TW201223667A - Sheet material cutting device - Google Patents

Sheet material cutting device Download PDF

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Publication number
TW201223667A
TW201223667A TW100140047A TW100140047A TW201223667A TW 201223667 A TW201223667 A TW 201223667A TW 100140047 A TW100140047 A TW 100140047A TW 100140047 A TW100140047 A TW 100140047A TW 201223667 A TW201223667 A TW 201223667A
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TW
Taiwan
Prior art keywords
blade
cutting device
cutting
blades
gap
Prior art date
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TW100140047A
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Chinese (zh)
Inventor
Atsushi Tsujimoto
Original Assignee
Toray Eng Co Ltd
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Publication date
Application filed by Toray Eng Co Ltd filed Critical Toray Eng Co Ltd
Publication of TW201223667A publication Critical patent/TW201223667A/en

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    • BPERFORMING OPERATIONS; TRANSPORTING
    • B26HAND CUTTING TOOLS; CUTTING; SEVERING
    • B26DCUTTING; DETAILS COMMON TO MACHINES FOR PERFORATING, PUNCHING, CUTTING-OUT, STAMPING-OUT OR SEVERING
    • B26D1/00Cutting through work characterised by the nature or movement of the cutting member or particular materials not otherwise provided for; Apparatus or machines therefor; Cutting members therefor
    • B26D1/01Cutting through work characterised by the nature or movement of the cutting member or particular materials not otherwise provided for; Apparatus or machines therefor; Cutting members therefor involving a cutting member which does not travel with the work
    • B26D1/12Cutting through work characterised by the nature or movement of the cutting member or particular materials not otherwise provided for; Apparatus or machines therefor; Cutting members therefor involving a cutting member which does not travel with the work having a cutting member moving about an axis
    • B26D1/14Cutting through work characterised by the nature or movement of the cutting member or particular materials not otherwise provided for; Apparatus or machines therefor; Cutting members therefor involving a cutting member which does not travel with the work having a cutting member moving about an axis with a circular cutting member, e.g. disc cutter
    • B26D1/24Cutting through work characterised by the nature or movement of the cutting member or particular materials not otherwise provided for; Apparatus or machines therefor; Cutting members therefor involving a cutting member which does not travel with the work having a cutting member moving about an axis with a circular cutting member, e.g. disc cutter coacting with another disc cutter
    • B26D1/245Cutting through work characterised by the nature or movement of the cutting member or particular materials not otherwise provided for; Apparatus or machines therefor; Cutting members therefor involving a cutting member which does not travel with the work having a cutting member moving about an axis with a circular cutting member, e.g. disc cutter coacting with another disc cutter for thin material, e.g. for sheets, strips or the like

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  • Life Sciences & Earth Sciences (AREA)
  • Forests & Forestry (AREA)
  • Engineering & Computer Science (AREA)
  • Mechanical Engineering (AREA)
  • Nonmetal Cutting Devices (AREA)
  • Details Of Cutting Devices (AREA)

Abstract

Provided is a sheet material cutting device close to an ideal configuration, in which the advantages of a type of a through-shaft supported at both ends thereof are maintained and it is made possible to freely select a zero clearance cut system or a desired clearance cut system by making it possible to separately and finely adjust the position of at least one blade with respect to the other blade in a shaft direction. Specifically, the sheet material cutting device has a cutting blade set comprising: an upper blade disposed at a predetermined position in a shaft direction of one of a pair of shafts supported at both ends thereof and extending in parallel with each other; and a lower blade disposed at a predetermined position in a shaft direction of the other one of the shafts, and cuts a sheet material passing between the pair of shafts by the upper and lower blades cooperating with each other. The sheet material cutting device is characterized in that at least one of the upper and lower blades is held so that the position thereof in a shaft direction is separately and finely adjustable by a differential screw mechanism.

Description

201223667 六、發明說明: 、 【發明所屬之技術領域】 [〇〇〇1] 本發明是關於片狀物的切斷裝置,特別是關於在— 對所謂的貫穿軸(through shaft)設置上刀刃與下刀刀 並切斷片狀物的裝置。 【先前技術】 為了要將由樹脂片或金屬箔或者該等樹脂片或金屬 4的組合物等構成的片狀物切斷成更狹窄的寬度的帶狀 物,往往透過由圓刀刀的上刀刃與下刀刃構成的切斷刀 刃組進行切斷。在使用這種切斷刀刃組的切斷中,如圖^ 所示已知有兩種類的切斷方式。圖1(A)所示的切斷方式 為在透過上刀刃1與下刀刃2切斷片狀物3(在圖示例中為 使活性物質(active material )3b、3c擔持於金屬落3a 的各面側之厚度100 /zm左右的電極用片狀物)時,使上刀 刀1與下刀刃2的側面彼此接觸(亦即設兩刀刃的轴向間隙 (axial clearance)為零)之被稱為所謂的零間隙切割 (zero clearance cut)的切斷方式。在上刀刀!的頂端 與下刀刃2的頂端之間被給予規定的重疊量4 (例如 100〜200 左右的重疊量)。圖1(b)所示的切斷方式為 使上刀刃1與下刀刃2的侧面間具有規定的間隙5(例如數 M 數十/z m左右的間隙)而進行切斷之被稱為所謂的間 隙切割(clearance cut)的切斷方式。上刀刃1的頂端 與下刀刀2的頂端之間的重疊量4往往被設為與零間隙切 割方式的情形同程度》 在上述的任一種切斷方式中都需在切斷前將一方的 100140047 刀刃的位置對他方的刀刃定於目標位置,將兩刀刀的位 表單編號A0101 第3頁/共24頁 201223667 置關係定於規定的關係。特別是如上述在使兩刀刃的側 面間的間隙為零,或者使其具有所需的間隙的情形下, 需使一方的刀刃的位置對他方的刀刃微調整於軸向。 為了將一方的刀刃的軸向位置對他方的刀刃定於規 定的位置,可對一個被簡支撐(simply supported)的 貫穿軸將複數個刀刃配置於軸向之貫穿軸方式的情形, 通常是隔著被嵌合於貫穿軸的間隔物(spacer)等決定各 刀刃的軸向位置、刀刃間的間隔(對應片狀物的切斷寬) 。但是此方式的情形因透過間隔物等機械地被決定刀刃 的轴向位置,故特別是如前述的間隙切割方式的情形般 ,在微妙的轴向位置的微調整(間隙量的微調整)被要求 的情形下,通常無法對應。相對於此,在藉由將一方的 刀刃設置於個別刀具單元内,每一單元調整位置於軸向 ,進行該刀刃的軸向位置的調整之個別刀具單元方式的 情形下,可各刀刃進行軸向位置的微調整,但個別刀具 單元不得不在軸向取某種程度的大的尺寸,故無法使接 鄰刀刃間的間隔(對應片狀物的切斷寬)過窄,無法對應 需要狹窄寬度的切斷的情形。而且,因往往在個別刀具 單元中刀刃的支撐在軸向中以懸臂支撐構造而構成,故 刀刃的支撐部對振動或擾動(disturbance)脆弱,刀鋒 部的偏斜精度會產生界限。此點在貫穿軸方式中可藉由 使用狹窄寬度的間隔物等而容易進行到相當窄的寬度的 切斷,而且,因貫穿軸以簡支撐構造而構成,故貫穿軸 的剛性進而刀刃的支撐剛性非常高,刀鋒部的偏斜精度 非常高。 在間隙切割方式中,已知有若能依照切斷對象物設 100140047 表單編號A0101 第4頁/共24頁 1003463783-0 201223667201223667 VI. Description of the Invention: [Technical Field of the Invention] [1] The present invention relates to a cutting device for a sheet, and more particularly to setting a cutting edge on a so-called through shaft. A device that lowers the knife and cuts the sheet. [Prior Art] In order to cut a sheet composed of a resin sheet or a metal foil or a composition of the resin sheet or the metal 4 into a narrower width, the upper edge of the round knife is often passed through The cutting blade group formed by the lower blade is cut. In the cutting using such a cutting blade group, two types of cutting methods are known as shown in Fig. 2 . The cutting method shown in Fig. 1(A) is to cut the sheet 3 through the upper blade 1 and the lower blade 2 (in the illustrated example, the active material 3b, 3c is held by the metal 3a) When the thickness of each surface side is about 100 / zm for the electrode sheet), the side surfaces of the upper blade 1 and the lower blade 2 are brought into contact with each other (that is, the axial clearance of the two blades is zero). It is called a so-called zero clearance cut. On the knife! A predetermined amount of overlap 4 (for example, an amount of overlap of about 100 to 200) is given between the top end and the top end of the lower blade 2. The cutting method shown in Fig. 1(b) is called so-called cutting with a predetermined gap 5 (for example, a gap of several tens of tens/zm) between the side faces of the upper blade 1 and the lower blade 2. The cutting method of the clearance cut. The amount of overlap 4 between the tip end of the upper blade 1 and the tip end of the lower blade 2 is often set to the same degree as in the case of the zero-gap cutting method. In any of the above-described cutting methods, one of the ones before cutting is required. 100140047 The position of the blade is set at the target position for the other blade, and the relationship between the two-knife bit form number A0101 page 3/24 pages 201223667 is set in the specified relationship. In particular, in the case where the gap between the side faces of the two blades is zero or the required gap is provided as described above, it is necessary to slightly adjust the position of one of the blades to the axial direction of the other blade. In order to position the cutting edge of one of the cutting edges at a predetermined position, a plurality of cutting edges may be arranged in the axial through-shaft mode for a substantially supported through-shaft, usually A spacer or the like that is fitted to the through-axis is used to determine the axial position of each blade and the interval between the blades (corresponding to the cutting width of the sheet). However, in this case, since the axial position of the blade is mechanically determined by the spacer or the like, the fine adjustment (fine adjustment of the gap amount) in the subtle axial position is particularly the case of the gap cutting method described above. In the case of the request, it is usually not possible to respond. On the other hand, in the case where an individual blade unit is provided in each individual tool unit and each unit is adjusted in the axial direction and the axial position of the blade is adjusted in the individual tool unit mode, the shaft can be rotated by each blade. The micro-adjustment of the position, but the individual cutter units have to take a certain size in the axial direction, so the spacing between adjacent blades (the width of the cut of the sheet) cannot be made too narrow, and the narrow width cannot be correspondingly required. The situation of the cut off. Further, since the support of the blade in the individual tool unit is often constituted by the cantilever support structure in the axial direction, the support portion of the blade is weak to vibration or disturbance, and the deflection accuracy of the blade edge is limited. In this case, the through-shaft method can be easily cut to a relatively narrow width by using a spacer having a narrow width or the like, and the through-shaft is configured by a simple support structure, so that the rigidity of the through-shaft and the support of the blade are supported. The rigidity is very high and the deflection accuracy of the blade is very high. In the gap cutting method, it is known that it can be set according to the object to be cut. 100140047 Form No. A0101 Page 4 of 24 1003463783-0 201223667

定適當的接鄰刀刀的側面間距離,則可 (burr)等的非常乾淨的切斷面,而且寸因不產生毛邊 接接觸,故也能得到心的壽命長的優點。刀;?如此不直 ,當以習知的個別刀真1 ‘ Ί~尺如上述 疋方式進行間隙士明時“ 界===斷之,,度產生 ’雖然可對應狹窄寬度的切斷習式的情形 偏斜精度,但因不具可微調整接鄰刀刀 =;鋒部的 機構,故基本上無法對應間隙切割。而離的 式基本疋4由緊壓力使刀刃彼此接觸為前提, 故也有刀㈣詩短之缺點。因此,如果可—邊維持簡 支揮的貫穿轴方式中的優點,—邊採關隙切割方式的 話,則可實現接近理絲態的輯裝置,惟尚未發現這 種片狀物的切斷裝置。 習知的技術例如可適用於側面修整器(s i d e t r i m _ nier)的技術已知有像記載於專利文獻i、2的刀刀的軸向 位置調整機構’但都是直接地或間接地支撐刀刃之軸自 身被調整位置於軸向的機構,離如上述的理想形態的切 斷裝置還很遠。因不成為在被簡支撐的貫穿軸上配置刀 刃的構造,而是成為懸臂或接近懸臂的支撐形態,故刀 鋒部的偏斜精度會產生界限,並且因不是成為可在一個 轴上設置複數個刀刃的構造,因此留下無法對應切斷成 複數列或無法對應狹窄寬度的切斷的問題。 [專利文獻1]日本國特開昭47-14785號公報 [專利文獻2]日本國特開平11 一 77420號公報 【發明内容】 表單编號A0101 100140047 第5頁/共24頁 1003463783-0 201223667 [0003] 因此,本發明的課題為鑒於如上述的現狀,提供一 種可一邊維持簡支撐的貫穿軸方式中的優點,一邊使至 少一方的刀刃對他方的刀刃個別地微調整位置於轴向, 可自由地選擇由零間隙切割到所需的間隙切割方式之接 近理想形態的片狀物的切斷裝置。 為了解決上述課題,與本發明有關的片狀物的切斷 裝置是由如下構成:具有由配置於被簡支撐的平行延伸的 一對軸的一方的軸的軸向規定位置的上刀刃,與配置於 他方的軸的軸向規定位置的下刀刃構成的切斷刀刃組, 透過前述上刀刀與下刀刃的協同動作切斷通過前述一對 軸間的片狀物,其特徵為:個別地透過差動螺旋機構 (differential serewmechanism)可將前述上刀刃與 下刀刃的任一方微調整地支撐軸向位置。此處的差動螺 旋機構是指使以螺旋軸(screw ax is)為同方向的兩個進 給螺旋機構(feed screw mechanism)的螺距(screw pitch)具有差,可藉由同時使該等兩個進給螺旋機構動 作,僅以其螺距的差分當作被移動物體的進給控制量利 用的機構,可活用於微小的量的進給控制或位置控制的 機構。 在這種與本發明有關的片狀物的切斷裝置中,因切 斷刀刃組配置於被簡支撐的一對軸的各軸向規定位置, 首先簡支撐的貫穿軸方式中的優點之刀鋒部的偏斜精度 被良好地保持,可在一個貫穿軸上設置複數個刀刀,故 多數列切斷為可能(當然利用一組切斷刀刃組進行的切斷 也可能),不需要像習知的個別刀具單元的軸向空間,因 此也能對應狹窄寬度切斷。而且,使至少一方的刀刃(例 100140047 表單編號A0101 第6頁/共24頁 1003463783-0 201223667 如上刀 万的刀刃(例如下By setting the distance between the sides of the appropriate knife, a very clean cut surface such as a burr can be obtained, and the inch can be obtained without a burr contact. Knife;? So not straight, when using the traditional individual knife true 1 ' Ί ~ ruler as the above-mentioned 疋 进行 间隙 间隙 “ “ “ “ “ “ 界 界 界 界 界 界 界 界 界 界 界 界 界 界 界 界 界 界 界 界 界 界 界The situation is skewed, but because there is no micro-adjustable knives = the front mechanism, it is basically impossible to cut the gap. The basic 疋4 is the premise that the blades are in contact with each other by the pressing force. There is also the shortcoming of the shortness of the knife (4) poetry. Therefore, if the advantage of the through-axis method of the simple support can be maintained, if the cutting method is adopted, the device close to the rational state can be realized, but this has not been found yet. A cutting device for a sheet material. A conventional technique, for example, a technique suitable for a side trimmer (a side trimmer) is known as an axial position adjusting mechanism of a knife blade described in Patent Documents i and 2, but both The mechanism for directly or indirectly supporting the blade itself to be adjusted in the axial direction is far from the cutting device of the above-described preferred form. Since it is not a structure in which the blade is disposed on the penetrating shaft that is simply supported, But become a cantilever or The support shape of the cantilever is close to the limit of the deflection of the blade, and since it is not a structure in which a plurality of blades can be provided on one axis, there is no cut that cannot be cut into a plurality of columns or cannot correspond to a narrow width. [Patent Document 1] Japanese Laid-Open Patent Publication No. Hei. No. Hei. No. Hei. No. Hei. - 0 201223667 [0003] Therefore, in view of the above-described circumstances, it is an object of the present invention to provide an advantage that at least one of the blades can be slightly adjusted to the other blade while maintaining the advantage of the through-shaft method of the simple support. In the axial direction, the cutting device of the sheet which is cut from the zero gap to the desired gap cutting mode and which is close to the ideal form can be freely selected. In order to solve the above problems, the cutting device for the sheet according to the present invention is The upper blade having a predetermined position in the axial direction of one of the shafts of the pair of shafts extending in parallel supported by the simple support, and the shaft disposed on the other side The cutting blade group formed by the lower blade in the axially defined position cuts through the sheet between the pair of shafts by the cooperation of the upper blade and the lower blade, and is characterized in that the differential screw mechanism is individually transmitted ( The differential serewmechanism can support the axial position of the upper blade and the lower blade slightly adjusted. The differential screw mechanism herein refers to two feed screw mechanisms in which the screw ax is in the same direction ( The screw pitch of the feed screw mechanism has a difference, and the two feed screw mechanisms can be operated at the same time, and only the difference of the pitch is used as a mechanism for the feed control amount of the moving object, and can be utilized. For a small amount of feed control or position control mechanism. In the cutting device for a sheet according to the present invention, since the cutting blade group is disposed at a predetermined position in each axial direction of the pair of shafts that are simply supported, the advantage of the through-shaft method of the first support is first. The deflection accuracy of the part is well maintained, and a plurality of cutters can be arranged on one through shaft, so that many columns are cut off (of course, it is possible to cut with a set of cutting blade sets), and it is not necessary to The axial space of the individual tool units is known, so that it can also be cut for a narrow width. Moreover, at least one of the cutting edges (example 100140047 form number A0101 page 6 / total 24 pages 1003463783-0 201223667 as the upper knife 10,000 blade (for example

100140047 〜m职r刀刀)即係 情形下也可分別個別地透過微小的量在有, 的上述差_旋機構微難位置於麵。2料可能 且精密地自由設定一方的刀刃(例如上 他:精細 間隙切割方式的位ir刀刃的側面彼此_抵接的零 目標的間“間隙切割方式的位置。亦 二作 構件為可採^藉由如下的 每.紀叹於保持刀刃(例如 ^(holder)^η 刃)的刀刀托 (th福 托座延伸成圓環狀的套管 (thimMe)之間之第―職機構;_定於上述轴且配 ::可滑動地將上述刀刀托座支㈣向的套Γ ㈣e與上述套管之間的具有與上 螺距不同的螺距夕势_ 螺旋機構的 中若使套其_ —螺旋機構。在這種差動螺旋機構 機構動Γ 則可同時使第—螺旋機構與第二螺旋 可當作差動螺旋機構使其發揮功能,可對被 的套筒將刀刀托座的位置(進而被保持於該刀刀 微«於轴向。亦即可在固定他方的 ::如下刀刀)的位置的狀態下,將上述刀刀(例如上 …到;微調整於抽向’可容易且自由地設定由零間 需到使其具有規定的間_間隙切割方式的所 需的切斷方式。此外,上述套管在作為測量儀器 (:^inglnstruinent)的測微器㈤cr〇meter)等 中為眾所周知的調整構件一 表單編號Α0Ι01 第7頁/共24頁 1003463783-0 201223667 而且,如在後述的實施的形態中舉例說明的,與本 發明有關的片狀物的切斷裝置的代表的形態可舉出如下 的構造:上述下刀刃被固定於下刀刃軸的軸向規定位置, 上述上刀刃對應其下刀刃的位置且被配置於上刀刃軸, 並且個別地透過上述差動螺旋機構可微調整地支撐對下 刀刃的軸向位置。 而且,在與本發明有關的片狀物的切斷裝置中,上 述差動螺旋機構至少在由兩刀刃的側面彼此接觸的零間 隙位置到超過預先被決定於兩刀刃的側面間的形成有規 定的間隙的間隙切割位置的位置的(亦即到超過些許規定 的間隙切割位置的位置的)範圍,可將上刀刃與下刀刃的 任一方微調整轴向位置而構成較佳。藉由使差動螺旋機 構具有這種動作範圍,可在由零間隙切割到規定的間隙 切割的範圍中選擇任意的所需的切斷條件。 是否到達兩刀刃的侧面彼此接觸的零間隙位置有難 以用目視等判斷的情形。因此,在與本發明有關的片狀 物的切斷裝置中,包含檢測透過上述差動螺旋機構微調 整的上述上刀刀與下刀刃的任一方的軸向位置中的兩刀 刃的側面彼此接觸的零間隙位置的零間隙位置檢測手段 較佳。因若包含這種零間隙位置檢測手段,則可正確地 檢測零間隙位置,不僅選擇零間隙切割條件的情形,連 選擇間隙切割條件的情形也能以所檢測的零間隙位置當 作基準位置(reference posit ion)計測由差動螺旋機 構產生的微調整量,故針對間隙切割條件中的刀刃的侧 面間的間隔的調整也能提高精度,可容易設定成最佳條 件。 100140047 表單編號A0101 第8頁/共24頁 1003463783-0 201223667 上述零間隙位置檢測手段例如可使用檢測透過兩刀 刃的側面彼此的接觸而產生的兩刀刃間的電性的導通的 手段。例如若構成可在兩刀刃間流過微小電流的電路, 在兩刀刃的侧面彼此接觸時實際上電流流動而構成的話 ,則在由兩刀刀的頂端部侧面施加大的力前可容易且確 實地檢測出達到了零間隙條件。In the case of the case, it is possible to transmit the small amount of the above-mentioned difference-rotation mechanism to the surface. (2) It is possible to precisely set one of the cutting edges (for example, the position of the gap cutting method between the zero targets of the side ir-edges of the fine gap cutting method). By the following, each of the sighs holds the blade (for example, ^(holder)^η刃) of the knife holder (the th-fusto seat extends into a ring-shaped sleeve (thimMe) between the first-level mechanism; Positioned on the above shaft and equipped with: slidably slidably set the above-mentioned knife holder (4) to the sleeve (4) e and the above-mentioned sleeve has a pitch pitch different from the upper pitch _ the screw mechanism of the sleeve - a screw mechanism. In this differential screw mechanism, the first screw mechanism and the second screw can be used as a differential screw mechanism to function, and the cutter holder can be used for the sleeve. The position (and thus the position of the knife in the axial direction. It is also possible to fix the other side of the knife: the following knife), the above knife (for example, up; to; fine adjustment in the pumping direction) It can be easily and freely set from zero to the specified inter-gap cutting mode. In addition, the above-mentioned bushing is a well-known adjustment member in a micrometer (5) cr〇meter as a measuring instrument (a), and is a form number Α0Ι01 page 7/24 pages 1003463783-0 In addition, as exemplified in the embodiment of the embodiment to be described later, a representative form of the sheet cutting device according to the present invention is a structure in which the lower blade is fixed to the axial direction of the lower blade axis. The predetermined position, the upper blade corresponds to the position of the lower blade and is disposed on the upper blade axis, and individually supports the axial position of the lower blade through the differential screw mechanism. Moreover, in connection with the present invention In the sheet cutting device, the differential screw mechanism is at least at a position of a zero gap where the side faces of the two blades are in contact with each other, and a position exceeding a gap cutting position in which a predetermined gap is formed between the side faces of the two blades in advance. (ie, to a position beyond a predetermined gap cutting position), the axial position of the upper blade and the lower blade can be slightly adjusted. Preferably, by having the differential screw mechanism have such a range of motion, any desired cutting condition can be selected from a range of cutting from a zero gap to a predetermined gap. Whether the sides of the two blades are in contact with each other The zero gap position is difficult to determine by visual observation or the like. Therefore, the sheet cutting device according to the present invention includes detecting one of the upper blade and the lower blade that are finely adjusted by the differential screw mechanism. The zero gap position detecting means of the zero gap position in which the sides of the two cutting edges are in contact with each other in the axial position is preferable. If the zero gap position detecting means is included, the zero gap position can be correctly detected, and not only the zero gap cutting is selected. In the case of the condition, even in the case of selecting the gap cutting condition, the micro-adjustment amount generated by the differential screw mechanism can be measured using the detected zero-gap position as a reference posit ion, so that the blade in the gap cutting condition is The adjustment of the spacing between the sides can also improve the accuracy and can be easily set to the optimum conditions. 100140047 Form No. A0101 Page 8 of 24 1003463783-0 201223667 The above-described zero gap position detecting means can be used, for example, by means of detecting electrical conduction between the two blades caused by the contact between the side faces of the two blades. For example, if a circuit that can flow a small current between the two blades is formed, and the current actually flows when the side faces of the two blades are in contact with each other, it is easy and sure to apply a large force to the side surface of the tip end portion of the two blades. The ground condition is detected to be zero.

此情形上述兩刀刃間到達電性的導通狀態為止需將 兩刀刃間保持在絕緣狀態,因此可採用例如在刀刃支撑 部的規定部位被施以絕緣塗膜(insulating coating) 的構造。刀刃通常以超硬合金(sintered hard all0y)In this case, it is necessary to maintain the insulating state between the two blades until the electrical conduction between the two blades is reached. Therefore, for example, a structure in which an insulating coating is applied to a predetermined portion of the blade supporting portion can be employed. The blade is usually made of super hard alloy (sintered hard all0y)

等的硬度高的材料形成,且因在其刀刃的側面被要求.在 其刀刃的侧面中為了維持侧面精度所需的側面精度維持 性月ti,故被施於刀刀支撑部的絕緣塗膜也只被要求不會 因磨耗等而剝離或變形的高硬度的塗膜(c〇ating iay_ er)。因此,上述絕緣塗膜例如使用DLC(Diam〇nd Carbon:類鑽碳)塗膜(Dlc coating)或陶瓷塗膜 (ceramic coating)等的高硬度的塗膜較佳。 而且,用以依照旋轉量調整由差動螺旋機構產生的 微調整量的前述套管的構成例如可採用在套管的外周面 刻設有顯示該套管的旋轉量關度的構造^如此若刻設 刻度的話’則可容易且正確地掌握套管的旋轉量,可精 度良好地控制由與職轉量纽例的差動職機構產生 的微調整量。 而且,為了謀求在本發明中由差動螺旋機構產生的 微調整量的更高精度化,螺旋機構無背隙(backiash)較 佳,特別是具有螺距差的前述第_螺旋機構與第二螺旋 100140047 表單編號A0101 第9頁/共24頁 1003463783-0 201223667 機構都在螺旋的無背隙的狀態下動作較佳。為了達成該 狀態,例如在上述刀刃托座與上述套筒之間配設有對一 方推迫他方於軸向的推迫手段較佳。在這種構造中因透 過推迫手段使刀刃托座與套筒互相推迫,故配設於刀刃 托座與套管之間的第一螺旋機構,與配設於套筒與套管 之間的第二螺旋機構都被按壓於任一方向,被保持於不 產生背隙的狀態。亦即推迫手段對螺旋機構當作加壓手 段發揮功能。這種推迫手段例如可使用柱塞(p 1 unger) 或螺旋彈簧(coil spring)、0型環(0 ring)等的彈性 構件。 此外,在本發明中切斷刀刃組的上刀刃或下刀刃可 使用被稱為所謂的組合刀刃(gang blades)之刀鋒頂端 面對刀刃的侧面形成直角的面之圓刀刃,但也能使用被 稱為所謂的剪切刀刃(shear blade)之刀鋒形成尖銳, 刀刃的側面對旋轉軸形成直角或銳角的面之圓刀刃。 [0004] 【發明的功效】 如此,依照與本發明有關的片狀物的切斷裝置,可 良好地保持簡支撐的貫穿軸方式中的刀鋒部的偏斜精度 ,可一邊善用也能容易對應狹窄寬度的切斷之優點,一 邊透過差動螺旋機構精度良好地微調整刀刃的軸向位置 ,可在由零間隙切割到規定的間隙切割之廣泛的範圍自 由地設定切斷方式。因此,可容易且確實地進行適合被 切斷物的最佳的切斷。 【實施方式】 以下,針對本發明的實施的形態一邊參照圖面,一 100140047 表單編號A0101 第10頁/共24頁 1003463783-0 [0005] 201223667 邊說明。 圖2是顯示與本發明的一實施態樣有關的片狀物的切 斷裝置1Q。在該切斷裝㈣中,在左右的固定框架㈣ 簡支撑地安裝有下刀刀轴12(也圖示於圖3),在對固定框 架11可調正位置於上下方向而被配設的左右的可動框架 13,被簡支舰奸有對下制㈣平行地延伸的上刀 刃轴14(也圖示於圖3)。也如圖3所示,在下刀刀轴12於 轴向中的預先被決定的規定的位置裝設有複數個下刀刃 15 ’在上刀77軸14對應各下刀刃15於軸向中的規定的位 置裝設有複數個上7777丨6。上制16與下制15在本實 施態樣中是由組合刀刃構成,對應的上刀刃16與下刀刃 15的組構成透過在本發明所謂的上刀刀㈣下刀刀⑽ m同動作切斷片狀物之切斷刀刃組。在圖示例中雖然配 置有複數組的切斷刀刀組,但也可以僅配置一組。 在本貝施態樣中各上刀刀16可個別地透過差動螺旋 機構π微調整地支撐轴向位置,惟也能在τ刀刃15侧或 Q 在上^刃16與下刀力15的兩側配設差動螺旋機構。上刀 7716如圖3~圖5所示透過螺检(bol〇19保持於刀刃托座 18a、18卜刀刀技座18a、18b因透過裝設於上刀刃轴“ 上的套筒20和螺旋部而被安裝,故在可滑動的狀態下被 支撑於轴向。在外周面刻設有可表示旋轉量的刻度21之 延伸成圓%狀的套管22介於刀刃托座18a與套筒2〇之間。 在刀刃托座18a與套管22之間構成有第一螺旋機構23,在 套筒20與套管22之間構成有第二螺旋機構24,第 一螺旋 機構23與第一螺旋機構24為螺距彼此不同而構成。藉由 該等第-職機構23與第二螺旋機構24構成差動螺旋機 1003463783-0 100140047 表單編號A0101 第11頁/共24頁 201223667 構17,藉由使套管22旋轉,使得刀刃托座18a、丨8進而 被保持於刀刃托座18a、18b的上刀刀16對固定於上刀刀 轴14上的套筒20被微調整相當於上述螺距的差的部分的 位置於軸向。換言之,上刀刀16的軸向位置對對應的下 刀刃15可藉*差觸旋㈣17以高精度進行微調整而構 成。例如若設第一螺旋機構23與第二螺旋機構24的任一 方的螺距為lmm,他方的螺距為〇. 9mm,則可藉由使套其 22旋轉-圈’將上刀謂練置僅微娜相當於螺距的S 差的部分之0.1mm於軸向’若在套管22的外周面刻設被等 分的1〇〇個刻度21,則因一刻度份成為1/1〇〇的旋轉量, 故可將上刀刃16的位置僅微調整0·〇〇1ππη於軸向。 藉由如此精密地將上刀刃16的位置微調整於輛向, 也如圖1所示,由上刀刃16的側面接觸下刀刃15的側面 零間隙位置到預先被決;t於兩刀刀的側面間的形成有規的 定的間隙的間隙切割位置’可任意地精度良好地選擇、 設定所需的切斷條件。 而且’在本實施態樣中在刀刀托座18a與套筒加之 間配設有當作對一方將他方推迫於軸向的推迫手段之杈 塞25,藉由透過該柱塞25使第一螺旋機構23與第二螺旋 機構24被加壓於轴向,使得在第—螺旋機構23與第二螺 旋機構24的雙方不產生背隙。據此,利用上述差動:旋 機構17進行的上刀刀16的軸向位置的微調整更高精度2 被進行。 而且雖然省略圖示’但如前述例如若具備由檢測因 兩刀刀15、16關面彼此的接觸造成的兩刀刃間的電性 的導通的手段構成的零間隙位置檢測手段,則因可正確 表單端(號A0101 第12頁/共24頁 1〇〇3463783~ 201223667A material having a high hardness is formed, and is required to be applied to the side surface of the blade. The side surface of the blade is required to maintain the side precision required for the side precision. It is also required to have a high-hardness coating film (c〇ating iay_ er) which is not peeled off or deformed by abrasion or the like. Therefore, the insulating coating film is preferably a high-hardness coating film such as a DLC (Dam coating) or a ceramic coating. Further, the configuration of the sleeve for adjusting the amount of fine adjustment generated by the differential screw mechanism in accordance with the amount of rotation may be, for example, a configuration in which the degree of rotation of the sleeve is displayed on the outer circumferential surface of the sleeve. When the scale is set, the amount of rotation of the sleeve can be easily and correctly grasped, and the amount of fine adjustment generated by the differential agency of the shift example can be accurately controlled. Further, in order to achieve higher precision of the fine adjustment amount by the differential screw mechanism in the present invention, the spiral mechanism has no back iash, and in particular, the aforementioned first spiral mechanism and second spiral having a pitch difference. 100140047 Form No. A0101 Page 9 of 24 1003463783-0 201223667 The mechanism works better in the backless state of the spiral. In order to achieve this state, for example, it is preferable to arrange a pushing means for pushing the other side in the axial direction between the blade holder and the sleeve. In this configuration, the blade holder and the sleeve are urged by the pushing means, so that the first screw mechanism is disposed between the blade holder and the sleeve, and is disposed between the sleeve and the sleeve. The second screw mechanism is pressed in either direction and is held in a state where no backlash is generated. That is, the pushing means functions as a pressing means for the screw mechanism. Such a pushing means can be, for example, an elastic member such as a plunger or a coil spring or a 0 ring. Further, in the present invention, the upper blade or the lower blade of the cutting blade group may be formed by a blade edge which is called a so-called gang blade, and a blade having a right-angled face facing the side of the blade, but can also be used. A blade called a so-called shear blade is sharpened, and the side of the blade forms a rounded edge of a face having a right angle or an acute angle to the axis of rotation. [Effect of the Invention] According to the cutting device for a sheet according to the present invention, the deflection accuracy of the blade portion in the through-shaft method of the simple support can be favorably maintained, and it can be easily used. In accordance with the advantage of the cutting of the narrow width, the axial position of the blade can be finely adjusted by the differential screw mechanism, and the cutting method can be freely set in a wide range from the zero gap cutting to the predetermined gap cutting. Therefore, it is possible to easily and surely perform the optimum cutting for the object to be cut. [Embodiment] Hereinafter, an embodiment of the present invention will be described with reference to the drawings, a 100140047, a form number A0101, a 10th page, a total of 24 pages, 1003463783-0 [0005] 201223667. Fig. 2 is a view showing a cutting device 1Q for a sheet relating to an embodiment of the present invention. In the cutting device (4), the lower blade shaft 12 (also shown in FIG. 3) is simply supported on the right and left fixed frames (four), and is disposed in the vertical direction with respect to the fixed frame 11 at a positive position. The left and right movable frames 13 are simply supported by the upper blade shaft 14 (also shown in Fig. 3) extending in parallel to the lower (four). As shown in FIG. 3, a plurality of lower cutting edges 15' are provided in the predetermined position at the predetermined position in the axial direction of the lower cutter shaft 12, and the upper cutter 77 shaft 14 corresponds to the axial direction of each lower cutting edge 15. The location is equipped with a plurality of 7777丨6. The upper system 16 and the lower system 15 are constituted by a combination cutting blade in the present embodiment, and the group structure of the corresponding upper blade 16 and lower blade 15 is transmitted through the upper blade (4) lower knife (10) m of the present invention. The cutting blade set of the sheet. In the example of the figure, although a cutting tool set of a complex array is arranged, only one set may be arranged. In the present embodiment, the upper cutters 16 can individually support the axial position through the differential screw mechanism π, but can also be on the side of the τ blade 15 or Q on the upper blade 16 and the lower blade force 15 A differential screw mechanism is arranged on both sides. The upper blade 7716 is threaded through the screw as shown in Figs. 3 to 5 (the bolts 19 are held by the blade holders 18a, 18, and the sleeves 20a and 18b are passed through the sleeve 20 and the spiral attached to the upper blade axis). The portion is mounted so as to be supported in the axial direction in a slidable state. The outer peripheral surface is engraved with a sleeve 22 extending in a circular shape of the scale 21 indicating the amount of rotation, and is interposed between the blade holder 18a and the sleeve. Between the cymbal holder 18a and the sleeve 22, a first screw mechanism 23 is formed, and between the sleeve 20 and the sleeve 22, a second screw mechanism 24 is formed, the first screw mechanism 23 and the first The screw mechanism 24 is configured such that the pitches are different from each other. The first-stage mechanism 23 and the second screw mechanism 24 constitute a differential screw machine 1003463783-0 100140047 Form No. A0101 Page 11 / 24 pages 201223667 Structure 17, by means of The sleeve 22 is rotated such that the blade holders 18a, 8 are further held by the upper cutters 16 of the blade holders 18a, 18b, and the sleeves 20 fixed to the upper cutter shafts 14 are finely adjusted to correspond to the above pitches. The position of the poor portion is in the axial direction. In other words, the axial position of the upper knife 16 can be borrowed from the corresponding lower cutting edge 15 * The differential touch (four) 17 is configured by fine adjustment with high precision. For example, if the pitch of one of the first screw mechanism 23 and the second screw mechanism 24 is 1 mm, and the pitch of the other is 〇. 9 mm, the sleeve can be made The 22 rotation-circle's the upper knife is set to be only 0.1 mm in the axial direction corresponding to the S-difference of the pitch. If the outer circumferential surface of the sleeve 22 is engraved, the scale 1 is equally divided. Therefore, since the scale is 1/1 〇〇 of the rotation amount, the position of the upper blade 16 can be slightly adjusted by 0·〇〇1ππη in the axial direction. By precisely adjusting the position of the upper blade 16 in this manner As shown in FIG. 1, the side of the upper blade 16 contacts the side zero gap position of the lower blade 15 to a predetermined position; t is a gap cutting position between the sides of the two blades to form a regular gap. 'The required cutting conditions can be selected and set arbitrarily accurately. Moreover, in the present embodiment, the knife holder 18a and the sleeve are disposed between the cutter holders 18a and the sleeves. a plug 25 for pushing means, the first screw mechanism 23 and the second screw mechanism 24 are passed through the plunger 25 Pressurized in the axial direction so that no backlash is generated in both the first screw mechanism 23 and the second screw mechanism 24. Accordingly, the axial position of the upper blade 16 by the above-described differential: the rotary mechanism 17 is microscopically Further, the adjustment is performed with higher precision. Further, although the illustration is omitted, the zero gap formed by the means for detecting the electrical conduction between the two blades due to the contact between the two blades 15 and 16 is provided as described above. Position detection means, because the correct form end (No. A0101 Page 12 / Total 24 pages 1〇〇3463783~ 201223667

地檢測零間隙位置,故不僅 ,連零間隙切割條件的情形 成為的間隙切割條件的情形也能以所檢到 的零間隙位置當作基準位置奴& 所檢測 t 又定由差動螺旋機構17產生 的微調整量(例如上述套管22& 調整、設定最佳的間隙切割條董、:可更高精度地 、+ 如上述的檢測電性的 導通的零間隙位置檢測手段如前述般,也可以在刀刃支 樓部的規定部位施以由DLC_或陶《膜構成的絕緣塗 膜’可檢測未被絕緣的兩刀刃的側面彼此接觸時的電性 的導通。 此外,因上述的差動螺旋機構17是以軸向中的微調 整為目的,故無需大的衝程(str〇ke) 〇為了使如圖4所 示的包含差動螺旋機構丨7的上刀刃16的保持單元全體位 於上刀刃轴14的規定處,如圖3所示,也可以適宜配設具 有適當的軸向長度的間隔物26。 在上述實施態樣中因可使用差動螺旋機構17將上刀 刃16側微調整於軸向,故針對下刀刃15側可採用與以往 一樣的以貫穿軸型的軸向位置固定方式。例如如圖6、圖 7所示’藉由下刀刃托座31a、31b透過螺栓32保持下刀 刃15,如圖3所示,可藉由適宜配設具有適當的軸向長度 的間隔物33 ’將該單元固定配置於下刀刃軸12的規定的 轴向位置也可以。 [0006] 【產業上的可利用性】 與本發明有關的片狀物的切斷裝置可適用於塑膠片 (plastic sheet)或金屬箔、組合該等塑膠片或金屬箔 的片狀物等的所有的片狀物的切斷。 100140047 表單編號A0101 第13頁/共24頁 1003463783-0 201223667 【圖式簡單說明】 [0007] 圖1是顯示切斷方式的種類之概略剖面圖。 圖2是與本發明的一實施態樣有關的片狀物的切斷裝 置之斜視圖。 圖3是圖1的切斷裝置的主要部分之放大剖面圖。 圖4是圖3的主要部分中的上刀刃部之放大剖面圖。 圖5是圖4的上刀刃部之斜視圖。 圖6是圖3的主要部分中的下刀刃部之放大剖面圖。 圖7是圖6的下刀刃部之斜視圖。 【主要元件符號說明】 [0008] 1、1 6 :上刀刃 2、15:下刀刃 3:片狀物 4:重疊量 5 :間隙 10:片狀物的切斷裝置 11 :固定框架 12 :下刀刃軸 1 3 :可動框架 14 :上刀刃軸 17:差動螺旋機構 18a、18b:刀刃托座 19、32:螺栓 20:套筒 21 :刻度 22:套管 100140047 表單編號A0101 第14頁/共24頁 1003463783-0 201223667 23:第一螺旋機構 24:第二螺旋機構 25:當作推迫手段的柱塞 2 6、3 3 :間隔物 31a、31b:下刀刃托座The zero gap position is detected, so that not only the case of the gap cutting condition but also the gap gap condition can be used as the reference position slave. The detected t is determined by the differential screw mechanism. 17 The amount of micro-adjustment produced (for example, the above-mentioned bushing 22& adjusts and sets the optimum gap cutting bar, can be more accurately, + as described above, the zero-gap position detecting means for detecting electrical conduction is as described above, It is also possible to apply an electrical insulating film made of DLC_ or ceramic "film" to a predetermined portion of the blade branch portion to detect electrical conduction when the sides of the two blades that are not insulated are in contact with each other. The moving screw mechanism 17 is intended for fine adjustment in the axial direction, so that no large stroke is required, so that the holding unit of the upper cutting edge 16 including the differential screw mechanism 所示7 shown in Fig. 4 is located at all. As shown in Fig. 3, a spacer 26 having an appropriate axial length may be suitably disposed as shown in Fig. 3. In the above embodiment, the upper blade 16 side may be slightly used by using the differential screw mechanism 17. Adjusted to In the axial direction, the axial position fixing method of the through-shaft type can be used for the lower blade edge 15 as shown in the prior art. For example, as shown in Figs. 6 and 7, the lower blade holder 31a, 31b is held by the bolt 32. As shown in FIG. 3, the blade 15 may be fixedly disposed at a predetermined axial position of the lower blade axis 12 by appropriately providing a spacer 33' having an appropriate axial length. [0006] [Applicability of the above] The cutting device for a sheet according to the present invention can be applied to all sheets of a plastic sheet or a metal foil, a sheet in which the plastic sheets or metal foils are combined, and the like. 100140047 Form No. A0101 Page 13 of 24 1003463783-0 201223667 [Simplified Schematic Description] [0007] Fig. 1 is a schematic cross-sectional view showing the type of cutting method. Fig. 2 is a view showing the same as the present invention. Fig. 3 is an enlarged cross-sectional view showing the main part of the cutting device of Fig. 1. Fig. 4 is an enlarged sectional view showing the upper blade portion of the main portion of Fig. 3. Figure 5 is a perspective view of the upper blade portion of Figure 4. Figure 6 Fig. 7 is a perspective view of the lower blade portion of Fig. 6. Fig. 7 is a perspective view of the lower blade portion of Fig. 6. [Key element symbol description] [0008] 1, 1 6: upper blade 2, 15: lower blade 3: sheet 4: overlap amount 5: gap 10: sheet cutting device 11: fixed frame 12: lower blade axis 1 3 : movable frame 14: upper blade axis 17: differential screw mechanism 18a, 18b: Blade holder 19, 32: Bolt 20: Sleeve 21: Scale 22: Sleeve 100140047 Form No. A0101 Page 14 of 24 1003463783-0 201223667 23: First screw mechanism 24: Second screw mechanism 25: Treated Plunger 2 6 , 3 3 of the pushing means: spacers 31a, 31b: lower blade holder

100140047 表單編號A0101 第15頁/共24頁 1003463783-0100140047 Form No. A0101 Page 15 of 24 1003463783-0

Claims (1)

201223667 七、申請專利範圍: 1 . 一種片狀物的切斷裝置,具有由配置於被簡支撐的平行延 伸的一對軸的一方的軸的軸向規定位置的上刀刃,與配置 於他方的軸的軸向規定位置的下刀刃構成的切斷刀刃組, 透過該上刀刃與下刀刃的協同動作切斷通過該一對轴間的 片狀物, 其特徵為:個別地透過差動螺旋機構可將該上刀刃與 下刀刃的任一方微調整地支撐轴向位置。 2.如申請專利範圍第1項之片狀物的切斷裝置,其中該差動 螺旋機構藉由如下的構件構成: 配設於保持刀刃的刀刃托座與對該刀刃托座延伸成 圓環狀的套管之間之第一螺旋機構;以及 被固定於該軸且配設於可滑動地將該刀刃托座支撐 於軸向的套筒與該套管之間的具有與該第一螺旋機構的螺 距不同的螺距之第二螺旋機構。 3 .如申請專利範圍第1項或第2項之片狀物的切斷裝置,其中 該下刀刃被固定於下刀刃軸的軸向規定位置,該上刀刃對 應其下刀刃的位置且被配置於上刀刀軸,並且個別地透過 該差動螺旋機構可微調整地支撐對下刀刃的軸向位置。 4 .如申請專利範圍第1項至第3項中任一項之片狀物的切斷裝 置,其中該差動螺旋機構至少在由兩刀刃的侧面彼此接觸 的零間隙位置到超過預先被決定於兩刀刃的侧面間的形成 有規定的間隙的間隙切割位置的位置的範圍,可將該上刀 刃與下刀刃的任一方微調整軸向位置而構成。 5 .如申請專利範圍第1項至第4項中任一項之片狀物的切斷裝 100140047 表單編號A0101 第16頁/共24頁 1003463783-0 201223667 置,其中包含檢測透過該差動螺旋機構微調整的該上刀刀 與下刀刃的任一方的轴向位置中的兩刀刃側面彼此接觸的 零間隙位置的零間隙位置檢測手段。 6 .如申請專利範圍第5項之片狀物的切斷裝置,其中該零間 隙位置檢測手段是由檢測透過該兩刀刃的側面彼此的接觸 而產生的兩刀刀間的電性的導通的手段構成。 7 .如申請專利範圍第6項之片狀物的切斷裝置,其中該兩刀 刃間到達電性的導通狀態為止為了保持兩刀刃間於絕緣狀 態,在刀刃支撐部的規定部位被施以絕緣塗膜。 0 8 .如申請專利範圍第7項之片狀物的切斷裝置,其中該絕緣 塗膜是由DLC塗膜或陶瓷塗膜構成。 9.如申請專利範圍第2項至第8項中任一項之片狀物的切斷裝 置,其中在該套管的外周面刻設有顯示該套管的旋轉量的 刻度。 10 .如申請專利範圍第2項至第9項中任一項之片狀物的切斷裝 置,其中在該刀刃托座與該套筒之間配設有對一方推迫他 方於軸向的推迫手段。 〇 100140047 表單編號A0101 第17頁/共24頁 1003463783-0201223667 VII. Patent application scope: 1. A sheet cutting device having an upper blade disposed at an axially defined position of one of a pair of shafts extending in parallel and supported by a simple support, and disposed on the other side a cutting blade group formed by a lower blade having a predetermined axial position of the shaft, and a sheet member passing between the pair of shafts is cut by the cooperation of the upper blade and the lower blade, and is characterized in that the differential screw mechanism is individually transmitted The axial position can be supported by one of the upper and lower blades. 2. The cutting device for a sheet according to claim 1, wherein the differential screw mechanism is constituted by: a blade holder disposed on the holding blade and a ring extending to the blade holder a first screw mechanism between the sleeves; and a first spiral that is fixed to the shaft and disposed between the sleeve slidably supporting the blade holder in the axial direction and the sleeve The second helical mechanism of the pitch of the mechanism with different pitches. 3. The cutting device of the sheet of claim 1 or 2, wherein the lower cutting edge is fixed to an axially defined position of the lower cutting edge axis, the upper cutting edge corresponding to the position of the lower cutting edge and configured The upper cutter shaft is axially supported by the differential screw mechanism to adjust the axial position of the lower cutting edge. 4. The cutting device for a sheet according to any one of claims 1 to 3, wherein the differential screw mechanism is determined in advance at least at a position of a zero gap in which the sides of the two blades are in contact with each other. The range of the position of the gap cutting position in which the predetermined gap is formed between the side faces of the two blades can be configured by slightly adjusting the axial position of either of the upper blade and the lower blade. 5 . The cutting device 100140047 of the sheet of any one of claims 1 to 4, the form number A0101, the 16th page, the total number of pages 1003463783-0 201223667, including the detection through the differential spiral A zero-gap position detecting means of a zero-gap position in which the two blade sides of the upper blade and the lower blade are in contact with each other in the axial position of the upper blade and the lower blade. 6. The cutting device for a sheet according to claim 5, wherein the zero gap position detecting means is electrically connected between the two blades by detecting contact between the sides of the two blades. Means constitute. 7. The cutting device for a sheet according to claim 6, wherein the predetermined position of the blade support portion is insulated in order to maintain the insulation between the two blades until the two blades reach an electrically conductive state. Coating film. A cutting device for a sheet according to the seventh aspect of the invention, wherein the insulating coating film is composed of a DLC coating film or a ceramic coating film. The cutting device for a sheet according to any one of claims 2 to 8, wherein a scale indicating a rotation amount of the sleeve is engraved on an outer circumferential surface of the sleeve. The cutting device for a sheet according to any one of the preceding claims, wherein the blade holder and the sleeve are disposed between the blade holder and the sleeve to urge the other side in the axial direction. The means of pushing. 〇 100140047 Form No. A0101 Page 17 of 24 1003463783-0
TW100140047A 2010-12-08 2011-11-03 Sheet material cutting device TW201223667A (en)

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