M416775 五、新型說明： 【新型所屬之技術領域】 本創作係關於觀視立體影像或立體圖片的立體眼鏡， 特別關於可各別調整左右眼視線範圍的立體眼鏡。 【先前技術】 近年來，能夠提供觀視者立體視覺效果的立體圖像、 立體視訊、立體電視、立體械等產生三維立體影視數位 内容之技術積極開發且發展快速。 立體圖片更已逐漸應用於例如雜誌、廣告、書籍等各 式各樣的平面印刷品，且隨著立體相機的風行，立體圖片 的取得更加容易。此處所述之立體圖片包含以立體相機拍 攝而得的照片等等。 一般而言，在兩個位置對同一標的物攝取兩張具備特 定視差的平面影像並將它們整合在一起，以形成立體圖 片。在觀視時，藉由特定的立體眼鏡來觀視如此形成的立 體圖片，以使觀視者的左右二眼接收此視差訊息以產生立 體視覺效果，進而感知立體影像内容中的景深。一般而言， 視差大，則左、右兩眼所看到的兩幅影像不一樣的地方就 多，景深也較明顯，立體感強烈。視差小，則兩幅影像不 一樣的地方就少，景深較不明顯，立體感就弱。然而視差 亦不能太大。如果過度則會造成觀看者眼睛疲勞或頭暈目 眩0 3 M416775 在利用視差而產生立體觀視效果的立體眼鏡之左右二 眼分別配置有以預定方式配置的反射鏡組，以將來自左、 右平面影像上的光線分別導向左、右眼的視網膜而產生立 體視覺。 因此’假使調整立體眼鏡的反射鏡組之間的物理關係 能夠由使用者調整，且藉由調整觀視者與圖像之間的距 離，則使用者可不受限於立體圖像的大小並可獲得最佳之 立體觀視效果。 但是’由於立體眼鏡的立體觀視效果對於反射鏡組之 間例如位置、相對角度對物理關係相當靈敏，所以，一般 習知的可攜式或簡便型的立體眼鏡，為了避免結構複雜、 笨重、且成本高等問題’將反射鏡組之間的物理關係配置 為固定的，無法允許使用者調整左右兩眼視線範圍，因此， 使用者僅能觀視大小限定在一小範圍内之立體圖像。 因此’輕薄易攜帶、成本低及方便使用者調整視線範 圍差以觀視較大尺寸範圍之立體圖像，且能產生良好立體 觀視效果及舒適度的立體眼鏡是被需要的。 【新型内容】 慮及上述，本創作提供一種立體眼鏡，由輕巧的可撓 板製成’且能夠由使用者調整視線範圍以觀視不同尺寸之 立体圖像。 4 M416775M416775 V. New description: [New technical field] This creation is about stereoscopic glasses for viewing stereoscopic images or stereoscopic images, especially for stereoscopic glasses that can adjust the range of left and right eyesight. [Prior Art] In recent years, technologies for generating stereoscopic images, stereoscopic images, stereoscopic televisions, stereoscopic devices, and the like for generating three-dimensional stereoscopic video content have been actively developed and developed rapidly. Stereoscopic images have been gradually applied to a wide variety of flat prints such as magazines, advertisements, books, etc., and with the popularity of stereo cameras, the acquisition of stereoscopic images is easier. The stereoscopic picture described here includes photographs taken by a stereo camera and the like. In general, two planar images with specific parallax are taken from the same subject at two locations and integrated together to form a stereoscopic image. When viewing, the thus formed stereoscopic image is viewed by a specific stereoscopic glasses so that the left and right eyes of the viewer receive the disparity information to generate a stereoscopic visual effect, thereby perceiving the depth of field in the stereoscopic image content. In general, when the parallax is large, the two images seen by the left and right eyes are different, the depth of field is also obvious, and the stereoscopic effect is strong. When the parallax is small, there are fewer places where the two images are different, the depth of field is less obvious, and the stereoscopic effect is weak. However, the parallax cannot be too large. If it is excessive, it will cause eye fatigue or dizziness of the viewer. 0 3 M416775 The left and right eyes of the stereo glasses which use the parallax to produce the stereoscopic effect are respectively arranged with mirror groups arranged in a predetermined manner to be from the left and right planes. The light on the image is directed to the retina of the left and right eyes to produce stereoscopic vision. Therefore, if the physical relationship between the mirror groups of the adjustment stereo glasses can be adjusted by the user, and by adjusting the distance between the viewer and the image, the user can be free from the size of the stereoscopic image and can Get the best stereo viewing. However, because the stereoscopic viewing effect of the stereoscopic glasses is quite sensitive to the physical relationship between the mirror groups, for example, the position and the relative angle, generally, the conventional portable or simple stereo glasses are used to avoid complicated and cumbersome structures. The problem of high cost is to configure the physical relationship between the mirror groups to be fixed, and the user cannot adjust the range of the left and right eyes. Therefore, the user can only view the stereoscopic image whose size is limited to a small range. Therefore, stereoscopic glasses that are light and easy to carry, low in cost, and convenient for the user to adjust the line-of-sight difference to view a large-size range of stereoscopic images, and which can produce good stereoscopic effects and comfort are required. [New content] In view of the above, the present invention provides a stereoscopic eyeglass made of a lightweight flexible plate and is capable of adjusting the line of sight of the user to view stereoscopic images of different sizes. 4 M416775
根據摘作的-_，提供—種立體眼鏡，用於觀視 圖像，其包括:本體，由第—可撓板形成為具有 臂、上框壁和下㈣、以及與二支壁、上框壁和下框壁相 鄰的中間部，在+間料設有二觀視孔；反射鏡組件由 第二可撓板以及第-反射餘和第二反職組形成，第二 可撓板折疊成具有位於二端部且彼此對稱的第一反射部 及第二反射部，第一反射部具有相對立的第一平面和第二 平面、以及介於該第-平面無第二平蚊間設有第一通 孔的第-中間平面，第二反射部具有相對立的第三平面及 第四平面、以及介於第一平面與第二平面之間設有第二通 孔的第二中間平面，第一反射鏡組具有分別設置於第一平 面和第二平面上的第一反射鏡和第二反射鏡，第二反射鏡 組具有分別設置於第三平面和第四平面上的第三反射鏡 和第四反射鏡；以及第一滑動框及第二滑動框，分別由第 一叮撓板及第四可挽板形成，以及，分別與反射組件的第 一反射部及第二反射部相結合，且以能夠延著上框壁及下 框壁滑動的方式，與上框壁及下框壁轉合，藉以分別移動 對應的第一反射鏡及第三反射鏡來調整立體眼鏡的視線 範圍。 根據本創作的實施例，第一滑動框及第二滑動框分別 與反射鏡組件的第一反射部及第二反射部以卡合方式或黏 接方式接合。。 根據本創作的實施例，第一可撓板、第二可撓板、第 三可撓板、及第四可撓板由紙板、塑膠板、或樹脂板製成。 根據本創作的另一態樣，提供一種立體眼鏡，用於觀 5 M416775 視立體圖像，立體眼鏡包括：本體，由第一可撓板形成為 具有二支臂、上框壁和下框壁、以及與二支壁、上框壁和 下框壁相鄰的中間部，在中間部中設有二觀視孔；滑動框 組件，由一件式的第二可撓板折疊而形成至具有左觀視框 及右觀視框，該左觀視框及該右觀視框觀均包含： 框體部，設有前通孔以允許外部光線進入；前反射鏡部， 設有前反射鏡，以導引自前通孔進入的光線；後通孔區， 與該前反射鏡部相鄰接，以及設有通孔，用以允許前反射 鏡反射的光通過；以及後反射鏡部，與後通孔區相鄰接且 彼此相互傾斜，以及’設有後反射鏡，用以導引通過後通 孔區的光朝向設於本體中對應的觀視孔，其中，框體部與 前反射鏡部相黏合以致於可以一體地移動，當框體部及前 反射鏡部一起移動時，帶動該後通孔區及後反射鏡部移 動，而改變後通孔區與後反射鏡部之間彼此的傾斜角度， 藉以調整立體眼鏡的視線範圍。 根據本創作的立體眼鏡具有調整結構及容易調整、容 易折疊及展開、輕巧便於攜帶、且製造成本低、又能取得 良好的觀視效果及舒適度等顯著功效。 【實施方式】 在下述說明中，將參考附圖，說明根據本創作的實施 例。本創作的實施例之細節揭示於附圖中及下述說明中。 從說明及圖式、以及申請專利範圍中，將清楚本創作的上 述及其它特點、目的、及優點。 6 (實施例1) 圖1係根據本實施例之立體眼鏡100的外觀，圖2係 對應於圖1的立體眼鏡100的爆炸視圖。 如圖2所示’根據本實施的立體眼鏡100包含本體 102、反射鏡組件1〇3、二滑動框i〇4l和i〇4R。 根據本實施例，本體1〇2是由一片式可撓板折疊而成。 在折疊成為如圖所示的所需立體形狀時，延著預設的折疊 線或執跡’折疊形成用於配戴的二支臂部1〇2il和i〇2iR、 及上框壁1022及下框壁1024 ,而形成如圖所示的本體 102。二支臂部i〇2lL和1021R與上框壁1〇22及下框壁1〇24 的折疊方向是相反的，舉例而言，若前者的折疊方向為向 後，則後者為向前。在與二支臂部1021L和1021R、及上 框壁1022及下框壁1024相鄰之中間部1〇23中，設有用於 觀視的二觀視孔1025L和1025R。 根據本創作’反射鏡組件103也是由一片式可撓板及 反射鏡組合而成。如圖2及4所示般，一片式可撓板折疊 成使得用於設置第一反射鏡1031R的平面部份及第二反射 鏡1032R的平面部份以預定的角度範圍彼此對立，而在這 二平面之間的中間平面部份中設有觀視孔。同樣地，用於 裝置第二反射鏡1031L的平面部份及第四反射鏡i〇32L的 平面部份也以預定的角度範圍彼此對立，而在這二平面之 M416775 間的中間平面部份中設有觀視孔。在圖2中，未顯示第二 反射鏡1032L，但是，從圖4中可以清楚地看見第二反射 鏡1032L與相對應的第一反射鏡1031L的相互位置關係。 換言之，反射鏡組件103由一片式可撓板折疊成使得 第一反射鏡1031R將來自外部（立體圖片）的光反射至第 二反射鏡1032R，然後，再由第二反射鏡1032R將光導引 通過觀視孔。類似地，第三反射鏡1031L及第四反射鏡 1032L形成另一組反射鏡組，由第三反射鏡i〇3lL將來自 外部（立體圖片）的光反射至第四反射鏡1032L，然後， 再由第四反射鏡1032L將光導引通過觀視孔。藉由如此形 成之分別的反射鏡組，可以將來自外部的光分別導引通過 觀視孔而至觀視者的左眼及右眼，藉以接收良好的視差訊 息而產生立體影像效果。值得注意的是，如圖4所示，第 一反射鏡1031R及第三反射鏡1031L可以隨著拉柄部 1034R及1034L被拉動而移動，而第二反射鏡l〇32R及第 四反射鏡1032L則是不動。因此，藉由移動拉柄部1034R 或1034L’即可調整第一反射鏡i〇3lR與第二反射鏡1032R 的相對位置關係或第三反射鏡1031L與第四反射鏡1032L 的相對位置關係，因而調整通過觀視孔而進入觀視者眼中 的視線範圍，以取得良好的立體觀視效果。 滑動框104L及104R分別由一件式可撓板折疊而形成 立體框，其中設有觀視孔1041L和1041R。值得注意的是， 8 滑動框104L及l〇4R是在組裝時折疊成為與本體1〇2的上 框部1022和下框部1〇24相耦合’以致於能延著框部ι〇22 和下框部1024滑動。 於上述中已說明根據本創作的立體眼鏡10〇的各組件 之結構，接著，將說明其組裝方式。 在組裝時，將反射鏡組件103以黏著方式固定至上框 部1022及下框部1〇24之間的中間部1〇23 ,以致於反射鏡 組件103中的一觀視孔的轴心與框體1〇2中的觀視孔i〇25L 和1025R的軸心分別對齊。反射鏡組件1〇3中的二觀視孔 的尺寸與觀視孔1025L和1025R的尺寸實質上相同。 然後，將滑動框104L折疊成與上框壁1〇22和下框壁 1024滑動地搞合’使得滑動框1〇礼可以延著上框壁1〇22 和下框壁1024滑動，換言之，上框壁1〇22和下框壁1〇24 作為滑動框104L的導軌，以使滑動框可以平滑地移動。反 射鏡組件103的拉柄部i〇33L與滑動框1〇4L相結合，當滑 動框104L移動時，拉柄部1034L可以隨著移動，並因而移 動第二反射鏡1031L。關於拉柄部i〇34L與滑動框i〇4L的 結合方式’可以將拉柄部1034L通過設於滑動框i〇4L中的 卡合孔並與卡合孔相卡合或黏合’以致於可以與滑動框 104L結合為一體而一起移動❶以類似方式，將滑動框i〇4R 與本體102及反射鏡組件1〇3組合在一起。 如此，以上述方式組裝完成如圖1所示的立體眼鏡 M416775 100。在使用如此形成的立體眼鏡100時，使用者藉由移動 滑動框104L或104R ’可以調整兩眼的視線範圍而取得良 好的立體觀視效果且不會造成頭暈目眩等不適。 根據創作之本實施例，立體眼鏡1〇〇的各主要構件由 一件式可撓板折疊而成。舉例而言，可撓板的材料可為紙 板、樹脂材料或塑膠等等。在本實施例中，以紙板為例作 為說明。 如上所述’由於根據本創作的實施例之立體眼鏡的調 整結構及調整操作都报簡單，且由例如紙板、塑膠板、或 樹脂板等可撓板製成，所以，容易折疊及展開、輕巧便於 攜帶、且製造成本低，又能取得良好的觀視效果及舒適度。 (實施例2) 於下，參考圖5、圖ό及圖7，說明根據本創作的一實 施例之立體眼鏡2〇〇。 如圖5所示，立體眼鏡200包含本體202、及滑動框組 件 204。 如同上述實施例1般，本體202是由一片式可撓板折 疊而成。在折疊成為如圖所示的所需立體形狀時，延著預 設的折疊線或軌跡，折疊形成驗配戴的二支臂部2021L 和2021R、上框壁2022及下框壁2024、以及卡合部2023， 因而形成如圖所示的本體202。二支臂部2021L和2021R 與上框壁2022及下錄丽騎疊額是減的，舉例 而言，若前者的折疊方向為向後，則後者為向前。在與二 支臂部2021L和2021R、及上框壁2022及下框壁2024相 鄰之中間部2025中，設有用於觀視的左觀視孔及右觀視孔 等二觀視孔。 滑動框組件204形成為具有左及右觀視框204R及 204L ’且各觀視框内分別設有一組對應的反射鏡。特別地， 滑動框組件204是由一件式可撓板折疊而成的。於下，將 參考圖6進一步說明滑動框組件2〇4的結構。 圖6係顯示形成滑動框組件2〇4的一件式可撓板的實 施例。在圖6中，以虛鏈線代表折疊線。藉由延著各虛鏈 線折疊圖6所示的可撓板，容易地形細5所示的滑動框 組件204。於下將說明折疊過程，值得注意的是在本說明 書中’為便於瞭解’而說明之折疊步驟的先後次序並非用 於限於折疊的挪’㈣糊叙折疊步财序可為任意 次序。 首先，將圖6中左側之第一區2〇41L的二側部及第二 區2042L的二端部延著同一虛鏈線向上（朝上離開圖面的 方向）折疊。然後，延著第一區2〇仙與第二區2〇42L交 接的虛鏈線，將第—區綱L朝向第二區2G42L而向上折 疊’使第二區2042L的二端部分別被第一區2〇仙的二側 部包覆。較佳地，第二區2042L的二端部可以藉由黏著劑 而與为別與第一區2〇4iL的二側部固定接合。 然後，延著第三區2043L與第四區2044L之間的虛鏈 線’將第三區2043L與第四區2〇4礼相互傾斜的方式向上 M416775 折疊。接著，將第一區2041L的二側部中的長度不同的二 長方形部份沿著折疊線對折而與第五區2045L相接合，較 佳地，黏由黏著劑而接合。如此，也將互成傾斜的第三區 2043L與第四區2044L包納於其中。最後，將第六區2〇46L 與第七區2047L延著它們之間的折疊線（虛鏈線）向上折 疊成為相互傾斜。經由上述折疊而形成如圖7所示的左觀 視框204L 〇 在如上所述折疊形成左觀視框2〇4L中，第四區2044L 的表面上設有反射鏡（前反射鏡），而在第七區2〇47L的背 面設有另一反射鏡（後反射鏡）。如此，來自觀視標的之光 線經由第一區中的孔而由第四區2〇44L的反射鏡導引經過 設於第6區中的孔而至設於第七區2〇47L的背面之另一反 射鏡’再反射至框體中對應的孔。 圖6中所示的中心區2048的右側與左側實質上是相互 對稱的，所以，以同樣的方式，折疊分別與第一區2〇4化、 第二區2042L、第三區2043L、第四區2044L、第五區 2045L、第六區2046L、及第七區2047R相對應的第九區 2041R、第十區2042R、第十一區2043R、第十二區2044R、 第十三區2045R、第十四區2046R、及第十五區2047R，而 形成右觀視框204R。為了簡明起見，不再贅述觀視框2〇4R 之折疊方式。 將如此形成的觀視組件204與本體202相接合。在接 合時’觀視組件204的中心區2048藉由黏著劑而固定接合 至本體202的中間部2025。According to the abstract - _, a stereoscopic eyeglass is provided for viewing an image, comprising: a body formed by a first flexible plate having an arm, an upper frame wall and a lower (four), and two walls, upper An intermediate portion adjacent to the frame wall and the lower frame wall is provided with two viewing holes in the +-strip; the mirror assembly is formed by the second flexible plate and the first-reflecting remainder and the second reaction group, and the second flexible plate Folding into a first reflecting portion and a second reflecting portion at two ends and being symmetrical with each other, the first reflecting portion having opposite first and second planes, and no second mosquito in the first plane a first intermediate plane having a first through hole, the second reflective portion having opposite third and fourth planes, and a second intermediate portion having a second through hole between the first plane and the second plane a first mirror group having first and second mirrors respectively disposed on the first plane and the second plane, the second mirror group having third surfaces respectively disposed on the third plane and the fourth plane a mirror and a fourth mirror; and a first sliding frame and a second sliding frame, respectively The tampering plate and the fourth movable plate are formed, and are respectively combined with the first reflecting portion and the second reflecting portion of the reflective component, and are capable of sliding along the upper frame wall and the lower frame wall, and the upper frame wall The lower frame wall is rotated to adjust the line of sight of the stereo glasses by moving the corresponding first mirror and the third mirror respectively. According to an embodiment of the present invention, the first sliding frame and the second sliding frame are respectively engaged with the first reflecting portion and the second reflecting portion of the mirror assembly in an engaging or adhesive manner. . According to an embodiment of the present invention, the first flexible plate, the second flexible plate, the third flexible plate, and the fourth flexible plate are made of cardboard, a plastic plate, or a resin plate. According to another aspect of the present invention, a stereoscopic eyeglass is provided for viewing a M 416775 stereoscopic image, the stereoscopic eyeglass comprising: a body formed by the first flexible plate having two arms, an upper frame wall and a lower frame wall And an intermediate portion adjacent to the two walls, the upper frame wall and the lower frame wall, and two viewing holes are provided in the intermediate portion; the sliding frame assembly is formed by folding a one-piece second flexible plate to have The left view frame and the right view frame, the left view frame and the right view frame view each include: a frame portion having a front through hole for allowing external light to enter; a front mirror portion having a front mirror To guide light entering from the front through hole; a rear through hole region adjacent to the front mirror portion, and a through hole for allowing light reflected by the front mirror to pass; and a rear mirror portion, and The rear through-hole regions are adjacent to each other and are inclined to each other, and 'providing a rear mirror for guiding light passing through the rear through-hole region toward a corresponding viewing hole provided in the body, wherein the frame portion and the front reflection The mirror portion is bonded so as to be movable integrally, when the frame portion and the front mirror portion are When moving to drive the rear area and the rear through hole moving the mirror portions, to each other to change the tilt angle between the through holes after the mirror area and the rear portion, so as to adjust the range of the stereoscopic vision glasses. The stereoscopic glasses according to the present invention have an adjustable structure, are easy to adjust, are easy to fold and unfold, are light and portable, and have low manufacturing cost, and can achieve good viewing effects and comfort. [Embodiment] In the following description, an embodiment according to the present invention will be described with reference to the drawings. The details of the embodiments of the present disclosure are disclosed in the accompanying drawings and the following description. The above and other features, objects, and advantages of the present invention will become apparent from the description and drawings. 6 (Embodiment 1) Fig. 1 is an appearance of a stereoscopic eyeglass 100 according to the present embodiment, and Fig. 2 is an exploded view corresponding to the stereoscopic eyewear 100 of Fig. 1. As shown in Fig. 2, the stereoscopic glasses 100 according to the present embodiment include a body 102, a mirror assembly 1〇3, two sliding frames i〇41 and i〇4R. According to this embodiment, the body 1〇2 is folded from a one-piece flexible plate. When folded into a desired three-dimensional shape as shown, the two folding arms 1〇2il and i〇2iR and the upper frame wall 1022 are formed by folding a predetermined folding line or a profile. The lower frame wall 1024 forms a body 102 as shown. The two arms i〇2lL and 1021R are opposite to the folding direction of the upper frame wall 1〇22 and the lower frame wall 1〇24. For example, if the former is folded backward, the latter is forward. In the intermediate portion 1〇23 adjacent to the two arm portions 1021L and 1021R, and the upper frame wall 1022 and the lower frame wall 1024, two viewing holes 1025L and 1025R for viewing are provided. According to the present invention, the mirror assembly 103 is also a combination of a one-piece flexible plate and a mirror. As shown in FIGS. 2 and 4, the one-piece flexible plate is folded such that the planar portion for arranging the first mirror 1031R and the planar portion of the second mirror 1032R oppose each other at a predetermined angular range, and A viewing hole is provided in the intermediate plane portion between the two planes. Similarly, the planar portion for the second mirror 1031L of the device and the planar portion of the fourth mirror i〇32L are also opposed to each other by a predetermined angular range, and in the intermediate plane portion between the M416775 of the two planes. With a viewing hole. In Fig. 2, the second mirror 1032L is not shown, but the mutual positional relationship of the second mirror 1032L and the corresponding first mirror 1031L can be clearly seen from Fig. 4. In other words, the mirror assembly 103 is folded by a one-piece flexible plate such that the first mirror 1031R reflects light from the outside (stereoscopic picture) to the second mirror 1032R, and then the light is guided by the second mirror 1032R. Through the viewing hole. Similarly, the third mirror 1031L and the fourth mirror 1032L form another set of mirrors, and the light from the outside (stereoscopic picture) is reflected by the third mirror i〇31L to the fourth mirror 1032L, and then Light is guided through the viewing aperture by the fourth mirror 1032L. With the respective mirror groups thus formed, light from the outside can be guided through the viewing holes to the left and right eyes of the viewer, thereby receiving good parallax information and producing a stereoscopic image effect. It should be noted that, as shown in FIG. 4, the first mirror 1031R and the third mirror 1031L can be moved as the handle portions 1034R and 1034L are pulled, and the second mirror 103R and the fourth mirror 1032L are moved. It is not moving. Therefore, the relative positional relationship between the first mirror i〇31R and the second mirror 1032R or the relative positional relationship between the third mirror 1031L and the fourth mirror 1032L can be adjusted by moving the handle portion 1034R or 1034L′. Adjust the line of sight through the viewing hole into the eyes of the viewer to achieve a good stereoscopic viewing effect. The sliding frames 104L and 104R are respectively folded by a one-piece flexible plate to form a three-dimensional frame in which viewing holes 1041L and 1041R are provided. It should be noted that the 8 sliding frames 104L and 104R are folded to be coupled with the upper frame portion 1022 and the lower frame portion 1〇24 of the body 1〇2 during assembly so as to be able to extend the frame portion 和22 and The lower frame portion 1024 slides. The structure of each component of the stereoscopic eyeglasses 10A according to the present invention has been described above, and the manner of assembly thereof will be described next. When assembled, the mirror assembly 103 is adhesively fixed to the intermediate portion 1〇23 between the upper frame portion 1022 and the lower frame portion 1〇24 such that the axis and the frame of a viewing hole in the mirror assembly 103 are fixed. The axes of the viewing holes i 〇 25L and 1025R in the body 1 〇 2 are aligned, respectively. The size of the two viewing holes in the mirror assembly 1〇3 is substantially the same as the size of the viewing holes 1025L and 1025R. Then, the sliding frame 104L is folded into a sliding engagement with the upper frame wall 1 22 and the lower frame wall 1024, so that the sliding frame 1 can slide along the upper frame wall 1 22 and the lower frame wall 1024, in other words, The frame wall 1〇22 and the lower frame wall 1〇24 serve as guide rails for the slide frame 104L so that the slide frame can be smoothly moved. The handle portion i 〇 33L of the mirror assembly 103 is combined with the slide frame 1 〇 4L, and as the slide frame 104L moves, the shank portion 1034L can move with it, and thus the second mirror 1031L is moved. Regarding the manner in which the handle portion i〇34L and the sliding frame i〇4L are combined, the handle portion 1034L can pass through the engaging hole provided in the sliding frame i〇4L and be engaged or bonded with the engaging hole so that In combination with the sliding frame 104L, the sliding frame i〇4R is combined with the body 102 and the mirror assembly 1〇3 in a similar manner. Thus, the stereo glasses M416775 100 as shown in Fig. 1 are assembled in the above manner. When the stereo glasses 100 thus formed are used, the user can adjust the line of sight of both eyes by moving the slide frame 104L or 104R' to obtain a good stereoscopic effect without causing discomfort such as dizziness. According to the present embodiment of the creation, each of the main members of the stereoscopic glasses 1 is folded by a one-piece flexible plate. For example, the material of the flexible plate may be a paper board, a resin material or a plastic or the like. In the present embodiment, cardboard is taken as an example for illustration. As described above, since the adjustment structure and the adjustment operation of the stereoscopic glasses according to the embodiment of the present invention are simple, and are made of a flexible plate such as a cardboard, a plastic plate, or a resin plate, it is easy to fold and unfold, and is lightweight. It is easy to carry and has low manufacturing cost, and can achieve good viewing and comfort. (Embodiment 2) Next, a stereoscopic eyeglass 2 according to an embodiment of the present invention will be described with reference to Figs. 5, ό and Fig. 7. As shown in FIG. 5, the stereoscopic glasses 200 include a body 202 and a sliding frame assembly 204. As in the first embodiment described above, the body 202 is formed by folding a one-piece flexible plate. When folded into a desired three-dimensional shape as shown, the two folding arms 2021L and 2021R, the upper frame wall 2022 and the lower frame wall 2024, and the card are folded to form a predetermined folding line or track. The joint 2023 thus forms the body 202 as shown. The overlap of the two arm portions 2021L and 2021R with the upper frame wall 2022 and the lower recording frame is reduced. For example, if the folding direction of the former is backward, the latter is forward. In the intermediate portion 2025 adjacent to the two arm portions 2021L and 2021R, and the upper frame wall 2022 and the lower frame wall 2024, two viewing holes such as a left viewing hole and a right viewing hole for viewing are provided. The sliding frame assembly 204 is formed to have left and right viewing frames 204R and 204L' and a respective set of corresponding mirrors are disposed within each viewing frame. In particular, the sliding frame assembly 204 is folded from a one-piece flexible panel. Next, the structure of the slide frame assembly 2〇4 will be further explained with reference to FIG. Figure 6 shows an embodiment of a one-piece flexible plate forming a sliding frame assembly 2〇4. In Fig. 6, the dotted line is represented by a dotted line. The slide frame assembly 204 shown in detail 5 is easily formed by folding the flexible plate shown in Fig. 6 along the respective virtual links. The folding process will be explained below, and it is worth noting that the order of the folding steps described in the 'for ease of understanding' in this specification is not intended to be limited to the folding. The fourth step can be in any order. First, the two side portions of the first region 2〇41L on the left side in Fig. 6 and the two end portions of the second region 2042L are folded upward by the same virtual chain line (the direction away from the drawing surface). Then, the first link between the first zone 2〇仙 and the second zone 2〇42L is crossed, and the first zone L is folded upward toward the second zone 2G42L, so that the two ends of the second zone 2042L are respectively The two sides of the area are covered with two sides. Preferably, the two ends of the second zone 2042L can be fixedly joined to the two sides of the first zone 2〇4iL by an adhesive. Then, the virtual link ' between the third zone 2043L and the fourth zone 2044L is folded toward the M416775 in such a manner that the third zone 2043L and the fourth zone 2〇4 are inclined to each other. Next, the two rectangular portions having different lengths in the two side portions of the first region 2041L are folded in half along the folding line to be joined to the fifth region 2045L, and preferably bonded by the adhesive. Thus, the third zone 2043L and the fourth zone 2044L which are inclined to each other are also included therein. Finally, the sixth zone 2〇46L and the seventh zone 2047L are folded upward by the folding line (dashed chain line) between them to be inclined to each other. The left view frame 204L shown in FIG. 7 is formed by folding as described above, and is folded into a left view frame 2〇4L as described above, and a mirror (front mirror) is provided on the surface of the fourth region 2044L, and Another mirror (back mirror) is provided on the back side of the seventh zone 2〇47L. Thus, the light from the viewing target is guided by the mirror of the fourth zone 2〇44L through the hole in the first zone through the hole provided in the sixth zone to the back surface provided in the seventh zone 2〇47L. The other mirror 're-reflects to the corresponding hole in the frame. The right side and the left side of the central area 2048 shown in FIG. 6 are substantially symmetrical with each other, so in the same manner, the folding is respectively associated with the first area 2, the second area 2042L, the third area 2043L, and the fourth a region 2044L, a fifth region 2045L, a sixth region 2046L, and a seventh region 2047R corresponding to the ninth region 2041R, the tenth region 2042R, the eleventh region 2043R, the twelfth region 2044R, the thirteenth region 2045R, the first Fourteen zones 2046R and fifteenth zones 2047R form a right viewing frame 204R. For the sake of brevity, the folding of the viewing frame 2〇4R will not be repeated. The viewing assembly 204 thus formed is joined to the body 202. The central portion 2048 of the viewing assembly 204 is fixedly joined to the intermediate portion 2025 of the body 202 by an adhesive when engaged.
特別地’在如此形成的左觀視框2〇4L中，第一區2041L 12 M416775 和第二區2042L構成框體部份，而設有前反射鏡的第四區 2044L與框體部份固定地接合，因此，當框體部份移動時， 前反射鏡與框體部份一起移動且相對位置關係不變，而設 有通孔的第六區2〇46L及設有後反射鏡的第七區2047L也 隨著框體移動而一起移動，但是，第六區2046L及第七區 2〇47L之間的位置關係隨著移動而改變，換言之，彼此相 互傾斜的第六區2046L及第七區2047L之間的傾斜角度隨 著移動而改變，因而藉由第七區2047L上反射鏡之改變而 改變傳送至使用者的視線範圍。也可以以同樣方式，來調 整右觀視框204R以改變觀視者的右眼視線範圍，而取得良 好的立體觀視效果。 在使用如此形成的立體眼鏡200以觀視立體圖像或影 片時’使用者藉由滑動左或右觀視框，可以調整兩眼的視 線範圍而取得良好的立體觀視效果且不會造成頭暈目眩等 不適。 如上所述，由於根據本實施例之立體眼鏡的調整結構 及調整操作都很簡單，且由例如紙板、塑膠板、或樹脂板 專可撓板製成。所以，容易折疊及展開、輕巧便於攜帶、 且製造成本低，又能取得良好的觀視效果及舒適度。 雖然已參考舉例說明的實施例來說明本創作。但是， 要瞭解’本創作不限於所揭示的舉例說明的實施例。後述 申請專利範圍之範圍要依最廣義的解釋以涵蓋所有這些修 改及均等結構和功能》 13 M416775 【圖式簡單說明】 圖1係立體視圖，顯示根據本創作的立體眼鏡實施例。 圖2對應於圖1之立體眼鏡實施例的爆炸視圖。 圖3係對應於圖1之根據本創作的實施例之立體眼鏡 的前視圖。 圖4係剖面視圖，對應於圖3的前視圖。 圖5顯示根據本創作的另一實施例之立體眼鏡的爆炸視 圖。 圖6係視圖’顯示圖5中顯示的滑動框組件的展開視圖。 圖7係視圖，顯示圖5中顯示的滑動框組件的折疊情形。 【主要元件符號說明】 100 立體眼鏡 102 本體 103 反射鏡組件 104L 滑動框體 104R 滑動框體 1021L 支臂 1021R 支臂 1022 上框壁 1023 中間部 1024 下框壁 1025L 觀視孔 1025R 觀視孔 1031R 第一反射鏡 1031L 第三反射鏡 1032R 第二反射鏡 1032L 第四反射鏡 1041L 觀視孔 1041R 觀視孔 200 立體眼鏡 202 本體 204 滑動框組件 204L 左觀視框 204R 右觀視框 2021L 支臂 M416775Specifically, in the left view frame 2〇4L thus formed, the first region 2041L 12 M416775 and the second region 2042L constitute a frame portion, and the fourth region 2044L provided with the front mirror is fixed to the frame portion. Ground joint, therefore, when the frame portion moves, the front mirror moves together with the frame portion and the relative positional relationship does not change, and the sixth region 2〇46L with the through hole and the first mirror provided The seven zones 2047L also move together with the movement of the frame, but the positional relationship between the sixth zone 2046L and the seventh zone 2〇47L changes with the movement, in other words, the sixth zone 2046L and the seventh which are inclined to each other. The angle of inclination between the regions 2047L changes with movement, and thus the range of line of sight transmitted to the user is changed by the change of the mirror on the seventh zone 2047L. It is also possible to adjust the right viewing frame 204R in the same manner to change the viewing angle range of the viewer's right eye to obtain a good stereoscopic viewing effect. When the stereoscopic glasses 200 thus formed are used to view a stereoscopic image or a movie, the user can adjust the line of sight of both eyes by sliding the left or right viewing frame to obtain a good stereoscopic effect without causing dizziness. Discomfort such as dizziness. As described above, since the adjustment structure and the adjustment operation of the stereoscopic glasses according to the present embodiment are simple, and are made of, for example, a cardboard, a plastic plate, or a resin plate. Therefore, it is easy to fold and unfold, is light and portable, and has low manufacturing cost, and can achieve good viewing and comfort. Although the present invention has been described with reference to the illustrated embodiments. However, it is to be understood that the present teachings are not limited to the illustrated embodiments disclosed. The scope of the claims is to be interpreted in the broadest sense to cover all such modifications and equivalent structures and functions. 13 M416775 BRIEF DESCRIPTION OF THE DRAWINGS Figure 1 is a perspective view showing an embodiment of a stereoscopic eyeglass according to the present invention. Figure 2 corresponds to an exploded view of the embodiment of the stereoscopic glasses of Figure 1. Fig. 3 is a front elevational view of the stereoscopic glasses corresponding to the embodiment of Fig. 1 according to the present invention. Figure 4 is a cross-sectional view corresponding to the front view of Figure 3. Fig. 5 shows an exploded view of a stereoscopic eyeglass according to another embodiment of the present creation. Figure 6 is a view 'showing an expanded view of the sliding frame assembly shown in Figure 5. Figure 7 is a view showing the folding of the sliding frame assembly shown in Figure 5. [Main component symbol description] 100 Stereo glasses 102 Main body 103 Mirror assembly 104L Sliding frame 104R Sliding frame 1021L Arm 1021R Arm 1022 Upper frame wall 1023 Middle portion 1024 Lower frame wall 1025L View hole 1025R View hole 1031R A mirror 1031L third mirror 1032R second mirror 1032L fourth mirror 1041L viewing hole 1041R viewing hole 200 stereo glasses 202 body 204 sliding frame assembly 204L left viewing frame 204R right viewing frame 2021L arm M416775
2021R 支臂 2022 2023 卡合部 2024 2025 中間部 2041L 2042L 第二區 2043L 2044L 第四區 2045L 2046L 第六區 2047L 2048 第八區 2041R 2042R 第十區 2043R 2044R 第十二區 2045R 2046R 第十四區 2047R 上框壁 下框壁 第一區 第四區 第五區 第七區 第九區 第十一區 第十三區 第十五區2021R Arm 2022 2023 Engagement 2024 2025 Intermediate section 2041L 2042L Second zone 2043L 2044L Fourth zone 2045L 2046L Sixth zone 2047L 2048 Eighth zone 2041R 2042R Tenth zone 2043R 2044R Twelfth zone 2045R 2046R Fourteenth zone 2047R Upper frame wall lower frame first district fourth district fifth district seventh district ninth district eleventh district thirteenth district fifteenth district
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