本創作之目的，在於提供一種雙眼之眼肌調節與放鬆裝置，其兼具眼肌調節與放鬆裝置相當創新。老花、近視、隱斜視及弱視均可由本裝置訓練達到矯正，使眼外肌聚合及開散更加協調，改善斜位、固視及追視能力增加，形成正常的雙眼視覺。依不同調節需求改變動態視標大小、菲涅爾稜鏡(Fresnel prism)之稜鏡度與轉速、及漸進多焦鏡片附加度數，更換式結構使視力訓練效果更好，患者使用接受度高等優點。特別是，本創作所欲解決之問題係在於目前並沒有雙眼之眼肌調節與放鬆裝置等問題。 解決上述問題之技術手段係提供一種雙眼之眼肌調節與放鬆裝置，其包括： 一眼肌調節與放鬆配戴模組，係用以供一使用者配戴，該眼肌調節與放鬆配戴模組係包括一鏡架部及兩個眼球訓練部；該鏡架部係具有兩容納部及兩觀視軸線，該兩容納部係分別以該兩觀視軸線為軸心，而分別對應該使用者之雙眼；該每一眼球訓練部係包括一固定座、一視線調整組件及一動力供入部，該固定座係同軸設於相對應之該容納部內；該視線調整組件係同軸設於該固定座上；該動力供入部係設於該鏡架部； 一眼肌調節與放鬆訓練模組，係用以輸出至少一動態視標訊號，其係可被編寫與調整； 一眼肌調節與放鬆顯示模組，係連結該眼肌調節與放鬆訓練模組，並對應不同的該動態視標訊號，而分別呈現一動態視標，該至少一動態視標係選自藍色方框、紅色三角框、藍色方框與紅色三角框同時顯示且上下左右移動、藍色圓圈、紅色圓圈、藍色圓圈與白色圓圈並可相互變換、紅色圓圈與白色圓圈並可相互變換、藍色圓圈及紅色圓圈與白色圓圈同時顯示、藍色圓圈由小變大、紅色圓圈由小變大、藍色圓圈與紅色圓圈同時顯示且由小變大、藍色圓圈與紅色圓圈同時顯示且由小變大並由外向內移動、兩旋轉光柵中央E行視標其中一種顯示模式； 藉此，當該兩個動力供入部分別供兩動力驅動該兩個固定座，該兩個固定座係分別以該觀視軸線為中心，帶動該兩個視線調整組件分別沿一左轉動路徑及一右轉動路徑，而在360度內任意轉動，並當該雙眼分別透過兩個轉動的該視線調整組件，觀看於不同模式間依序變換之該動態視標時，因該兩視線調整組件折射，而分別看到移動的一左眼影像及一右眼影像，而跟著轉動，使眼球肌肉因帶動眼球轉動，達成雙眼之眼肌調節與放鬆裝置。 本創作之上述目的與優點，不難從下述所選用實施例之詳細說明與附圖中，獲得深入瞭解。 茲以下列實施例並配合圖式詳細說明本創作於後：The purpose of this creation is to provide a two-eye eye muscle adjustment and relaxation device, which is quite innovative with both eye muscle adjustment and relaxation devices. Presbyopia, myopia, strabismus and amblyopia can be corrected by the device, which makes the extraocular muscle polymerization and dispersal more coordinated, improves the oblique position, fixation and pursuit ability, and forms normal binocular vision. According to different adjustment requirements, the dynamic visual target size, the Fresnel prism's twist and rotation speed, and the progressive multifocal lens additional degree, the replacement structure makes the visual training effect better, and the patient's use acceptance is high. . In particular, the problem that this creation is to solve is that there are currently no problems such as eye muscle adjustment and relaxation devices. The technical means for solving the above problems is to provide a two-eye eye muscle adjustment and relaxation device, comprising: an eye muscle adjustment and relaxation wearing module, which is used for a user to wear, the eye muscle adjustment and relaxation wear The module system includes a frame portion and two eyeball training portions; the frame portion has two receiving portions and two viewing axes, and the two receiving portions are respectively aligned with the two viewing axes, and respectively correspond to The eyeball training unit includes a fixing base, a line of sight adjusting component and a power feeding portion, the fixing seat is coaxially disposed in the corresponding receiving portion; the line of sight adjusting component is coaxially disposed on The power supply portion is disposed in the frame portion; the eye muscle adjustment and relaxation training module is configured to output at least one dynamic visual target signal, which can be programmed and adjusted; an eye muscle adjustment and relaxation The display module is connected to the eye muscle adjustment and relaxation training module, and corresponding to the different dynamic visual target signals, respectively, and presents a dynamic visual target, wherein the at least one dynamic visual target is selected from a blue square and a red triangle. Box, blue The box and the red triangle frame are displayed simultaneously and move up and down, blue circles, red circles, blue circles and white circles and can be transformed with each other, red circles and white circles can be transformed, blue circles and red circles and white circles At the same time, the blue circle is changed from small to large, the red circle is changed from small to large, the blue circle and the red circle are simultaneously displayed, and the small and large circles are displayed, and the blue circle and the red circle are simultaneously displayed and become small and large and move from the outside to the inside. One of the display modes of the central E-line of the two rotating gratings; thereby, when the two power feeding portions respectively drive the two fixing seats by two powers, the two fixing bases are respectively centered on the viewing axis The two line-of-sight adjusting components are respectively rotated along a left rotation path and a right rotation path, and are arbitrarily rotated within 360 degrees, and when the two eyes respectively pass through two rotated line-of-sight adjustment components, the two modes are viewed according to different modes. When the dynamic visual target of the sequence is transformed, the left eye image and the right eye image of the moving eye are respectively seen by the two line of sight adjusting components, and then the eye muscles are rotated. As the eyeball rotates, the eye muscle adjustment and relaxation device of both eyes is achieved. The above objects and advantages of the present invention will be readily understood from the following detailed description of the embodiments and the accompanying drawings. The following examples are used in conjunction with the drawings to illustrate the creation in detail:
參閱第1A、第1B、第2及第3圖，本創作係為一雙眼之眼肌調節與放鬆裝置，其包括一眼肌調節與放鬆配戴模組10、一眼肌調節與放鬆訓練模組20及一眼肌調節與放鬆顯示模組30。 關於該眼肌調節與放鬆配戴模組10，係用以供一使用者90配戴，該眼肌調節與放鬆配戴模組10係包括一鏡架部10A及兩個眼球訓練部10B；該鏡架部10A係具有兩容納部11A及兩觀視軸線A，該兩容納部11A係分別以該兩觀視軸線A為軸心，而分別對應該使用者90之雙眼91。該每一眼球訓練部10B係包括一固定座11B、一視線調整組件12B及一動力供入部13B；該固定座11B係同軸設於相對應之該容納部11A內。該視線調整組件12B係同軸設於該固定座11B上；該動力供入部13B係設於該鏡架部10A。 關於該眼肌調節與放鬆訓練模組20，係用以輸出至少一動態視標訊號21，其係可被編寫與調整。 關於該眼肌調節與放鬆顯示模組30，係連結該眼肌調節與放鬆訓練模組20，並對應不同的該動態視標訊號21，而分別呈現一動態視標31，該至少一動態視標31係選自藍色方框(參閱第11圖)、紅色三角框(參閱第12圖)、藍色方框與紅色三角框同時顯示且上下左右移動(參閱第13A及第13B圖)、藍色圓圈(參閱第14圖)、紅色圓圈(參閱第15圖)、藍色圓圈與白色圓圈並可相互變換(參閱第16A及第16B圖)、紅色圓圈與白色圓圈並可相互變換(參閱第17A及第17B圖)、藍色圓圈及紅色圓圈與白色圓圈同時顯示(參閱第18圖)、藍色圓圈由小變大(參閱第19圖)、紅色圓圈由小變大(參閱第20圖)、藍色圓圈與紅色圓圈同時顯示且由小變大(參閱第21圖)、藍色圓圈與紅色圓圈同時顯示且由小變大並由外向內移動(參閱第22圖)、兩旋轉光柵中央E行視標其中一種顯示模式(參閱第23圖)。 藉此，當該兩個動力供入部13B分別供兩動力P(參閱第5及第6圖，係舉中一個動力供入部13B供手指推動為例作說明)驅動該兩個固定座11B(大約10分鐘)，該兩個固定座11B係分別以該觀視軸線A為中心，帶動該兩個視線調整組件12B分別沿一左轉動路徑LS及一右轉動路徑RL，而在360度內任意轉動，並當該雙眼91分別透過兩個轉動的該視線調整組件12B，觀看於不同模式間依序變換之該動態視標31時(參閱第9圖)，因該兩視線調整組件12B折射(參閱第4圖，因折射而使原始的該觀視軸線A變成一折射觀視軸線A’)，而分別看到移動的一左眼影像L及一右眼影像R，而跟著轉動，使眼球肌肉因帶動眼球轉動，達成雙眼之眼肌調節與放鬆裝置。 實務上，該鏡架部10A係設一第一殼體101、一第二殼體102及一對濾光片103；該第一殼體101及該第二殼體102用以對合組立，該兩容納部11A係分別從該第一殼體10與該第二殼體102之內部連通至外部，該對濾光片103係分別與該兩觀視軸線A同軸，而設於該第一殼體101上，該動力供入部13B 係一體成型於該第一殼體101上。 該對濾光片103可為綠色濾光片與紅色濾光片。 該對濾光片103用以作為破壞融像，達成單眼直視之裝置。 該每一固定座11B係具有一第一連接部111及一帶動部112，該帶動部112係一體成型於該固定座11B週緣之鋸齒結構，用以供手指(產生外力P)從該動力供入部13B伸入，並推動摩擦而轉動該固定座11B。 當然，除以手指推動外，亦可外掛動力(例如手錶內部的小型馬達傳動齒輪組而推動之公知技術)推動。 該每一視線調整組件12B係具有一第二連接部121、一透光平面部122及一菲涅爾稜鏡123(參閱第2及第4圖)，該第二連接部121係供該視線調整組件12B連結於該第一連接部111。該透光平面部122及該菲涅爾稜鏡123係用以使該雙眼91分別透過兩個轉動的該視線調整組件12B，觀看該動態視標31於不同模式依序變換時產生折射(參閱第4圖，因折射而使原始的該觀視軸線A變成一折射觀視軸線A’)，而分別看到移動的該左眼影像L及該右眼影像R。 該菲涅爾稜鏡(Fresnel prism)123係具有一第一厚度T1及一第一線距D1(參閱第7圖)，並可依實際需要而改變為一第二厚度T2及一第二線距D2(參閱第8圖，當然，圖之尺寸只是舉例說明，實際尺寸可作增減變化)，該兩個視線調整組件12B上之該菲涅爾稜鏡123的尺寸，可為相同或是不同。 該菲涅爾稜鏡123別具眼外肌做調節、放鬆與破壞融像功能之裝置。 更詳細的講，當該左、該右眼影像L與R於轉動中未交會時，該雙眼91概呈未聚焦而分別看到分開的該左、該右眼影像L與R，而可放鬆；並當該左、該右眼影像L與R於轉動中交會時，該雙眼91概呈聚焦而看到清楚重疊的該左、該右眼影像L與R；該左、該右轉動路徑LS、RL之轉動速度及轉動半徑皆為可調。 舉例來講，當以手指從該兩個動力供入部13B推動(如第6圖所示，假設一順時針動力P1與一逆時針動力P2，可分別用以將該菲涅爾稜鏡123轉動到一第一方向X1與一第二方向X2)該兩個固定座11B，使該兩個固定座11B分別帶動該兩個視線調整組件12B，在該兩個容納部11A內，分別沿該左、該右轉動路徑LS與RL，而可在360度內任意轉動，例如：從一分離位置A1L、A1R(參閱第10A圖)轉動到一轉動位置A2L、A2R(參閱第10B圖)，並從該轉動位置A2L、A2R轉動到一聚焦位置A3L、A3R(參閱第10C圖)，最後可再轉回該分離位置A1L、A1R。 該眼肌調節與放鬆配戴模組10又包括一對光學鏡片10C，係同軸設於該對視線調整組件12B上。 該對光學鏡片10C可為一對漸進多焦鏡片，並外掛於該第二殼體102上。 該光學鏡片10C別具眼內肌訓練功能，達成可使該雙眼91調節、放鬆及內聚之裝置。 該眼肌調節與放鬆訓練模組20可為桌上型電腦、具運算功能之計算機裝置，進而配合鍵盤、滑鼠或是藍芽裝置(WIFI無線遙控裝置)進行設定、控制，而輸出該至少一動態視標訊號21。 該眼肌調節與放鬆顯示模組30可為公知顯示器裝置，而可用以顯示該動態視標31。 該雙眼之眼肌調節與放鬆裝置係用以進行下列調節放鬆模式： [a] 第一模式：參閱第11圖，該動態視標31係為藍色(以左下右上之剖面線示意藍色)方框，用以供使用者90專注觀視(停留時間大約5秒)。 [b] 第二模式：當該兩個動力供入部13B分別供兩動力P(參閱第5及第6圖，係舉中一個動力供入部13B供手指推動為例作說明)驅動該兩個固定座11B(大約10分鐘)，該兩個固定座11B係分別以該觀視軸線A為中心，帶動該兩個視線調整組件12B分別沿一左轉動路徑LS及一右轉動路徑RL，而在360度內任意轉動，並當該雙眼91分別透過兩個轉動的該視線調整組件12B，觀看該動態視標31時(參閱第9圖)，因該兩視線調整組件12B折射(參閱第4圖，因折射而使原始的該觀視軸線A變成一折射觀視軸線A’)，而分別看到移動的左眼影像L及右眼影像R，進而跟著轉動，使眼球肌肉因帶動眼球轉動而可保持彈性。 [c] 第三模式：參閱第12圖，此時該左眼影像L及該右眼影像R(亦即該動態視標31)係為紅色(以右下左上之剖面線示意紅色)三角框，用以供使用者90專注觀視(停留時間大約5秒)。 [d] 第四模式：此時該左眼影像L及該右眼影像R(亦即該動態視標31)皆係為藍色方框與紅色三角框同時顯示，且呈上下(參閱第13A圖)左右(參閱第13B圖)移動，此模式主要確認該雙眼91均能正常運作，無抑制的現象(停留時間大約20秒)。 [ｅ] 第五模式：此時該左眼影像L及該右眼影像R(亦即該動態視標31)係為藍色圓圈(參閱第14圖)，此模式主要確認該雙眼91之視覺仍能專注(看)在單一視標(亦即該動態視標31)上，而無被抑制(停留時間大約5秒)。 [f] 第六模式：此時該左眼影像L及該右眼影像R(亦即該動態視標31)係為紅色圓圈(參閱第15圖)，此模式主要確認該雙眼91之視覺仍能專注(看)在單一視標(亦即該動態視標31)上，而無被抑制(停留時間大約5秒)。 [g] 第七模式：此時該左眼影像L及該右眼影像R(亦即該動態視標31)皆係為藍色圓圈與白色圓圈並可相互變換(參閱第16A及第16B圖)(停留時間大約5秒)。 [h] 第八模式：此時該左眼影像L及該右眼影像R(亦即該動態視標31)皆係為紅色圓圈與白色圓圈並可相互變換(參閱第17A及第17B圖)(停留時間大約50秒)。 [i] 第九模式：此時該左眼影像L及該右眼影像R(亦即該動態視標31)皆係為藍色圓圈(兩個)及紅色圓圈與白色圓圈同時顯示(參閱第18圖)，此模式主要確認該使用者90能使用與刺激中央與週邊區(停留時間大約20秒)。 [j] 第十模式：此時該左眼影像L及該右眼影像R(亦即該動態視標31)皆係為藍色圓圈由小變大(參閱第19圖)，此模式主要確認該雙眼91的其中之任一，能有效使用左眼帶動右眼之調節作用(停留時間大約5秒)。 [k] 第十一模式：此時該左眼影像L及該右眼影像R(亦即該動態視標31)皆係為紅色圓圈由小變大(參閱第20圖)，此模式主要確認該雙眼91的其中之任一，能有效使用右眼帶動左眼之調節作用(停留時間大約5秒)。 [l] 第十二模式：此時該左眼影像L及該右眼影像R(亦即該動態視標31)皆係為藍色圓圈與紅色圓圈同時顯示且由小變大(參閱第21圖)，此模式主要確認該雙眼91的同步調節，達到該雙眼91緊張與放鬆之作用(停留時間大約20秒)。 [m] 第十三模式：此時該左眼影像L及該右眼影像R(亦即該動態視標31)皆係為藍色圓圈與紅色圓圈同時顯示且由小變大並由外向內移動(參閱第22圖)，此模式主要加強該雙眼91之內聚效果(停留時間大約20秒)。 [n] 第十四模式：此時該左眼影像L及該右眼影像R(亦即該動態視標31)皆係為兩旋轉光柵中央E行視標(參閱第23圖)，此模式係為弱視訓練旋轉光柵原理，並請該使用者90專注中央E行視標預定時間(大約40秒)後，左右動態圖相互更換位置(停留時間大約10秒)，再重覆一次動作。 本創作之優點及功效可歸納如下： [1] 眼肌調節與放鬆裝置相當創新。本創作能訓練眼球運動、增強眼球之六條眼外動眼肌肉之協調聚合及開散與追視能力、眼內睫狀肌的調節能力，再配合漸進多焦點鏡片及菲涅耳稜鏡，達到看近與看遠效果，最後使得眼內睫狀肌達到調節緊張與放鬆，訓練眼內眼肌調節靈敏度，增加眼內外肌延展與收縮，以及對物體注視與追視之能力。故，眼肌調節與放鬆裝置相當創新。 [2] 老花、近視、遠視及弱視均可進行調節與放鬆。本創作透過動態視標的顯示模式變化，達成以同一裝置，同時對老花眼、近視眼、遠視眼及弱視眼進行調節與放鬆，相當便利。故，老花、近視、遠視及弱視均可進行調節與放鬆。 [3] 更換式結構使視力回復效果更好。本創作之每一菲涅耳稜鏡，其厚度及線距的結構尺寸皆可依實際需要改變，假設使用第一種尺寸使視力回復到一定程度了，則可更換不同度規格之菲涅爾稜鏡，可能使視力再增進到另一程度。故，更換式結構使視力回復效果更好。 [4] 可依不同調節需求改變動態視標。本創作之動態視標係依不同的動態視標訊號而變化，這部分可透過眼肌調節與放鬆訓練模組進行編寫與調整，而達到依不同的視力調節需求，呈現不同的動態視標。故，可依不同調節需求改變動態視標。 [5] 不會頭暈使用接受度高。本創作將眼肌調節與放鬆顯示模組之背景顏色設定為全黑，用意為防止鬼影(視覺干擾)現象(相關領域悉知，恕不贅述)，減少干擾光源，如此更能使患者專注一目標，達到更好的眼肌訓練效果，並能讓使用者之雙眼在調節與放鬆的過程中，不會頭暈，增加舒適感，相對提高使用者之使用接受度，提高調節與放鬆之成功機率。故，不會頭暈使用接受度高。 以上僅是藉由較佳實施例詳細說明本創作，對於該實施例所做的任何簡單修改與變化，皆不脫離本創作之精神與範圍。Referring to Figures 1A, 1B, 2, and 3, the creation is a pair of eye muscle adjustment and relaxation devices, including an eye muscle adjustment and relaxation wearing module 10, an eye muscle adjustment and relaxation training module 20 and an eye muscle adjustment and relaxation display module 30. The eye muscle adjustment and relaxation wearing module 10 is for a user 90 to wear, the eye muscle adjustment and relaxation wearing module 10 includes a frame portion 10A and two eyeball training portions 10B; The frame portion 10A has two receiving portions 11A and two viewing axis A. The two receiving portions 11A are respectively centered on the two viewing axes A, and respectively correspond to the eyes 91 of the user 90. Each of the eyeball training portions 10B includes a fixing base 11B, a line of sight adjusting component 12B and a power feeding portion 13B. The fixing base 11B is coaxially disposed in the corresponding receiving portion 11A. The line-of-sight adjusting unit 12B is coaxially disposed on the fixed seat 11B; the power feeding unit 13B is attached to the frame portion 10A. The eye muscle adjustment and relaxation training module 20 is configured to output at least one dynamic visual target signal 21, which can be programmed and adjusted. The eye muscle adjustment and relaxation display module 30 is connected to the eye muscle adjustment and relaxation training module 20, and corresponding to the different dynamic visual target signals 21, respectively, and presents a dynamic visual target 31, the at least one dynamic visual image. The standard 31 is selected from the blue box (see Figure 11), the red triangle frame (see Figure 12), the blue box and the red triangle frame are displayed simultaneously and move up, down, left and right (see Figures 13A and 13B), Blue circles (see Figure 14), red circles (see Figure 15), blue circles and white circles and can be interchanged (see Figures 16A and 16B), red circles and white circles and can be interchanged (see Figures 17A and 17B), blue circles and red circles are displayed simultaneously with white circles (see Figure 18), blue circles are enlarged from small to large (see Figure 19), and red circles are enlarged from small to large (see page 20). Figure), the blue circle and the red circle are displayed at the same time and grow from small to large (see Figure 21), the blue circle and the red circle are displayed simultaneously and become smaller and larger and move from the outside to the inside (see Figure 22), two rotations One of the display modes of the center E-line of the raster (see Figure 23). Thereby, when the two power supply portions 13B are respectively supplied with two powers P (refer to FIGS. 5 and 6, a power supply portion 13B is exemplified by a finger for driving), the two mounts 11B are driven (about 10 minutes), the two fixing seats 11B are respectively centered on the viewing axis A, and the two line-of-sight adjusting components 12B are respectively rotated along a left rotation path LS and a right rotation path RL, and are rotated arbitrarily within 360 degrees. And when the two eyes 91 pass through the two rotated line-of-sight adjusting components 12B, respectively, when the dynamic target 31 is sequentially changed between different modes (refer to FIG. 9), the two line-of-sight adjusting components 12B are refracted ( Referring to Fig. 4, the original viewing axis A becomes a refraction viewing axis A') due to refraction, and respectively sees a moving left eye image L and a right eye image R, and then rotates to make the eyeball The muscles rotate the eyeball to achieve eye muscle adjustment and relaxation devices. In practice, the frame portion 10A is configured with a first housing 101, a second housing 102, and a pair of filters 103. The first housing 101 and the second housing 102 are used for assembly. The two receiving portions 11A are respectively communicated from the inside of the first housing 10 and the second housing 102 to the outside, and the pair of filters 103 are respectively coaxial with the two viewing axes A, and are disposed at the first The power supply portion 13B is integrally formed on the first casing 101 on the casing 101. The pair of filters 103 can be a green filter and a red filter. The pair of filters 103 serves as means for destroying the fusion image and achieving direct eye view. Each of the fixing bases 11B has a first connecting portion 111 and a driving portion 112. The driving portion 112 is integrally formed on the serration structure of the periphery of the fixing seat 11B for supplying a finger (generating external force P) from the power supply. The inlet portion 13B projects in and pushes the friction to rotate the fixing seat 11B. Of course, in addition to pushing with a finger, it can also be driven by external power (such as the well-known technology promoted by a small motor drive gear set inside the watch). Each of the line-of-sight adjusting components 12B has a second connecting portion 121, a light transmitting flat portion 122 and a Fresnel 稜鏡 123 (see FIGS. 2 and 4), and the second connecting portion 121 is for the line of sight. The adjustment unit 12B is coupled to the first connection portion 111. The light transmitting plane portion 122 and the Fresnel 稜鏡123 are configured to respectively transmit the two eyes 91 through the two rotating line-of-sight adjusting components 12B, and watch the dynamic target 31 to refraction when sequentially changing in different modes ( Referring to Fig. 4, the original viewing axis A becomes a refractive viewing axis A') due to refraction, and the left eye image L and the right eye image R are respectively seen. The Fresnel prism 123 has a first thickness T1 and a first line spacing D1 (see FIG. 7), and can be changed to a second thickness T2 and a second line according to actual needs. D2 (refer to Figure 8, of course, the size of the figure is only an example, the actual size can be changed), the size of the Fresnel 稜鏡123 on the two line-of-sight adjusting components 12B can be the same or different. The Fresnel 稜鏡123 has an extraocular muscle for the function of regulating, relaxing and destroying the fusion function. In more detail, when the left and right eye images L and R are not intersected in the rotation, the eyes 91 are unfocused and respectively see the left and right eye images L and R, respectively. Relaxing; and when the left and right eye images L and R meet in rotation, the eyes 91 are in focus to see the left and right eye images L and R that are clearly overlapped; the left and right rotations The rotational speed and radius of rotation of the paths LS and RL are all adjustable. For example, when pushing with the fingers from the two power supply portions 13B (as shown in Fig. 6, assuming a clockwise power P1 and a counterclockwise power P2, respectively, can be used to rotate the Fresnel 稜鏡 123 The two fixing seats 11B are driven by a first direction X1 and a second direction X2, respectively, so that the two fixing seats 11B respectively drive the two line-of-sight adjusting components 12B, respectively, along the left in the two receiving portions 11A The right rotation path LS and RL can be arbitrarily rotated within 360 degrees, for example, from a separation position A1L, A1R (refer to FIG. 10A) to a rotation position A2L, A2R (refer to FIG. 10B), and from The rotational positions A2L, A2R are rotated to a focus position A3L, A3R (see Fig. 10C), and finally can be transferred back to the separated positions A1L, A1R. The eye muscle adjustment and relaxation wearing module 10 further includes a pair of optical lenses 10C coaxially disposed on the pair of line-of-sight adjustment components 12B. The pair of optical lenses 10C can be a pair of progressive multifocal lenses and are externally attached to the second housing 102. The optical lens 10C has an intraocular muscle training function to achieve a device that can adjust, relax, and cohere the eyes 91. The eye muscle adjustment and relaxation training module 20 can be a desktop computer, a computer device with a computing function, and then configured, controlled, and outputted with at least a keyboard, a mouse, or a Bluetooth device (WIFI wireless remote control device). A dynamic optotype signal 21. The eye muscle adjustment and relaxation display module 30 can be a well-known display device and can be used to display the dynamic visual target 31. The eye-eye adjustment and relaxation device is used to perform the following adjustment relaxation modes: [a] First mode: Referring to Figure 11, the dynamic optotype 31 is blue (shown in blue on the lower left and upper right) A box for the user 90 to focus on viewing (residence time is about 5 seconds). [b] The second mode: when the two power supply portions 13B respectively supply two powers P (refer to FIGS. 5 and 6, a power supply portion 13B is provided for finger pushing as an example) to drive the two fixed portions. The seat 11B (about 10 minutes), the two fixing seats 11B are respectively centered on the viewing axis A, and the two line-of-sight adjusting components 12B are respectively driven along a left rotation path LS and a right rotation path RL, and at 360 Rotate arbitrarily within the degree, and when the two eyes 91 pass through the two rotated line-of-sight adjusting components 12B, when viewing the dynamic optotype 31 (refer to FIG. 9), the two line-of-sight adjusting components 12B are refracted (see FIG. 4). The original viewing axis A becomes a refraction viewing axis A') due to refraction, and the moving left-eye image L and the right-eye image R are respectively seen, and then rotated, so that the eye muscles rotate by the eyeball. Can maintain flexibility. [c] Third mode: Referring to Fig. 12, the left eye image L and the right eye image R (i.e., the dynamic object mark 31) are red (the red line is indicated by the lower right upper left line) triangular frame. For the user 90 to focus on viewing (residence time is about 5 seconds). [d] The fourth mode: at this time, the left eye image L and the right eye image R (that is, the dynamic optotype 31) are simultaneously displayed as blue squares and red triangle frames, and are displayed up and down (see section 13A). Figure) Moving left and right (see Figure 13B), this mode mainly confirms that both eyes 91 can operate normally without suppression (residence time is about 20 seconds). [e] Fifth mode: At this time, the left eye image L and the right eye image R (that is, the dynamic optotype 31) are blue circles (refer to FIG. 14), and this mode mainly confirms the eyes 91 The vision can still focus (see) on a single optotype (ie, the dynamic optotype 31) without being suppressed (residence time is about 5 seconds). [f] The sixth mode: at this time, the left eye image L and the right eye image R (that is, the dynamic optotype 31) are red circles (refer to Fig. 15), and this mode mainly confirms the vision of the eyes 91 Still able to focus (see) on a single optotype (ie, the dynamic optotype 31) without being suppressed (residence time is about 5 seconds). [g] The seventh mode: at this time, the left eye image L and the right eye image R (that is, the dynamic optotype 31) are both blue circles and white circles and can be mutually transformed (refer to FIGS. 16A and 16B). ) (residence time is about 5 seconds). [h] Eighth mode: At this time, the left-eye image L and the right-eye image R (that is, the dynamic target 31) are red circles and white circles and can be mutually transformed (refer to FIGS. 17A and 17B). (The stay time is about 50 seconds). [i] ninth mode: at this time, the left eye image L and the right eye image R (that is, the dynamic target object 31) are both displayed as blue circles (two) and red circles and white circles are simultaneously displayed (see the 18)) This mode primarily confirms that the user 90 can use and stimulate the central and peripheral zones (residence time is approximately 20 seconds). [j] Tenth mode: At this time, the left-eye image L and the right-eye image R (that is, the dynamic visual target 31) are all blue circles from small to large (refer to Fig. 19), and this mode mainly confirms Any of the eyes 91 can effectively use the left eye to drive the adjustment of the right eye (residence time is about 5 seconds). [k] Eleventh mode: At this time, the left-eye image L and the right-eye image R (that is, the dynamic optotype 31) are all red circles from small to large (see Figure 20). This mode mainly confirms Any of the eyes 91 can effectively use the right eye to drive the adjustment of the left eye (residence time is about 5 seconds). [l] Twelfth mode: At this time, the left-eye image L and the right-eye image R (that is, the dynamic visual target 31) are displayed as blue circles and red circles simultaneously and become smaller (see 21st). Fig.), this mode mainly confirms the simultaneous adjustment of the eyes 91 to achieve the tension and relaxation of the eyes 91 (residence time is about 20 seconds). [m] The thirteenth mode: at this time, the left eye image L and the right eye image R (that is, the dynamic optotype 31) are displayed as blue circles and red circles simultaneously and become smaller and larger from the outside to the inside. Move (see Figure 22), this mode primarily enhances the cohesive effect of the binocular 91 (residence time is approximately 20 seconds). [n] Fourteenth mode: At this time, the left-eye image L and the right-eye image R (that is, the dynamic optotype 31) are both the central E-line of the two rotating gratings (refer to Fig. 23), this mode It is the principle of amblyopia training rotary grating, and the user 90 is focused on the central E line visual target for a predetermined time (about 40 seconds), the left and right dynamic maps are replaced with each other (residence time is about 10 seconds), and the action is repeated again. The advantages and effects of this creation can be summarized as follows: [1] The eye muscle adjustment and relaxation device is quite innovative. This creation can train eye movements, enhance the coordination of the eye movements of the six eye movements, and the ability to disperse and chase, adjust the intracranial ciliary muscles, and then cooperate with progressive multifocal lenses and Fresnel Seeing the near and far effect, and finally making the intracranial ciliary muscles adjust tension and relaxation, training the intraocular muscles to adjust the sensitivity, increase the expansion and contraction of the intraocular and extraocular muscles, and the ability to gaze and pursue the object. Therefore, the eye muscle adjustment and relaxation device is quite innovative. [2] Old flowers, myopia, hyperopia and amblyopia can be adjusted and relaxed. Through the change of the display mode of the dynamic optotype, this creation achieves the same device, and at the same time adjusts and relaxes the presbyopia, myopia, presbyopia and amblyopia, which is quite convenient. Therefore, presbyopia, myopia, hyperopia and amblyopia can be adjusted and relaxed. [3] The replacement structure makes the vision recovery better. For each Fresnel of this creation, the thickness and the structural size of the line spacing can be changed according to actual needs. If the first size is used to restore the vision to a certain level, the Fresnel of different specifications can be replaced. Oh, it may increase your vision to another level. Therefore, the replacement structure makes the vision recovery effect better. [4] The dynamic optotype can be changed according to different adjustment requirements. The dynamic visual mark of this creation changes according to different dynamic visual target signals. This part can be written and adjusted through the eye muscle adjustment and relaxation training module, and different dynamic visual targets are presented according to different vision adjustment requirements. Therefore, the dynamic visual target can be changed according to different adjustment requirements. [5] No dizziness is used with high acceptance. This creation sets the background color of the eye muscle adjustment and relaxation display module to all black, which is intended to prevent ghosting (visual interference) phenomenon (known in the relevant field, not to be described), to reduce the interference light source, so that the patient can focus more A goal is to achieve better eye muscle training effect, and to allow the user's eyes to adjust and relax without dizziness, increase comfort, relatively improve user acceptance, and improve adjustment and relaxation. The chance of success. Therefore, there is no high acceptance of dizziness. The above is only a detailed description of the present invention by way of a preferred embodiment, and any modifications and variations of the embodiments are possible without departing from the spirit and scope of the present invention.