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TWI360470B - Antisticking mold and manufacturing method thereof - Google Patents

Antisticking mold and manufacturing method thereof Download PDF

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Publication number
TWI360470B
TWI360470B TW98145508A TW98145508A TWI360470B TW I360470 B TWI360470 B TW I360470B TW 98145508 A TW98145508 A TW 98145508A TW 98145508 A TW98145508 A TW 98145508A TW I360470 B TWI360470 B TW I360470B
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Prior art keywords
mold
processing
film
adhesion
microstructure
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TW98145508A
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Chinese (zh)
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TW201121753A (en
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Chao Hsien Lin
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Metal Ind Res & Dev Ct
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  • Shaping Of Tube Ends By Bending Or Straightening (AREA)

Description

六、發明說明: 【發明所屬之技術領域】 本發明係關於一種模具及其製備方法,特別是一種抗 沾黏模具及其製備方法。 【先前技術】 —般而言,液晶面板為了防止陽光及螢光等的光線產 生反射,大都實施了防反射處理,以提高顯示影像的辨認 眭。該防反射處理主要係於液晶面板之表面另設置—層或 多層防反射光學膜,一般稱為抗炫膜或抗反射膜。而:於 面板產業之成熟,此類型之防反射光學膜的需求也越來越 目前該類防反射光學膜通常係以表面具奈米級微細 凹凸結構之模具透過模造'射出成形或壓印等方式對一材 料進行加工以製作出該防反射光學膜。便可將該類防反射 光孥膜進一步應用於玻璃、鏡片、液晶面板、可撓式基板 =膜片等之表層防反射功能。但由於該模具在轉印微結構 時,製作該防反射光學膜之材料容易沾黏於該模具之表面 ’造成不易脫模之問題’而無法有效生產。 為克服上述不易脫模之問題,目前通常係以一 =具進行上述防反射光學膜之製作。制抗沾黏模具之1 觜方法係包含以下步驟: 衣 、(a)請參照第1圖所示,係預先選用—模具基材91 ^乂便進行後續微結構加工處理,其中簡具基材91係呈 力13工表面911 ; 1360470 (b)請參照第2圖所示,係於該模具基材9丨 <〜 工表面911進行切削加工或其他處理形成一微結攝,▲如 結構一結構面92 ; ’魂纖 (c)請參照第3圖所示,為避免後續轉印之枒料、 於該結構面92,因此再於該結構面92上以鍍暝掣浐,黏 一抗沾黏膜93,該抗沾黏膜93具有一轉印面94。王'^置6. Description of the Invention: TECHNICAL FIELD OF THE INVENTION The present invention relates to a mold and a method of preparing the same, and more particularly to an anti-stick mold and a method of preparing the same. [Prior Art] In general, in order to prevent reflection of light such as sunlight and fluorescent light, the liquid crystal panel is mostly subjected to anti-reflection treatment to improve the recognition of the displayed image. The anti-reflection treatment is mainly provided on the surface of the liquid crystal panel as a layer or a multi-layer anti-reflection optical film, which is generally called an anti-foam film or an anti-reflection film. However: in the panel industry, the demand for anti-reflection optical films of this type is also increasing. At present, such anti-reflection optical films are usually molded by injection molding or imprinting with a mold having a nano-scale fine concavo-convex structure. A material is processed to produce the anti-reflective optical film. This type of anti-reflection diaphragm can be further applied to the surface anti-reflection function of glass, lens, liquid crystal panel, flexible substrate = diaphragm. However, since the material for fabricating the antireflection optical film is easily adhered to the surface of the mold by the transfer of the microstructure, the problem of being difficult to demold is caused, and it cannot be efficiently produced. In order to overcome the above problem of difficulty in demolding, it is common to fabricate the above-mentioned anti-reflection optical film. The method of making the anti-adhesive mold includes the following steps: (a) Please refer to Figure 1 for pre-selection of the mold substrate 91 ^ 乂 for subsequent microstructure processing, including the substrate 91 series force 13 working surface 911; 1360470 (b) Please refer to Fig. 2, the mold base material 9丨<~ work surface 911 for cutting or other processing to form a micro-junction, ▲ structure A structural surface 92; 'Soul fiber (c), as shown in Fig. 3, in order to avoid the subsequent transfer of the material, on the structural surface 92, so that the structural surface 92 is plated, adhered The anti-adhesion film 93 has a transfer surface 94. King's set

便可完成一抗沾黏模具9之製作,並利用該抗沾黏棋i 進行前述防反射光學膜之製作,以透過該抗沾黏 置,避免製作防反射光學膜之材料沾黏於該結構面%之設 例如中華民國公告第1287043號專利,便係於工件上上。 抗沾黏性高氮量鉻化物薄膜,其抗沾黏性高氮量鉻化 膜膜厚為1〜2微米,以避免材料沾黏於工件上。 'The production of the anti-adhesive mold 9 can be completed, and the anti-reflection optical film can be used to fabricate the anti-reflection optical film to prevent the material of the anti-reflection optical film from sticking to the structure. The design of the face %, such as the Patent No. 1287043 of the Republic of China, is attached to the workpiece. Anti-adhesion high-nitrogen chromium film with a high anti-adhesion high-nitrogen chromium film thickness of 1~2 μm to prevent the material from sticking to the workpiece. '

然而,請再麥照第3圖所示,由於該抗沾黏模具$ 之微結構通常尺寸僅數十至數百奈米,若於該結構面^ 上進一步設置膜厚為微米尺度(1000奈米以上)之抗沾黏犋 93,該抗沾黏膜93雖貼附於該結構面,然該抗沾點二 93之轉印面94的形狀並無法完全對應符合該結構面%的 形狀,造成以該習用抗沾黏模具進行防反射光學膜之製作 ,所獲得之防反射光學膜成品結果將與原先微結構所製作 的防反射光學膜成品有所差異;且該抗沾黏膜93之膜厚越 厚,對該結構面92之微結構設計的影響也越大,因此習用 抗沾黏膜具的製備方法不易應用於具有奈米微結構之模具 的抗沾黏處理上。再且,該抗沾黏膜93之膜厚不均,亦會 造成該微結構設計的影響。 此外,由於设置該抗沾黏膜93之過程中可能使用到 i S] —4—— 1360470 高溫製程,因而可能使得該模具基材91上之微結構因高溫 而產生變形,而造成加工精度不佳之缺點。再且,該抗沾 黏膜93直接設置於該結構面92,可能因為該抗沾黏膜93 與該模具基材91之材質差異,而造成該抗沾黏膜93於該 結構面92附著力不佳的缺點。 ^ 再且,前述微結構加工處理需對該模具基材91之加 工表面911加工形成該結構面92,又該模具基材91之材 質通常較為堅硬,因此加工困難度較高,使得該微結構加 工處理之製程選擇將受到限制;若欲降低加工困難度而選 擇硬度較低之材質,則該模具基材91之材質選擇將受到限 制。 基於上述原因,其有必要進一步改良上述習用抗沾黏 模具及其製備方法。 【發明内容】 本發明目的乃改良上述缺點,以提供一種抗沾黏模具 的製備方法,以避免因抗沾黏膜之設置,而造成該抗沾黏 膜之加工面與模具表面微結構之形狀產生差異為目的。 本發明次一目的係提供一種抗沾黏模具的製備方法 ,以避免模具表面之微結構因設置該抗沾黏膜之高溫製程 而產生變形。 本發明再一目的係提供一種抗沾黏模具的製備方法 ,以降低加工形成微結構之加工困難度。 本發明又一目的係提供一種抗沾黏模具的製備方法 ,以提升該抗沾黏膜於模具表面之附著力。 一 5 — 本發明又一目的係提供一種抗沾黏模具,以避免材料 '/占黏於模具之表面。 .- 择據本务明的抗沾黏模具的製備方法,係包含:一抗 沾黏膜設置步驟,係於一模體之一附著面設置一抗沾黏膜 ,及一微結構加工步驟,係以一加工方式於該抗沾黏膜之 一加工面進行加工形成一微結構。 根據本發明的抗沾黏模具的製備方法 ,係包含:一抗 沾黏膜設置步驟,係於—模體之一附著面依序設置一中間 層及一k沾黏膜,該中間層係位於該模體及該抗沾黏膜之籲 間,及一微結構加工步驟,係以一加工方式於該抗沾黏膜 之一加工面進行加工形成—微結構。 根據本發明的抗沾黏模具,係包含:-抗法黏膜設置 步驟’係於-模體之—附著面依序設置一中間層及一抗沾 ㈣’該中間層係位於該模體及該抗沾黏膜之間;及一微 結構加工步驟’係以一加工方式於該抗沾黏膜之一加工面 進行加工形成一微結構。 【實施方式】 · 為讓本發明之上述及其他目的、特徵及優點能更明顯 易懂,下文特舉本發明之較佳實施例,並配合所附圖式, 作詳細說明如下: 請參照第4及5圖所示,本發明之抗沾黏模具的製備 方法係包含一抗沾黏膜設置步驟S1及一微結構加工步驟— S2。以下針對不同實施例進行詳細介紹。 本發明第一實施例: I S1 —6 一 1360470 請參照第5圖所示,其係為經本發明抗沾黏模具的製 備方法所製備獲得之抗沾黏模具。本第一實施例之抗沾黏 膜設置步驟S1,係於一模體1之一附著面11設置一抗沾 黏膜2。更詳言之,請參照第6圖所示,本第一實施例之 模體1係選擇為經淬火、回火、硬化等熱處理之STAVAX 模具鋼塊材,當然亦可選擇為其他材質製成。接著如第7 圖所示,於該模體1之附著面11設置該抗沾黏膜2,本實 施例該抗沾黏膜2之設置係選擇將該模體1置放於一真空 鍍膜處理設備之處理室内,該處理室内係設有一鉻金屬作 為陰極,並抽真空至4xl(T5torr以排除處理室之殘留空氣 之後,導入流量分別為10〜200ccm (本實施例係選擇為 20ccm)的氬氣(Ar)、80ccm的氮氣和lOccm的曱:!:完至處 理室中,與氬氣混合並維持於3〜8.5mtorr (本實施例係選 擇為4.5mtorr)之壓力,再以該鉻金屬作為陰極,該處理 室爐壁為陽極施加300〜450V (本實施例係選擇為330V) 的直流電壓,使氬氣離子化並受電場加速衝向位於陰極之 鉻金屬,將鉻金屬之鉻原子擊出,而於該附著面11沉積出 鉻-氮-碳薄膜作為該抗沾黏膜2,其中,鉻-氮-碳薄膜中的 氮原子百分比為30〜50%,碳原子百分比為5〜10%,處 理時間選擇為4小時,且該鉻-氮-碳薄膜之膜厚係為1〜1.5 A m。如此,便完成該抗沾黏膜設置步驟S1。另外,該抗 沾黏膜設置步驟中,係先將該模體之附著面整平後再進行 該粗化處理。該谢著面可為平面或曲面。 請再參照第4及5圖所示,本第一實施例之微結構加 工步驟S2,係以一加工方式於該抗沾黏膜2之加工面21.[ s —7 — 1360470 具有一微結構面23。更詳t夕,兮丄< 士』 丹 。之,该加工方式係可 = = = :::=:,, L舉例而言,本實施例係選:=: = 該抗沾黏膜2之加卫面21進行加卫。請參照第=式對 ==擇以T之鑽石刀,進刀量〜::削速 度選擇為U)m/m㈣於該加工面21加工形成vHowever, please refer to Figure 3 again. Since the microstructure of the anti-stick mold is usually only tens to hundreds of nanometers, if the thickness of the structure is further set to the micrometer scale (1000 nm) The anti-adhesive film 93 of the above-mentioned rice, although the anti-adhesion film 93 is attached to the structural surface, the shape of the transfer surface 94 of the anti-spotting point 93 does not completely correspond to the shape conforming to the structural surface %, resulting in The anti-reflection optical film is prepared by the conventional anti-sticking mold, and the obtained anti-reflection optical film has a difference with the anti-reflective optical film produced by the original microstructure; and the film thickness of the anti-adhesion film 93 is higher. The thicker, the greater the influence on the microstructure design of the structural surface 92, so the preparation method of the conventional anti-adhesive film is not easy to be applied to the anti-adhesive treatment of the mold having the nano microstructure. Moreover, the film thickness of the anti-adhesion film 93 is uneven, which also causes the influence of the microstructure design. In addition, since the high-temperature process of i S] - 4 - 1360470 may be used in the process of disposing the anti-adhesion film 93, the microstructure on the mold substrate 91 may be deformed due to high temperature, resulting in poor processing accuracy. Disadvantages. Moreover, the anti-adhesion film 93 is directly disposed on the structural surface 92. The adhesion of the anti-adhesion film 93 to the structural surface 92 may be poor due to the difference in material between the anti-adhesion film 93 and the mold substrate 91. Disadvantages. Further, the microstructure processing needs to process the processed surface 911 of the mold substrate 91 to form the structural surface 92, and the material of the mold substrate 91 is generally hard, so that the processing difficulty is high, so that the microstructure The process selection of the processing will be limited; if the material having a lower hardness is to be selected to reduce the difficulty of processing, the material selection of the mold substrate 91 will be limited. For the above reasons, it is necessary to further improve the above conventional anti-sticking mold and a preparation method thereof. SUMMARY OF THE INVENTION The object of the present invention is to improve the above disadvantages to provide a method for preparing an anti-sticking mold, so as to avoid a difference in the shape of the microstructure of the anti-adhesive film and the surface of the mold surface due to the setting of the anti-adhesion film. for purpose. A second object of the present invention is to provide a method for preparing an anti-sticking mold to prevent deformation of the microstructure of the surface of the mold due to a high-temperature process in which the anti-adhesion film is disposed. Still another object of the present invention is to provide a method for preparing an anti-sticking mold to reduce the difficulty in processing the microstructure to form a microstructure. Another object of the present invention is to provide a method for preparing an anti-sticking mold to enhance the adhesion of the anti-adhesion film to the surface of the mold. A further object of the present invention is to provide an anti-stick mold to prevent the material from sticking to the surface of the mold. .- The preparation method of the anti-adhesive mold according to the present invention includes: an anti-adhesion film setting step, an anti-adhesion film is disposed on one of the attachment faces of a mold body, and a microstructure processing step is performed. A processing method is processed on one of the processing surfaces of the anti-adhesion film to form a microstructure. The method for preparing an anti-sticking mold according to the present invention comprises: an anti-adhesion film setting step, wherein an intermediate layer and a k-adhesive film are sequentially disposed on one of the attachment faces of the mold body, and the intermediate layer is located in the mold The body and the anti-adhesion film are interposed, and a microstructure processing step is processed in a processing manner on one of the anti-adhesive film processing surfaces to form a microstructure. The anti-adhesive mold according to the present invention comprises: - an anti-adhesive film setting step 'attach to the - mold body - the attachment surface is sequentially provided with an intermediate layer and an anti-staining layer (4) 'the intermediate layer is located in the mold body and the Between the anti-adhesive films; and a microstructure processing step' is processed in a processing manner on one of the anti-adhesive films to form a microstructure. BRIEF DESCRIPTION OF THE DRAWINGS The above and other objects, features, and advantages of the present invention will become more apparent from the aspects of the invention. As shown in Figures 4 and 5, the preparation method of the anti-sticking mold of the present invention comprises an anti-adhesion film setting step S1 and a microstructure processing step - S2. The following is a detailed description of different embodiments. The first embodiment of the present invention: I S1 - 6 - 1360470 Please refer to Fig. 5, which is an anti-sticking mold prepared by the preparation method of the anti-sticking mold of the present invention. In the anti-adhesion film setting step S1 of the first embodiment, an anti-adhesion film 2 is provided on one of the attachment faces 11 of a mold body 1. More specifically, please refer to FIG. 6 , the phantom 1 of the first embodiment is selected as a STAVAX mold steel block which is quenched, tempered, hardened, etc., and may of course be made of other materials. . Then, as shown in FIG. 7, the anti-adhesion film 2 is disposed on the attachment surface 11 of the mold body 1. In the embodiment, the anti-adhesion film 2 is arranged to be placed in a vacuum coating processing device. In the processing chamber, a chrome metal is provided as a cathode in the processing chamber, and after evacuating to 4×1 (T5torr to remove residual air in the processing chamber, argon gas having a flow rate of 10 to 200 ccm (20 cm in this embodiment) is introduced ( Ar), 80ccm of nitrogen and lOccm of 曱:!: finished in the processing chamber, mixed with argon and maintained at a pressure of 3~8.5mtorr (this embodiment is selected as 4.5mtorr), and then the chrome metal is used as the cathode The furnace wall of the processing chamber is applied with a DC voltage of 300 to 450 V (300V in this embodiment) to ionize the argon gas and accelerate the electric field to the chromium metal at the cathode to strike the chromium metal of the chromium metal. a chromium-nitrogen-carbon film is deposited on the adhesion surface 11 as the anti-adhesion film 2, wherein the chromium-nitrogen-carbon film has a nitrogen atom percentage of 30 to 50% and a carbon atom percentage of 5 to 10%. The treatment time was selected to be 4 hours, and the film of the chromium-nitrogen-carbon film was used. The anti-adhesion film setting step S1 is completed. In addition, in the anti-adhesion film setting step, the adhesion surface of the mold body is first leveled and then the roughening treatment is performed. The surface of the anti-adhesion film 2 is processed in a processing manner. —7 — 1360470 has a microstructured surface 23. More detailed, 兮丄< 士』丹,, the processing method can be ===:::=:,, L, for example, this embodiment is Option: =: = The anti-adhesive film 2 is added to the defending surface 21. Please refer to the == pair == select the diamond knife of T, the amount of feed ~:: cutting speed is selected as U) m / m (four) The processing surface 21 is processed to form v

之奈米級微結構22,該V形溝槽之間距w係選擇為·曰⑽ ,深度d係選擇為,便可完成該抗沾黏模具之製作 ,且該微結構® 23可避免材料、;占霉卜至此,便完成本ς明 第一實施例之抗沾黏模具的製備方法,而所獲得之抗^黎 模具便可作為如前述各種防反射光學膜之製備。另外,兮 微結構加工步驟中,係可先將該抗沾黏膜之加工面整平後 再將該加工面進行加工。該加工面可為平面或曲面。 請再參照第5圖’本第一實施例之抗沾黏模具用以將 —物件(例如防反射光學膜,圖未示)轉印出一奈米級微結 構。該抗沾黏模具包含一模體1及一抗沾黏膜2。該模體} 具有一附著面U。該抗沾黏膜2設置於該附著面u上方The nano-scale microstructure 22, the distance between the V-shaped grooves is selected as 曰(10), and the depth d is selected to complete the production of the anti-stick mold, and the microstructure® 23 can avoid materials, At present, the preparation method of the anti-sticking mold of the first embodiment of the present invention is completed, and the obtained anti-mold mold can be prepared as various anti-reflection optical films as described above. In addition, in the 兮 microstructure processing step, the processed surface of the anti-adhesive film may be leveled before the processed surface is processed. The working surface can be a flat surface or a curved surface. Referring again to Figure 5, the anti-stick mold of the first embodiment is used to transfer an object (e.g., an anti-reflective optical film, not shown) to a nano-scale microstructure. The anti-stick mold comprises a mold body 1 and an anti-adhesion film 2. The phantom has an attachment surface U. The anti-adhesion film 2 is disposed above the adhesion surface u

’並具有一加工面,該加工面加工有一奈米級微結構22, 該抗沾黏膜2之奈米级微結構2 2對應於該物件之奈米級微 結構。該抗沾黏膜2與該物件之奈米級微結構通常尺寸僅 數十至數百奈米,亦即該奈米級微結構之尺寸可介於1〇 至999奈米之間。 m 本發明之抗沾黏模具的製備方法係透過於一模體之 —8 一 1360470 附著面設置抗沾黏膜後,再對該抗沾黏膜進行加工形成微 結構。如此,可避免習用抗沾黏模具的製備方法先對模體 加工形成彳丄纟°構,再δ又置S玄抗沾黏膜覆蓋該微結構,而造 成抗沾黏膜之表面形狀無法完全對應該微結構之形狀,進 而造成製作成品之差異。 再且,本發明係於該抗沾黏膜成形後,再於該抗沾黏 膜上加工形成微結構,可避免習用抗沾黏模具的製備方法And having a processing surface, the processing surface is machined with a nano-scale microstructure 22, and the nano-scale microstructure 2 of the anti-adhesion film 2 corresponds to the nano-scale microstructure of the object. The anti-adhesion film 2 and the nano-scale microstructure of the article are typically tens to hundreds of nanometers in size, i.e., the nano-scale microstructure can range in size from 1 至 to 999 nm. m The anti-adhesive mold of the present invention is prepared by disposing an anti-adhesion film on the adhesion surface of a -1 to 1360470 of a mold body, and then processing the anti-adhesion film to form a microstructure. In this way, the preparation method of the conventional anti-adhesive mold can be avoided, and the morphological processing is first performed on the phantom, and then the δ and S smear anti-adhesive film covers the microstructure, and the surface shape of the anti-adhesive film cannot completely correspond. The shape of the microstructure, which in turn causes the difference in the finished product. Moreover, the present invention is formed after the anti-adhesion film is formed, and then processed on the anti-adhesion film to form a microstructure, thereby avoiding the preparation method of the conventional anti-sticking mold.

因設置該抗沾黏膜之高溫製程’而造成模具表面微結構因 高溫而產生變形,使得本發明可提升微結構之耐久度及精 準度。 又’ 再且,由於本發明係直接於該抗沾黏膜上加工形成微 結構’因此無須對堅硬之模具基材進行加工形成微結 因此可降低形成該微結構之加工之困難度。進而,該模具 基材之材質選擇可有更大的選擇空間。 本發明第二實施例:The microstructure of the mold surface is deformed by high temperature due to the high temperature process of the anti-adhesion film, so that the present invention can improve the durability and precision of the microstructure. Further, since the present invention directly forms a microstructure on the anti-adhesion film, it is not necessary to process the hard mold substrate to form a micro-junction, thereby reducing the difficulty in forming the microstructure. Further, the material selection of the mold substrate can have a larger selection space. A second embodiment of the invention:

凊芬照第4圖所示’本發明第二實施例之抗沾黏模 的製備方法與第一實施例相同包含一抗沾黏膜設置步 S1及一微結構加工步驟S2。 ^第二實施例之抗沾黏膜設置步驟Μ,係先對該模 ^者面11進行整平處理後,再對該附著面Π進行 ::,再依序設置一中間層3及該抗沾黏膜2, “ 4層3係位於該模體]及該抗沾黏膜2之間。更 ::淬Γ照?8圖所示,本實施例之模體1相同係選. 2二火、魏f熱處理之灯舰x模具 由方、确w之附者面„可能為凹凸不平’且其係為具: 9 — 成該抗沾== 該抗沾黏膜2,則可能造 沾黏腺_於_著面115岐成該抗 平處理後二面ΙΓ。因此較佳先對該附著面11進行整 便H 弟圖所示,使該附著面11達平整。至此, 或^對_著面U之整平處理。該附著面η可為平面 風請參照第1Ό圖所示,可選擇以機械噴砂、化 裝處理等方式對該附著面11進行粗化處理,以 椠處理u喊細微之粗糙面。本第二f施例選擇以電 將該模:广丁 t粗化處理。更詳言之’本第二實施例係 直二、置放於該真空鍍膜處理設備之處理室内,並抽 ^至4xurW以排除處理室之殘留空氣之後,導入流 2GG_ (本實施例係選擇為20咖)的氬氣(Al 並',隹持於3〜8.5mtorr (本實施例係選擇為4mt〇rr)之壓The preparation method of the anti-sticking mold of the second embodiment of the present invention is the same as that of the first embodiment, and comprises an anti-adhesion film setting step S1 and a microstructure processing step S2. The anti-adhesive film setting step of the second embodiment is performed by first leveling the mold surface 11 and then performing the adhesion surface :::, and then sequentially providing an intermediate layer 3 and the anti-sticking layer. Mucosa 2, "4 layers 3 series are located in the phantom] and the anti-adhesion film 2. Further:: quenching ? according to Figure 8, the phantom 1 of this embodiment is the same selection. 2 two fire, Wei f heat treatment of the light ship x mold from the square, indeed w attached surface „may be unevenness and its system is: 9 — into the anti-stick == the anti-adhesive film 2, it may make a sticky gland _ _ face 115 into the two sides after the anti-flat treatment. Therefore, it is preferable to perform the cleaning of the attachment surface 11 first, so that the attachment surface 11 is flat. At this point, or ^ _ face U leveling processing. The attachment surface η can be a flat surface. Referring to Fig. 1 , the attachment surface 11 can be roughened by mechanical blasting or chemical processing, and the rough surface can be shouted. The second f embodiment is selected to electrically treat the mold: a widened process. More specifically, the second embodiment is directly placed in the processing chamber of the vacuum coating processing apparatus, and is pumped to 4xurW to exclude residual air in the processing chamber, and then the flow 2GG_ is introduced (this embodiment is selected as 20 coffee) of argon (Al and ', held at 3~8.5mtorr (this embodiment is selected as 4mt〇rr) pressure

力’再以销體1作為陰極’該處理f爐壁為陽極施加30C r6〇〇V,(、f實施例係選擇為働V)的直流,使氬氣 離子化亚雙電場加速衝向位於陰極之模體】,將該模體ι =附著上的不純附著物原子擊出,同時氬氣離子亦將 附f面u使其細微地粗化,而同時達到清潔及粗化 »玄附著面11之目的’粗化處理後之附著面η如第1〇圖所 二’可使該附著面11於㈣上具有相當細微之粗链度,且 提升抓姆膜2及巾間層3與該模體丨之接觸面積,進 而提升後^該抗沾顧2及中間層3於該模體丨之附著面 11的附著力,而該細微之姆面並不會影響到後續該抗沾 黏膜2及中間層3之平整性。該粗化處理之時間選擇為1〇 —10 — 1360470 分鐘=此,技成__1之粗化處理。 接者,請參,昭篦4 11 θ 該粗化處理後,接著將氬氣二所不’本弟二實施例於完成 λ + W 流量調整為30_並唯捭方/、约 4mt〇1.之Μ力,本第二實施例 I、准持方、、力 陰極,處理室爐壁為陽極、1屬(Cr)作為 馮1%極施加3〇〇〜45〇v 擇為350V)的直流電壓,放^例係运 係選擇為2.5Λ),帶有正電# 二.心·5Α (本實施例 極鉻金屬,將鉻全屬之㈣二、祕子受電場加速衝向陰 合i屬之鉻原子搫出而沉積 著面11上而形成鉻鍍膜作 ' 1之附 5分鐘,該中間層3之膜厚係選; 便完Ϊ該:間^設置。由於該模體1與該; 之材質不同’右直接將該抗_膜2設置於該模體1將 能造成該抗姆膜2之附著力不佳,因此本第二麻⑴ 著係於該附著面11設置該中間層3後,再於該中二:、妾 表面設置該抗沾黏膜2,使該中間層3位於該 抗沾黏膜2之間,以提升該抗沾黏膜2於該桓體,上的f 合性及附著力。 俱紅1上的結 請參照第12圖所示,接著再於該中間層 置該抗沾黏膜2。完成該中間層3之設置n 叹 例接著通入流量分別為8〇c叫α 1〇咖 弟-貫施 理室中與氬氣及鉻金屬之原子_,鉻金 300〜45〇v(本實施例係選擇為33〇v),玫電為 3.5Α (本實施例選擇為2 5Α),處理室壓C〇〜 (本實施例選擇為4,51咖),在該祕膜(竹^.嶋, 沉積出絡皆碳_作為該抗沾黏膜2, \上 络-氮-碳簿 一]1 1360470 膜中的氮原子百分比為30〜50%,碳原子百分比為5〜1〇% ’處理時間選擇為4小時,且該鉻·氮_碳薄膜之膜厚係為5 〜5.5/zm。如此,該中間層3之設置便可提升該抗沾黏膜 2於該附著面11之結合強度。至此,便完成該抗沾黏膜設 置步驟S1。 請再參照第4、Π及14圖所示,為避免該加工面21 之不平整影響到後續該奈米級微結構22之加工,本第二實 - 施例之微結構加工步驟S2,係先對該抗沾黏膜2之加工面 21進行整平後’再以該加工方式於該抗沾黏膜2之加工面籲 21進行加工形成該奈米級微結構22。更詳言之,如第 圖所示’本實關麵擇以_刀具相整傾加工面21 ’進刀量選擇為4鋒。如此’便可整平該加工面21。該 加工面11可為平面或曲面。 接著,請參照第14圖所示,本第二實施例加工形成 該奈米級微結構22之方式與該第一實施例相同,於此不再 資述。至此’便完穌發㈣二實_之抗㈣模具的製 備方法’㈣㈣之抗雜模具便可作私前述各種防反 射光學膜之製備,且該微結構面23可防止材料之沾袭占。 將照第Μ圖’本第二實施例之抗沾黏模糾以 將一物件(例如防反肢雜,圖未示)轉印卜 結構。該抗沾黏模具包含一模體丨' — “、& π 黏膜2。該模體1具有—附著面U。該中‘ 3 Μ = f^11,亦即該中間層3設置於該模體i與該抗沾‘ 2之間。該抗沾黏膜設置於該中間層3 、,曰士 f犋 C, , ^ , 丄 工’亚具有一加工 该加4加工有-奈米級微結構22,該抗沾黏膜2之 ——12 — [S} 1360470 奈米級微結構22對應於該物件之奈米級微結構。該抗沾黏 膜2與該物件之奈米級微結構通常尺寸僅數十至數百奈米 ,亦即該奈米級微結構之尺寸可介於1〇至999奈米之間^ 其中’該模體1與該中間層3之間的附著力大於該模體i 與該抗沾減2之_附著力,且該巾間们與該抗沾黏 膜2之間的附著力大於該模體】與該抗沾黏膜2之間的附 著力。The force 'returns the pin body 1 as the cathode'. The process f furnace wall applies 30C r6〇〇V to the anode, and (the f embodiment is selected as 働V) direct current, so that the argon ionized sub-double electric field accelerates toward the location. The cathode of the cathode], the mold ι = the impure attachment atoms attached to it, and the argon ions will also be slightly roughened by the f-plane u, while at the same time achieving clean and roughening The purpose of 11 'the roughening treatment of the attachment surface η as shown in Fig. 1 ' can make the attachment surface 11 have a relatively fine chain degree on (4), and lift the grip film 2 and the inter-layer 3 and The contact area of the phantom, and then the adhesion of the anti-stick 2 and the intermediate layer 3 to the attachment surface 11 of the phantom, and the fine surface does not affect the subsequent anti-adhesion film 2 And the flatness of the intermediate layer 3. The time of the roughening process is selected to be 1 〇 10 - 1360470 minutes = this, and the technique is __1 roughening. Receiver, please refer to, Zhao Zhao 4 11 θ After the roughening process, then the argon gas is not the second embodiment of the second embodiment to complete the λ + W flow rate is adjusted to 30 _ and only 捭 /, about 4mt 〇 1 The force of the second embodiment I, the quasi-holding, and the force cathode, the furnace wall of the processing chamber is an anode, and the 1 genus (Cr) is applied as a von 1% pole to a range of 3 〇〇 to 45 〇 v to 350 volts. The DC voltage is set to 2.5 Λ), with positive electricity #二.心·5Α (In this embodiment, the extremely chrome metal, the chrome is all (4), the secret is accelerated by the electric field to the yin The chromium atom of the genus i is deposited and deposited on the surface 11 to form a chrome plating film for '5 minutes, and the film thickness of the intermediate layer 3 is selected; then the : Ϊ : : : : 。 。 。 。 。 。 。 。 。 。 。 。 。 The material is different. The right side of the anti-film 2 is disposed on the mold body 1 to cause the adhesion of the anti-moire film 2 to be poor. Therefore, the second hemp (1) is attached to the attachment surface 11 to be disposed in the middle. After the layer 3, the anti-adhesion film 2 is disposed on the surface of the second surface of the crucible, so that the intermediate layer 3 is located between the anti-adhesion film 2 to enhance the anti-adhesion film 2 on the crucible body. Sex and adhesion. Please refer to Fig. 12, and then place the anti-adhesion film 2 on the middle layer. Complete the setting of the intermediate layer 3, and then the flow rate is 8〇c, called α1〇咖弟-贯施In the chamber, the atom of argon and chrome metal is _, chrome gold is 300~45〇v (in this embodiment, it is selected as 33〇v), the rose is 3.5Α (the choice is 25 本 in this embodiment), and the process chamber pressure is C〇~ (This example was chosen to be 4,51 coffee), in the secret film (bamboo ^.嶋, deposition of carbon is _ as the anti-adhesion film 2, \上络-nitrogen-carbon book one] 1 1360470 The percentage of nitrogen atoms in the film is 30 to 50%, and the carbon atom percentage is 5 to 1%. The treatment time is selected to be 4 hours, and the film thickness of the chromium/nitrogen-carbon film is 5 to 5.5/zm. The intermediate layer 3 is arranged to increase the bonding strength of the anti-adhesion film 2 to the adhesion surface 11. Thus, the anti-adhesion film setting step S1 is completed. Please refer to the fourth, fourth and fourth figures to avoid The unevenness of the processing surface 21 affects the subsequent processing of the nano-scale microstructure 22, and the microstructure processing step S2 of the second embodiment is the processing surface 21 of the anti-adhesion film 2 first. After the line is leveled, the processing surface of the anti-adhesion film 2 is processed by 21 to form the nano-scale microstructure 22. More specifically, as shown in the figure, 'the actual surface is selected _ The tool phase is tilted to the working surface 21 'the amount of the cutting is selected to be 4 fronts. This can be used to level the working surface 21. The working surface 11 can be flat or curved. Next, please refer to Figure 14, this second The manner of processing the nano-scale microstructure 22 is the same as that of the first embodiment, and will not be described here. So far, the preparation method of the (four) molds of the four-dimensional molds (4) (four) The mold can be used for the preparation of various anti-reflection optical films as described above, and the microstructured surface 23 can prevent the material from being affected. The anti-adhesion mold of the second embodiment of the present invention is corrected to transfer an object (e.g., anti-anti-body, not shown) to the structure. The anti-sticking mold comprises a mold body —'-", & π mucous membrane 2. The mold body 1 has an attachment surface U. The middle '3 Μ = f^11, that is, the intermediate layer 3 is disposed on the mold Between the body i and the anti-sticking layer 2. The anti-adhesion film is disposed on the intermediate layer 3, the gentleman f犋C, , ^, the ' '' has a processing of the plus 4 processing-nano-scale microstructure 22, the anti-adhesion film 2 - 12 - [S} 1360470 nano-scale microstructure 22 corresponds to the nano-scale microstructure of the object. The anti-adhesion film 2 and the nano-scale microstructure of the object are usually only size Dozens to hundreds of nanometers, that is, the size of the nano-scale microstructure may be between 1 〇 and 999 nm ^ where 'the adhesion between the phantom 1 and the intermediate layer 3 is greater than the phantom i is adhered to the adhesion resistance, and the adhesion between the towels and the anti-adhesion film 2 is greater than the adhesion between the mold body and the anti-adhesion film 2.

如上所述,本發明之抗沾黏模具的製備方法,透過先 對-模體之附著面進行整平處理,可避免該附著面之不平 整影響後續製程。 本發明之抗沾黏模具的製備方法,透過先對該整平後 之附著面進行粗化處理,可提升該抗沾黏膜於該附著面之 附著力。 本發明之抗沾黏模具的製備方法,透過於該模體及抗As described above, the preparation method of the anti-sticking mold of the present invention can prevent the unevenness of the adhesion surface from affecting the subsequent process by leveling the adhesion surface of the first mold body. In the method for preparing the anti-sticking mold of the present invention, the adhesion of the anti-adhesion film to the adhering surface can be improved by first roughening the surface to be adhered. The preparation method of the anti-sticking mold of the invention is transmitted through the phantom and the anti-adhesion

沾黏膜之間設置該中間層,以提升該抗沾_於該附著面 之附著力。 本發明之抗沾黏模具的製備方法係透過於該模體之 附著面設置抗沾黏膜後’再對該抗沾黏膜進行加工形成微 結構。如此,可避免習用抗沾黏模具的製備方法先對模體 加,形成微結構,再設置該抗沾減覆蓋該微結構,而= 而 成抗沾黏膜之表面形狀無法完全對應該微結構之形狀, 造成製作成品之差異。 再且,本發明係於該抗沾黏膜成形後,再於該抗沾重占 膜上加工形成微結構,可避免習用抗沾黏模具的製備方^ 因設置該抗沾_之高溫製程,而造成模具表面微結構因〜 一]3 一 南溫而產生變开3, 準度。 再且 使得本發明可提升微結構之耐久度及精 結構,因此巧2私直接讀上加工形成4 因此可降灿f 之模具基我行加謂成微結構, 其好二i該微結構之加卫之困難度。進而,該模具 基材之材質選擇可有更大的選擇空間。 隹。、本毛明已利用上述較佳實施例揭示,缺立並非用 以限定本發明’任何熟習此技藝者在不脫離本發明之精神 和範圍之内,相對域實_钟各較動鱗改仍属本 發明所保護之技術鱗,因此本發明之保護範圍當視後附 之申請專利範圍所界定者為準。The intermediate layer is disposed between the adhering films to enhance the adhesion of the anti-sticking surface to the adhering surface. The anti-adhesive mold of the present invention is prepared by forming an anti-adhesion film on the attachment surface of the mold body, and then processing the anti-adhesion film to form a microstructure. In this way, the preparation method of the conventional anti-adhesive mold can be avoided, and the microstructure is first added to form a microstructure, and then the anti-slip coating is applied to cover the microstructure, and the surface shape of the anti-adhesion film cannot completely correspond to the microstructure. The shape that causes the difference in the finished product. Moreover, the present invention is formed after the anti-adhesion film is formed, and then processed on the anti-sticking film to form a microstructure, which can avoid the preparation of the anti-sticking mold by the high-temperature process of setting the anti-sticking film. The microstructure of the mold surface is caused by the change of the degree of the third surface due to the temperature of the south. Moreover, the invention can improve the durability and the fine structure of the microstructure, so that the mold 2 can directly read and form the mold 4, so that the mold base can be reduced into a micro structure, which is good for the microstructure. The difficulty of defending. Further, the material selection of the mold substrate can have a larger selection space. Hey. The present invention has been disclosed in the above-described preferred embodiments, and it is not intended to limit the present invention. Any one skilled in the art can change the scope of the invention without departing from the spirit and scope of the present invention. It is a technical scale protected by the present invention, and therefore the scope of the present invention is defined by the scope of the appended claims.

IS) —14 — 【圖式簡單說明】 第1及2圖:習用抗沾黏模具的製備方法於模體表面進 行加工的示意圖。 第3圖:習用抗沾黏模具的製備方法於模體表面設置抗 沾黏膜的示意圖。 第4圖:本發明之抗沾黏模具的製備方法的流程圖。 第5圖:本發明第一實施例之抗沾黏模具的製備方法製 備完成之抗沾黏模具的示意圖。 第6圖:本發明第一實施例之模體的示意圖。 第7圖:本發明第一實施例於模體之附著面設置抗沾黏 膜之示意圖。 第8圖:本發明第二實施例未經處理之模體的示意圖。 第9圖:本發明第二實施例經整平的模體的示意圖。 第10圖:本發明第二實施例經粗化處理的模體的示意 圖。 第11圖:本發明第二實施例設置中間層之模體的示意 圖。 第12圖:本發明第二實施例設置抗沾黏膜之示意圖。 第13圖:本發明第二實施例經整平之抗沾黏膜的示意 圖。 第14圖:本發明第二實施例抗沾黏膜進行加工形成微 1360470 【主要元件符號說明】 〔本發明〕 1 模體 2 抗沾黏膜 22 奈米級微結構 3 中間層 d 深度 〔習知〕 9 抗沾黏膜具 91模具基材 92 結構面 93 抗沾黏膜 11附著面 21 加工面 23 微結構面 w 間距IS) —14 — [Simple description of the drawings] Figures 1 and 2: Schematic diagram of the preparation of a conventional anti-stick mold on the surface of a mold. Fig. 3 is a schematic view showing the preparation method of a conventional anti-sticking mold on the surface of a mold body. Figure 4 is a flow chart showing a method of preparing the anti-stick mold of the present invention. Fig. 5 is a view showing the preparation method of the anti-sticking mold of the first embodiment of the present invention. Figure 6 is a schematic view of a mold body of a first embodiment of the present invention. Fig. 7 is a view showing the first embodiment of the present invention in which an anti-adhesion film is provided on the attachment surface of the mold body. Fig. 8 is a view showing the unprocessed phantom of the second embodiment of the present invention. Figure 9 is a schematic view of a flattened phantom of a second embodiment of the present invention. Fig. 10 is a view showing a roughened phantom of a second embodiment of the present invention. Fig. 11 is a view showing the phantom of the intermediate layer in the second embodiment of the present invention. Figure 12 is a schematic view showing the second embodiment of the present invention in which an anti-adhesion film is provided. Fig. 13 is a view showing the anti-adhesion film which has been leveled in the second embodiment of the present invention. Figure 14: The second embodiment of the present invention is processed to form an anti-adhesive film to form micro 1360470 [Description of main components] [Invention] 1 Mould 2 Anti-adhesion film 22 Nano-scale microstructure 3 Intermediate layer d Depth [Practical] 9 anti-adhesive film 91 mold base 92 structural surface 93 anti-adhesion film 11 attachment surface 21 processing surface 23 microstructure surface w spacing

911加工表面 94 轉印面911 processing surface 94 transfer surface

[S) —]0 —[S) —]0 —

Claims (1)

七、申請專利範圍: 一種抗沾黏模具的製備方法,包含: 著面設置—抗 附 一抗沾黏膜設置步驟,係於一模體之 沾黏膜;及 2 ^微結構加工步驟,係以—加工方式於該抗沾點膜之 加工面進行加工形成一微結構。 、 】牛項所述之抗沾純具的製物 ^中顧結構加工步射,係先將該抗 面整平後再將該加丄面進行加玉。 …之加1 3、利範圍第2項所.述之抗_模具的製_ 八中6亥加工面為平面或曲面。 / 4依^專利範圍第1項所述之抗沾黏模具的製備方法 :中^沾_設置步财,係紐_體 面 進仃-粗化處理後,再設置該抗沾黏瞑。 者面 5、依專利_第4韻狀如轉 敕其中該抗沾黏膜設置步驟中,係先將該模體:= 正平後再將該附著面進行該粗化處理。 、 ,其中該附著面為平面或曲面。 為備方法 7、依申請專利範圍第4項所述之抗沾_具的 :’、中該粗化處理係為機械噴砂、化學蝕刻或電漿處理 3、依I,專利範圍第1項所述之抗沾黏糢具的製備方法 、、中該加工方式係為微影㈣加工、電化學加工、= 1360470 射加工或機械切削加工。 — 9、一種抗沾黏模具的製備方法,包含: - 一抗沾黏膜設置步驟,係於一模體之一附著面依序設置 一中間層及一抗沾黏膜,該中間層係位於該模體及該抗 沾黏膜之間;及 一微結構加工步驟,係以一加工方式於該抗沾黏膜之一 加工面進行加工形成一微結構。 10、 依申請專利範圍第9項所述之抗沾黏模具的製備方法 ,其中該微結構加工步驟中,係先將該抗沾黏膜之加工 隹 面整平後再將該加工面進行加工。 11、 依申請專利範圍第10項所述之抗沾黏模具的製備方法 ,其中該加工面為平面或曲面。 12、 依申請專利範圍第9項所述之抗沾黏模具的製備方法 ,其中該抗沾黏膜設置步驟中,係先於該模體之附著面 進行一粗化處理後,再設置該中間層。 13、 依申請專利範圍第12項所述之抗沾黏模具的製備方法 ,其中該抗沾黏膜設置步驟中,係先將該模體之附著面 鲁 整平後再將該附著面進行該粗化處理。 14、 依申請專利範圍第13項所述之抗沾黏模具的製備方法 ,其中該附著面為平面或曲面。 15、 依申請專利範圍第12項所述之抗沾黏模具的製備方法 ,其中該粗化處理係為機械喷砂、化學蝕刻或電漿處理 - 〇 16、 依申請專利範圍第9項所述之抗沾黏模具的製備方法 ,其中該加工方式係為微影姓刻加工、電化學加工、雷 m —18 — i360470 射加工或機械切削加工。 i7、一種抗沾黏模具,該抗沾減具用以將 第一奈米級微結構,該抗_模具包含: 一模體,具有一附著面;及 =沾_,設置於該附著面上方,並具有—加工面, 二口工面加工有—第二奈米級微結構,該第二奈 、、’。構對應於該第—奈米級微結構。 、w 、二=_17項所述之_模具, 二中間層,設置於該模體與該抗沾 =請專利範_8項所述之抗_模具,其中該模 :門^中Γ層之間的附著力大於該模體與該抗沾勒膜 者加且該中間層與該抗沾黏膜之間的附著^ 體與該抗沾黏膜之間的附著力。 =請專利第17顧述之抗沾黏模具 仟马一防反射光學膜。 21 H請翻顧第17項所述之抗沾黏模具 沾‘膜為一鉻_氮_碳薄膜。 22、 依申請專·_18項所述 缺具 23、 依申請專利範圍第]7 ―及览A L 貝所述之抗沾黏模具 及忠一太止厶n >:山人λ丄,a 18 19 20 其中該物 其中該抗 其中該中 •及第二奈米級微結構二规、’其中該I 稱之尺寸介於10至999奈米之& 24、 依申請專利範圍第23 —乃笙^ L 所述之抗沾黏模具,1中兮每25、 依4二形溝槽狀之微結構。… 、τ叫寻利乾圍弟24項所冲—t 、斤迷之抗沾黏模具,其中該入 1360470 形溝槽之間距為200nm,深度為100nm。VII. Application Patent Range: A preparation method of anti-sticking mold, comprising: face setting - anti-attachment anti-adhesion film setting step, attached to a mold body; and 2 ^ micro-structure processing steps, with - The processing method is processed on the processed surface of the anti-stick film to form a microstructure. 】 The anti-staining pure material described in the cattle item ^In the structure of the structure processing step, the surface is first flattened and then the twisted surface is added with jade. ... plus 1 3, the range of interest in the second item, the anti-mold system _ 八中6海 processing surface is a plane or curved surface. / 4 According to the patent range of the first paragraph of the anti-adhesive mold preparation method: in the middle of the dip _ set step, the new _ body surface into the 仃 - roughening treatment, then set the anti-adhesive 瞑. Face 5, according to the patent _ 4th rhyme, such as the transfer step, in the anti-adhesive film setting step, the mold body first: = flat and then the adhesion surface is subjected to the roughening treatment. , where the attachment surface is a plane or a curved surface. For the preparation method 7, according to the scope of claim 4, the anti-sticking device: ', the coarsening treatment is mechanical blasting, chemical etching or plasma treatment 3, according to I, patent scope 1 The preparation method of the anti-sticking mold, the processing method is lithography (four) processing, electrochemical processing, = 1360470 shot processing or mechanical cutting processing. — 9. A method for preparing an anti-stick mold, comprising: - an anti-adhesion film setting step, wherein an intermediate layer and an anti-adhesion film are sequentially disposed on one of the attachment faces of a mold body, wherein the intermediate layer is located in the mold Between the body and the anti-adhesion film; and a microstructure processing step is processed in a processing manner on one of the anti-adhesive film processing surfaces to form a microstructure. 10. The method for preparing an anti-sticking mold according to claim 9, wherein in the processing step of the microstructure, the processing surface of the anti-adhesive film is first leveled, and then the processed surface is processed. 11. The method for preparing an anti-sticking mold according to claim 10, wherein the processing surface is a flat surface or a curved surface. 12. The method for preparing an anti-sticking mold according to claim 9, wherein the anti-adhesive film setting step is performed after the roughening treatment is performed on the attachment surface of the mold body, and then the intermediate layer is disposed. . 13. The method for preparing an anti-sticking mold according to claim 12, wherein in the step of setting the anti-adhesion film, the attachment surface of the mold body is flattened and then the adhesion surface is roughened. Processing. 14. The method for preparing an anti-sticking mold according to claim 13, wherein the attachment surface is a flat surface or a curved surface. 15. The method for preparing an anti-sticking mold according to claim 12, wherein the roughening treatment is mechanical blasting, chemical etching or plasma treatment - 〇16, according to claim 9 The preparation method of the anti-sticking mold, wherein the processing method is a micro-sharp processing, an electrochemical processing, a laser processing, or a mechanical cutting process. I7, an anti-sticking mold for using a first nano-scale microstructure, the anti-mold comprising: a mold body having an attachment surface; and a dip_, disposed above the attachment surface And having a processing surface, the second working surface has a second nano-scale microstructure, the second nai, and '. The structure corresponds to the first nano-scale microstructure. , w, two = _17 mentioned in the _ mold, two intermediate layer, set in the phantom and the anti-staining = please patent _8 item of the anti-mold, wherein the mold: the door ^ middle layer The adhesion between the phantom and the anti-stick film is greater than the adhesion between the interlayer and the anti-adhesion film and the anti-adhesion film. = Please apply the anti-stick mold of the 17th patent. Hummer anti-reflective optical film. 21 H Please refer to the anti-adhesive mold described in item 17. The film is a chromium-nitrogen-carbon film. 22, according to the application of the special _18 items of the lack of 23, according to the scope of the patent application] 7 - and the AL shell described anti-adhesive mold and Zhongyi Taizhi & n >: Shanren λ丄, a 18 19 20 wherein the substance is resistant to the middle and second nano-scale microstructures, wherein the size of the I is between 10 and 999 nm, and 24, according to the scope of the patent application. ^ L The anti-stick mold, 1 in the middle of each 25, according to the shape of the 4-shaped groove-like microstructure. ..., τ is called the search for 24 people who are rushing---------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- [S] —20 —[S] — 20 —
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Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI458691B (en) * 2012-12-24 2014-11-01
WO2015003333A1 (en) * 2013-07-10 2015-01-15 公凖精密工业股份有限公司 Anti-stick processing method for mould and mould processed using same

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* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TW201322346A (en) * 2011-11-17 2013-06-01 Metal Ind Res & Dev Ct Packaging mold with low adhesion coating
TWI495553B (en) * 2013-01-15 2015-08-11 Gongin Prec Ind Co Ltd Anti-sticking treatment method and mold processed by the method
TWI570056B (en) * 2014-12-11 2017-02-11 財團法人工業技術研究院 Mold having surface structure and manufacturing method thereof

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
TWI458691B (en) * 2012-12-24 2014-11-01
WO2015003333A1 (en) * 2013-07-10 2015-01-15 公凖精密工业股份有限公司 Anti-stick processing method for mould and mould processed using same

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