之抵抗性較間隔部300及第一緩衝材22〇為 少。此外，當受到等量外力時，彈性材6〇〇之形變量則較間隔 部300及第一緩衝材220為多。在較佳實施例中，彈性材6〇〇 久l a上氣墊，然而在不同實施例中，彈性材6〇〇亦可包含泡 棉等其他材料。如圖8c所示，當間隔部300受力沿第一方向 向下壓時’第一預設間隙221即縮減為第二預設間隙222。 ^於彈性材_之囉係數較小，因轉性材_會先於間隔 部300及第一緩衝材220而產生壓縮形變以配合支撐座5〇1之 壓縮量，並吸收部份衝擊。 圖9a所示為本發明之另—實施例。在此實施例中，支樓座 501之支樓桿530與底座510係沿支樓桿530之轴方向套接。 換言之’支禮座501之支撐桿53〇與底座51()係構成所謂伸縮 14 望退鏡式之支撐座結構。在此實施例中，彈性元件570較佳係 包含一捲簧或一定力彈簧，其兩端分別連接於支揮桿53〇之底 部與底座510。支撐端53〇係可旋轉地與連接座55〇連接。如 圖9b所示，支撐座5〇1係容納於箱體1〇〇之第一空間112中。 於此實施例中’係較佳地包含一圍束元件590以圍束支撐座 501之連接座550及底座510，使支撐座501維持在較壓縮位 置。支樓座501係可在第一方向410上伸縮；換言之，藉由支 _ 撐桿530與彈性元件570之設置，連接座55〇在第一方向41〇 上係可相對於底座510產生位移。支撐座501係抵觸間隔部 300，以提供間隔部3〇〇 —支樓力，並吸收間隔部所受之 、 震動及位移。在此較佳實施例中，支撐座501之連接座550係 抵觸間隔部300 ;然而在不同實施例中，亦可由支撑座之 底座510抵觸間隔部300。 此外，在此較佳實施例中，第二内容物7〇〇、支撐座5〇1 之伸張位置、較壓縮位置及壓縮位置均在第一方向41〇上排 # 列。當第二内容物糊受外力震動時，即沿第一方向410壓縮 間隔部300。間隔部300隨即將外力沿第一方向41〇傳遞至支 撐座501，使支撐座5〇1朝壓縮位置產生壓縮以吸收震動及產 生之位移。同時，彈性元件570之彈性力，使支撐座5〇1朝伸 張位置回復至原位置，即較壓縮位置。藉由支撐座5〇1之壓縮 及彈性元件570之彈性力，^以緩衝第二内容物7〇〇受外力震 盪所產生之震動，以減低第二内容物7〇〇所受的損害。 圖10a及圖l〇b所示為本發明之另一實施例。如圖1〇a所 15 1321543 示，支撐座501係被間隔部300及其上第二内容物7〇〇之重量 壓縮至壓縮位置。圍束元件590係圍束底座51〇及支撐桿53〇, 並限制支撐座501之伸張不得超過伸張位置與壓縮位置間之 較伸張位置。換言之，如圖l〇a所示，當支撐座5〇1被壓縮至 壓縮位置時，圍束元件590雜持齡之狀態。然而當箱體 100被打開，並取出支撐座5〇1上之間隔部3〇〇及第二内容物 测時，如圖l〇b所示，此時支揮座5〇1則朝伸張位置回彈。 藉由圍束元件590之設置，得以限制支撐座5G1之伸張停留在 上述之較伸張位置’避免域座·因直接回彈至伸張位置而 造成意外。 本發明已由上述_實_加以贿，細上述實施例僅 為實施本剌之制。必需指出岐，已财之魏例並未限 制本發明之細。城地，包含於申料鄕圍之精神及範圍 之修改及均等設置均包含於本發明之範圍内。 【圖式簡單說明】 圖la為習知技術中包裝結構之拆解示意圖； 圖lb為習知技射包裝結構之剖面示意圖； 圖2為電子裝置之實施例示意圖； 圖3a為緩衝包裝結構之實施例元件爆炸圖； 圖3b為圖3a所示實施例之剖面示意圖； 圖3c為圖3b所示實施例之作動示意圖； 圖3d為間隔部與第—緩衝材之另—實施例。 圖4a為緩衝包裝結構之另一實施例元件爆炸圖； 1321543 圖4b為圖4a所示實施例之剖面圖； 圖5為加設硬質隔板之實施例剖面圖； 圖6a為支撐座之實施例示意圖； 圖6b為支撐座之另一實施例示意圖； 圖7a為支撐座位於伸張位置時之實施例示意圖； 圖7b為支撐座位於壓縮位置時之實施例示意圖； 圖7c為支撐座位於較伸張位置時之實施例示意圖； 圖8a為包含彈性材之實施例元件爆炸圖； 圖8b為支撐座位於較伸張位置時之實施例剖面圖； 圖8c為支撐座位於較壓縮位置時之實施例剖面圖； 圖9a為本發明第一内容物及第二内容物另一實施例之示意 圚， 圖9b為圖9a所示實施例包裝結構之實施例剖面圖。 圖10a與圖10b為本發明另一實施例之示意圖。 【主要元件符號說明】 10箱體 21緩衝材 22緩衝材 30間隔部 50支撐座 59圍束元件 70電子裝置主體 17 1321543 100箱體 110内部空間 111第二空間 112第一空間 210第二緩衝材 220第一緩衝材 221第一預設間隙 222第二預設間隙 300間隔部 310硬質隔板 410第一方向 500可變形第一内容物 501支撐座 510底座 530支撐桿 531底座端 533支撐端 550連接座 570彈性元件 590圍束元件 600彈性材 700第二内容物In addition, in order to maintain the support rod 53 (standing in the extended position without rebounding to the extended position, the support base 5) preferably includes a surrounding component. The bundle element is used to surround the base 510 and the reading rod 53Q, the closing of the support rod 53 () to the extension position as shown in Figure 7c 'the bundle element 59 〇 preferably limits the branch to the extension position (4) inspection; however, in different embodiments, The fence member 590 restricts the support base 501 from being in the most compressed position to avoid unintended stretching of the support base 501. In the preferred embodiment, the envelope element 590 is preferably a plastic drawstring. In an embodiment, the bundle element 12 590 can also be a strap of a rope or other material. In addition, the bundle element 59 can also be replaced by a component such as a positioning device or a cassette built into the support base 501. In different embodiments The bundling element 590 is also used on other types of deformable first contents 5〇〇 other than the support base 5Q1. In the embodiment shown in Figures 8a and 8b, the support base 5〇1 is in tension. Positioned at a more extended position between the compression positions and accommodated in the cabinet 1 In a space 112, the support base 501 is expandable and contractible in the first direction 41〇; in other words, by the arrangement of the support bar 530 and the elastic member 570, the connecting seat 550 is slidable relative to the base 51 in the first direction 410. In the preferred embodiment, the first direction 410 is perpendicular to the direction in which the spacer 300 is disposed. The support seat 5〇1 is in contact with the spacer 300' to provide a spacer 3 and absorb The vibration and displacement of the spacer 300. In the preferred embodiment, the connector 550 of the support base 〇1 is in contact with the spacer 300; however, in different embodiments, the base 510 of the support 501 may also be in contact with the spacer. In addition, as shown in FIG. 8b, the support base 501 is maintained in a more extended position by providing the surrounding element 590. However, in different embodiments, the support base 501 can also receive the spacer 300 and the The weight of the two contents is 7〇〇 to maintain the stretched position, and is not fully stretched. Further, in the preferred embodiment, the second content 7〇〇, the support seat 5〇1 stretch position, Both the extension position and the compression position are in the first place Arranged toward 41. As shown in Fig. 8c, when the first inner grain 700 is shaken by an external force, the spacer 300 is compressed in the first direction 410. The spacer 300 is then transmitted to the support in the first direction 410. 501 'Brings the support 501 toward the compressed position to generate a compression enthalpy to 1543 and move to a more compressed position to absorb the shock and the resulting displacement. Since the spacer 3 is moved relative to the first cushioning material 220, the height of the first space 112 is The original first height is lowered to the second height. At this time, the elastic member 57 蓄 accumulates an elastic force due to the compression, so that the support base 501 is then returned to the original position (i.e., the stretched position) toward the extended position. By the compression of the socket 501 and the elastic force of the elastic member 570, the shock generated by the shock of the external force 7 is buffered to reduce the damage of the second content 700. In the embodiment shown in Figures 8a and 8b, the package structure further comprises an elastomeric material 600. The elastic material 600 is disposed in the first predetermined gap 221 between the partition portion 300 and the first cushioning material 220. Compared with the spacer 300 and the first cushioning material 22, the elastic modulus of the elastic material 600 is the smallest; in other words, when an external force is received, the elastic material 600 is less resistant to external forces than the spacer 300 and the first cushioning material 22〇. Less. Further, when an external force is received, the amount of deformation of the elastic material 6 is larger than that of the spacer 300 and the first cushioning material 220. In the preferred embodiment, the elastomeric material 6 is over an air cushion, although in various embodiments, the elastomeric material 6〇〇 may also comprise other materials such as foam. As shown in Fig. 8c, when the spacer 300 is pressed downward in the first direction, the first predetermined gap 221 is reduced to the second preset gap 222. ^ The coefficient of elasticity of the elastic material is small, because the conversion material_ will be compressed before the spacer 300 and the first cushioning material 220 to match the compression amount of the support seat 5〇1, and absorb part of the impact. Figure 9a shows another embodiment of the invention. In this embodiment, the support bar 530 of the support base 501 and the base 510 are sleeved in the axial direction of the support bar 530. In other words, the support rod 53 〇 and the base 51 () of the pedestal 501 constitute a so-called telescopic mirror-type support structure. In this embodiment, the elastic member 570 preferably includes a coil spring or a force spring, and the two ends are respectively connected to the bottom of the support rod 53 and the base 510. The support end 53 is rotatably coupled to the base 55A. As shown in Fig. 9b, the support base 5〇1 is housed in the first space 112 of the casing 1〇〇. In this embodiment, a bundle element 590 is preferably included to surround the connector 550 and the base 510 of the support base 501 to maintain the support base 501 in a relatively compressed position. The pedestal 501 can be telescoped in the first direction 410; in other words, by the struts 530 and the resilient member 570, the yoke 55 can be displaced relative to the base 510 in the first direction 41 。. The support base 501 is in contact with the spacer 300 to provide a spacer 3 to absorb the ground force and absorb the shock and displacement of the spacer. In the preferred embodiment, the base 550 of the support base 501 abuts the spacer 300; however, in various embodiments, the base 510 of the support base may also interfere with the spacer 300. In addition, in the preferred embodiment, the second content 7〇〇, the extended position of the support base 5〇1, the compressed position and the compressed position are all arranged in the first direction 41〇. When the second content paste is shaken by an external force, the spacer 300 is compressed in the first direction 410. The spacer 300 is then transmitted to the support base 501 in the first direction 41〇, causing the support seat 5〇1 to compress toward the compressed position to absorb shock and displacement. At the same time, the elastic force of the elastic member 570 causes the support base 5〇1 to return to the original position toward the extended position, i.e., the compression position. By the compression of the support seat 〇1 and the elastic force of the elastic member 570, the shock generated by the shock of the external force is damped to reduce the damage of the second content. Figures 10a and 10b show another embodiment of the present invention. As shown in Fig. 1A, 15 1321543, the support base 501 is compressed to the compressed position by the weight of the spacer 300 and the second content 7〇〇 thereon. The bunching element 590 is wrapped around the base 51 and the support rod 53 and restricts the extension of the support 501 from exceeding the stretched position between the extended position and the compressed position. In other words, as shown in Fig. 10a, when the support base 5〇1 is compressed to the compressed position, the surrounding element 590 is in a state of being held. However, when the cabinet 100 is opened and the partition portion 3〇〇 on the support base 5〇1 and the second content are taken out, as shown in FIG. 10B, the support seat 5〇1 is moved toward the extended position. Rebound. By the arrangement of the bundling member 590, it is possible to restrict the extension of the support base 5G1 from staying at the above-mentioned stretched position to avoid accidents caused by the direct rebound to the extended position. The present invention has been made by the above-mentioned _real_, and the above embodiment is merely a system for implementing the present invention. It must be pointed out that the example of Wei has not limited the scope of the invention. Modifications and equal arrangements of the spirit and scope of the present invention are included in the scope of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1a is a schematic diagram of a disassembly of a packaging structure in a prior art; FIG. 1b is a schematic cross-sectional view of a conventional technical packaging structure; FIG. 2 is a schematic view of an embodiment of an electronic device; Figure 3b is a schematic cross-sectional view of the embodiment of Figure 3a; Figure 3c is a schematic view of the embodiment of Figure 3b; Figure 3d is an alternative embodiment of the spacer and the first cushioning material. Figure 4a is an exploded view of another embodiment of the cushioning package structure; 1321543 Figure 4b is a cross-sectional view of the embodiment shown in Figure 4a; Figure 5 is a cross-sectional view of an embodiment in which a hard spacer is added; Figure 6a is an implementation of the support base Figure 6b is a schematic view of another embodiment of the support base; Figure 7a is a schematic view of the embodiment when the support base is in the extended position; Figure 7b is a schematic view of the embodiment when the support base is in the compressed position; Figure 7c is a schematic view of the support seat Figure 8a is an exploded view of the embodiment of the embodiment comprising the elastic material; Figure 8b is a cross-sectional view of the embodiment when the support seat is in the extended position; Figure 8c is an embodiment of the support seat in a more compressed position Fig. 9a is a schematic view of another embodiment of the first content and the second content of the present invention, and Fig. 9b is a cross-sectional view showing an embodiment of the package structure of the embodiment shown in Fig. 9a. 10a and 10b are schematic views of another embodiment of the present invention. [Main component symbol description] 10 box 21 cushioning material 22 cushioning material 30 spacer 50 support seat 59 bundle element 70 electronic device body 17 1321543 100 cabinet 110 internal space 111 second space 112 first space 210 second cushioning material 220 first cushioning material 221 first preset gap 222 second preset gap 300 partition portion 310 hard partition 410 first direction 500 deformable first content 501 support seat 510 base 530 support rod 531 base end 533 support end 550 Connection seat 570 elastic element 590 bundle element 600 elastic material 700 second content