TW201836800A

TW201836800A - Sheet production system, defibrator and sheet production device

Info

Publication number: TW201836800A
Application number: TW107109987A
Authority: TW
Inventors: 中島靖雅; 杢屋銑一; 松下博
Original assignee: 日商精工愛普生股份有限公司
Priority date: 2017-03-29
Filing date: 2018-03-23
Publication date: 2018-10-16
Also published as: JP2018168493A; JP6946693B2; WO2018180822A1

Abstract

The present invention produces sheets in an office, etc., in which there is a demand for produced sheets. A sheet production system 1 comprises: a defibration unit 20; a fiber processing unit 40 for converting, into a portable form, the defibrated fibers that have been defibrated by the defibration unit 20; and a second device 100B for producing sheets S using the defibrated fibers in the portable form.

Description

Sheet manufacturing system, defibrating device, and sheet manufacturing device

本發明係關於片材製造系統、解纖裝置及片材製造裝置。The present invention relates to a sheet manufacturing system, a defibrating device, and a sheet manufacturing device.

已知一種將包含纖維之材料投入液中，進行纖維分離而再造之所謂濕式製造片材之片材製造裝置(例如參照專利文獻1)。又，已知一種將包含纖維之材料於空氣中解纖，並以解纖之解纖纖維為原料而製造片材之乾式之片材製造裝置(例如參照專利文獻2)。 [先前技術文獻] [專利文獻] [專利文獻1]日本專利特開2009-299231號公報 [專利文獻2]日本專利特開2016-112740號公報A sheet manufacturing apparatus of a so-called wet-processed sheet in which a material containing a fiber is introduced into a liquid and the fiber is separated and reconstituted is known (for example, see Patent Document 1). Moreover, a dry sheet manufacturing apparatus which produces a sheet by defibrating a fiber-containing material in the air and decomposing the defibrated fiber as a raw material is known (for example, see Patent Document 2). [PRIOR ART DOCUMENT] [Patent Document 1] Japanese Patent Laid-Open Publication No. 2009-299231 (Patent Document 2)

[發明所欲解決之問題] 由於專利文獻1記載之裝置具有蓄積液之構成或以水清洗之構成，故裝置較大型，又，於設置場所需要有給排水設備。由於專利文獻2記載之裝置具有可動部，故難以配置於欲儘可能避免振動或噪音之場所。根據以上之理由，難以將專利文獻1、2記載之裝置配置於辦公室等。又，於專利文獻1、2記載之裝置中，於製造片材之情形時，由於自將包含纖維之材料解纖後開始，故片材製造花費時間，而難以按需求製造片材。本發明係解決上述之課題之至少一部分者，目的在於於需要製造之片材之辦公室等製造片材。 [解決問題之技術手段] 為了達成上述課題，本發明之片材製造系統具備：解纖部，其將包含纖維之原料解纖；片材製造部，其製造片材；及處理部，其將上述解纖部所解纖之解纖纖維設為可搬形態；且上述片材製造部利用上述可搬形態之解纖纖維製造上述片材。根據本發明，由於可容易地搬運解纖纖維，故可將片材製造部、與解纖部及處理部分離。因此，可於有需要製造之片材之辦公室等製造片材。又，於本發明中，上述處理部將上述解纖部所解纖之解纖纖維收納於容器。根據本發明，可使解纖纖維之處理變得容易，且易於搬運解纖纖維。又，於本發明中，上述處理部將上述解纖部所解纖之解纖纖維處理成具有形狀保持性之狀態。根據本發明，由於解纖纖維之處理變得容易，故可於有需要製造之片材之辦公室等製造片材。又，於本發明中，上述處理部將上述解纖纖維處理成板形狀、長方體形狀、球形狀之任一狀態。根據該構成，可期待易於使解纖纖維一起移動或易於放入卡匣之效果。又，於本發明中，上述處理部將上述解纖纖維真空包裝。根據本發明，可效率良好地提高解纖纖維之填充率，且使解纖纖維之處理變得容易。又，於本發明中，可搬形態之解纖纖維可包含黏合劑。根據本發明，於由可搬形態之解纖纖維製造片材時，無須準備黏合劑。又，於本發明中具備：具有上述解纖部之第1裝置、與具有上述片材製造部之第2裝置。根據本發明，由於可將第2裝置配置於另外之場所，故可於有需要製造之片材之辦公室等製造片材。又，於本發明中，上述第1裝置與上述第2裝置可分別獨立動作。根據本發明，可提高第1裝置與第2裝置之配置及運轉之自由度而按需求製造片材。又，於本發明中，上述片材製造部具有於上述片材進行印刷之印刷部。根據本發明，與配置獨立之印刷裝置之情形相比，機器之設置效率提高。又，於本發明中，上述片材製造部以印刷開始指示為觸發而製造上述片材。根據本發明，可根據印刷開始指示而按需求製造片材。又，於本發明中，具備第3裝置，其具有將紙粗碎，獲得解纖對象之原料之粗碎部。根據本發明，可提高粗碎部與解纖部之配置及運轉之自由度，例如可將粗碎部與解纖部配置於不同之場所。又，於本發明中，上述解纖部為乾式。根據本發明，無須用於解纖之給排水設備。又，由於不使用水分，故將纖維收納於容器、或真空包裝之製程較為容易。又，於本發明中，上述解纖部為濕式。根據本發明，由於可將片材製造部與解纖部及處理部分離，故可將解纖部配置於具備給排水設備之場所。又，利用解纖纖維包含水分，而將解纖纖維處理成具有形狀保持性之狀態的製程變得容易。又，本發明之解纖裝置具備：解纖部，其將包含纖維之原料解纖；及處理部，其將上述解纖部所解纖之解纖纖維設為可搬形態。根據本發明，由於可容易地搬運解纖部所解纖之解纖纖維，故可將解纖裝置配置於有需要製造之片材之辦公室等以外之場所。又，本發明之片材製造裝置具有被供給可搬形態之解纖纖維之供給口，且具備利用被供給至上述供給口之上述可搬形態之解纖纖維製造片材的片材製造部。根據本發明，由於可利用可搬形態之解纖纖維製造片材，故可於有需要製造之片材之辦公室等製造片材。[Problems to be Solved by the Invention] Since the device described in Patent Document 1 has a configuration of accumulating liquid or a structure for washing with water, the device is large in size, and a water supply and drainage device is required at the installation place. Since the device described in Patent Document 2 has a movable portion, it is difficult to arrange it in a place where vibration or noise is to be avoided as much as possible. For the above reasons, it is difficult to arrange the devices described in Patent Documents 1 and 2 in an office or the like. Further, in the apparatus described in Patent Documents 1 and 2, in the case of producing a sheet, since the material containing the fiber is defibrated, it takes time to manufacture the sheet, and it is difficult to manufacture the sheet as required. The present invention solves at least some of the above problems, and aims to produce a sheet in an office or the like that requires a sheet to be manufactured. [Means for Solving the Problems] In order to achieve the above object, the sheet manufacturing system of the present invention includes a defibrating unit that defibrates a material containing fibers, a sheet manufacturing unit that produces a sheet, and a processing unit that The defibrated fiber from which the defibration unit is defibrated is in a movable form, and the sheet manufacturing unit manufactures the sheet by using the disintegrated fiber of the movable form. According to the present invention, since the defibrated fiber can be easily conveyed, the sheet producing portion, the defibrating portion, and the treating portion can be separated. Therefore, the sheet can be manufactured in an office or the like where there is a sheet to be manufactured. Further, in the invention, the processing unit stores the defibrated fibers defibrated by the defibrating unit in a container. According to the present invention, the treatment of the defibrated fibers can be facilitated, and the defibrated fibers can be easily handled. Moreover, in the present invention, the processing unit processes the defibrated fibers defibrated by the defibrating unit into a shape retaining state. According to the present invention, since the treatment of the defibrated fiber becomes easy, the sheet can be produced in an office or the like where the sheet to be produced is required. Further, in the invention, the processing unit processes the defibrated fiber into any of a plate shape, a rectangular parallelepiped shape, and a spherical shape. According to this configuration, it is expected that the defibrated fibers can be easily moved together or can be easily placed in a cassette. Moreover, in the invention, the processing unit vacuum-packs the defibrated fiber. According to the present invention, the filling rate of the defibrated fibers can be efficiently improved, and the treatment of the defibrated fibers can be facilitated. Further, in the present invention, the disintegrated fiber of the transferable form may contain a binder. According to the present invention, it is not necessary to prepare a binder when the sheet is produced from the disintegrated fiber. Moreover, the present invention includes the first device having the defibrating unit and the second device having the sheet manufacturing unit. According to the present invention, since the second device can be disposed in another place, the sheet can be manufactured in an office or the like where the sheet to be manufactured is required. Further, in the invention, the first device and the second device can operate independently. According to the present invention, the degree of freedom in the arrangement and operation of the first device and the second device can be improved, and the sheet can be manufactured as needed. Moreover, in the invention, the sheet manufacturing unit has a printing unit that performs printing on the sheet. According to the present invention, the setting efficiency of the machine is improved as compared with the case of configuring a separate printing device. Further, in the invention, the sheet manufacturing unit manufactures the sheet by triggering a printing start instruction. According to the present invention, the sheet can be manufactured as needed according to the printing start instruction. Moreover, in the present invention, there is provided a third device which has coarsely crushed paper to obtain a coarse crushed portion of a raw material of the defibrated object. According to the present invention, the degree of freedom in arrangement and operation of the coarsely divided portion and the defibrated portion can be improved, and for example, the coarsely divided portion and the defibrated portion can be disposed at different places. Further, in the invention, the defibrating unit is a dry type. According to the present invention, it is not necessary to use a water supply and drainage device for defibration. Moreover, since water is not used, it is easy to process the fibers in a container or vacuum packaging. Further, in the invention, the defibrating unit is of a wet type. According to the invention, since the sheet manufacturing unit can be separated from the defibrating unit and the processing unit, the defibrating unit can be disposed in a place where the water supply and drainage device is provided. Further, it is easy to use a process in which the defibrated fiber contains moisture and the defibrated fiber is processed into a shape retaining state. Moreover, the defibrating device of the present invention includes a defibrating unit that defibrates a raw material containing fibers, and a processing unit that converts the defibrated fibers defibrated by the defibrating unit into a movable form. According to the present invention, since the defibrated fiber which is defibrated by the defibrating unit can be easily conveyed, the defibrating device can be disposed in a place other than an office or the like where the sheet to be manufactured is required. Moreover, the sheet manufacturing apparatus of the present invention has a supply port for supplying the defibrated fiber in a movable form, and a sheet manufacturing unit that produces a sheet by the defibrated fiber that is supplied to the supply port. According to the present invention, since the sheet can be produced by using the disintegrated fiber of the movable form, the sheet can be produced in an office or the like which is required to produce the sheet.

以下，對本發明較佳之實施形態使用圖式詳細地進行說明。另，以下說明之實施形態並非限定申請專利範圍記載之本發明之內容者。又，並非以下說明之構成之全部均為本發明之必要構成要件。 (第1實施形態) 圖1係顯示第1實施形態之片材製造系統1之構成之圖。本實施形態記載之片材製造系統1係例如較適於藉由將作為原料之機密紙等之使用過廢紙(片材)以乾式解纖而纖維化後進行加壓、加熱、切斷而製造新紙之裝置。亦可藉由將各種添加物混合於纖維化之原料，而根據用途提高紙製品之黏合強度或白度、或顏色、香味、阻燃等功能。又，可藉由控制紙之密度或厚度、形狀並成形，而根據用途製造A4或A3之辦公用紙、名片用紙等各種厚度、尺寸之紙。片材製造系統1由第1裝置100A、與第2裝置100B構成。第1裝置100A與第2裝置100B為可分開構成，且可各自獨立動作之裝置。第1裝置100A為對成為原料之廢紙進行粗碎及解纖等而製造解纖纖維之裝置(亦稱為粗碎、解纖裝置、或解纖裝置)，且具有供給部10、粗碎部12、解纖部20、分選部30、及纖維處理部40。第2裝置100B為以解纖纖維為原料製造片材之裝置(亦稱為片材製造裝置、片材製造部)，且具有纖維供給部45、添加物混合部50、堆積部60、片材形成部70、及切斷部90。供給部10將原料供給至粗碎部12。原料係只要為包含纖維者即可。列舉例如紙、紙漿、紙漿片材、包含不織布之布、或織物等。於本實施形態中，例示以廢紙為原料之構成。供給部10為具有載置例如廢紙之托盤(給紙托盤)，且將載置於托盤之廢紙連續地投入至粗碎部12的自動投入單元。粗碎部12(細斷部)藉由粗碎刃14將由供給部10供給之原料粗碎(細斷)而成為粗碎片(以下稱為粗碎物)。粗碎物為與以所謂之碎紙機細斷之碎紙片相同之狀態。粗碎刃14為用以於大氣中(空氣中)等之空氣中將原料粗碎之刃。粗碎部12具備：一對粗碎刃14，其等夾著原料並將其粗碎；及驅動部，其使粗碎刃14旋轉；且可設為與所謂之碎紙機同樣之構成。粗碎片之形狀或大小為任意，只要適於解纖部20之解纖處理即可。例如，粗碎部12將原料粗碎成1～數cm之四方形或其以下尺寸之紙片。由粗碎部12粗碎之原料由料筒1接收後經由管2移送(搬送)至解纖部20。解纖部20將由粗碎部12粗碎之粗碎物解纖。更具體而言，解纖部20將由粗碎部12粗碎之原料(粗碎物)進行解纖處理而產生解纖纖維。此處，「解纖」意指將複數條纖維黏結而成之原料(被解纖物)解開成1條1條纖維。解纖部20亦具有使附著於原料之樹脂粒或油墨、碳粉、防滲劑等物質自纖維分離之功能。將通過解纖部20者稱為「解纖物」。「解纖物」係除了經解開之解纖纖維以外，亦有包含解開纖維時自纖維分離之樹脂(用以使複數條纖維彼此黏結之樹脂)粒、墨水、碳粉等色劑、或防滲劑、紙力增強劑等添加物之情形。經解開之解纖纖維之形狀為繩(string)狀或帶(ribbon)狀。經解開之解纖纖維可以不與其他經解開之解纖纖維纏結之狀態(獨立之狀態)存在，亦可以與其他經解開之解纖物纏結成塊狀之狀態(形成所謂之「團塊」之狀態)存在。解纖部20以乾式進行解纖。此處，將於大氣中(空氣中)等之空氣中而非於液體中進行解纖等之處理稱為乾式。於本實施形態中設為解纖部20使用葉輪粉碎機之構成。具體而言，解纖部20具備高速旋轉之轉子(省略圖示)、及位於轉子外周之套筒(省略圖示)。由粗碎部12粗碎之粗碎片被夾於解纖部20之轉子與套筒之間而解纖。解纖部20藉由轉子之旋轉產生氣流。藉由該氣流，解纖部20可自管2之導入口22吸引原料即粗碎片，並向排出口24搬送解纖物。解纖物自排出口24輸送至管3，並經由管3移送至分選部30。另，用以將解纖物自解纖部20搬送至分選部30之氣流可利用解纖部20產生之氣流，亦可設置鼓風機等氣流產生裝置，並利用其之氣流。分選部30具有使包含由解纖部20解纖之解纖纖維之解纖物與氣流一同自管3流入之導入口32。分選部30根據纖維之長度分選導入至導入口32之解纖物。詳細而言，分選部30將解纖物中之預定尺寸以下之解纖物設為第1分選物，將大於第1分選物之解纖物設為第2分選物而加以分選。第1分選物除了解纖纖維以外還包含較小之粒子等，第2分選物包含例如較大之纖維、未解纖片(未充分解纖之粗碎片)、經解纖之纖維凝聚或纏結之團塊等。於本實施形態中，分選部30具有轉筒部31(篩部)、收納轉筒部31之外殼部33(覆蓋部)、及第1網狀物形成部35。轉筒部31為藉由馬達旋轉驅動之圓筒篩。轉筒部31具有網(過濾網、絲網)，且作為篩(sieve)發揮功能。根據該網眼，轉筒部31分選出小於網眼開度(開口)大小之第1分選物、與大於網眼開度之第2分選物。作為轉筒部31之網例如可使用金屬網、將帶有縫隙之金屬板拉伸之擴張金屬板、以壓製機等於金屬板形成孔之沖孔金屬板。導入至導入口32之解纖物與氣流一同輸送至轉筒部31之內部，並藉由轉筒部31之旋轉而使第1分選物自轉筒部31之網眼掉落至下方。無法通過轉筒部31之網眼之第2分選物藉由自導入口32流入至轉筒部31之氣流而流動，被引導至排出口34並輸送至管8。管8連結轉筒部31之內部與管2。通過管8流動之第2分選物與由粗碎部12粗碎之粗碎片一同供給至管2，並被引導至解纖部20之導入口22。藉此，第2分選物返回至解纖部20而進行解纖處理。又，由轉筒部31分選之第1分選物通過轉筒部31之網眼而分散至空氣中，並向位於轉筒部31下方之第1網狀物形成部35之網帶36降下。第1網狀物形成部35(分離部)包含網帶36(分離帶)、輥37、及吸引部38(抽吸機構)。網帶36為環形狀之皮帶，懸掛於3根輥37，並藉由各輥37之旋轉而向圖中箭頭所示之方向搬送。網帶36之表面由排列特定尺寸之開口之網構成。自分選部30降下之第1分選物中通過網眼之尺寸之微粒子落至網帶36之下方，無法通過網眼之尺寸之纖維(解纖纖維)堆積於網帶36，並與網帶36一同向箭頭方向搬送。自網帶36落下之微粒子係包含解纖物中相對較小者或密度較低者(樹脂粒或色劑或添加劑等)，而於片材製造系統1製造片材時未被使用之去除物。網帶36於第1裝置100A之通常動作中，以一定速度V1移動。此處，通常動作中係指除第1裝置100A之啟動時、及停止時之外的動作中。因此，由解纖部20予以解纖處理之解纖物於分選部30中被分選為第1分選物與第2分選物，且第2分選物經由管4返回至解纖部20。又，藉由第1網狀物形成部35自第1分選物將去除物去除。自第1分選物去除去除物後之剩餘者為適於製造片材之解纖纖維，且解纖纖維堆積於網帶36而形成第1網狀物W1。吸引部38自網帶36之下方吸引空氣。藉由吸引部38之吸引力，促進網帶36上之第1網狀物W1之形成，且加速將去除物去除。另，於第1裝置100A中，分選並分離第1解纖物與第2解纖物之構成並未限定於具備轉筒部41之分選部30。例如，亦可採用將由解纖部20予以解纖處理之解纖物藉由分級機分級之構成。作為分級機可使用例如旋風分級機、彎頭噴射分級機、埃迪分類器。若使用該等分級機，則可分選並分離第1分選物與第2分選物。再者，藉由上述分級機，可實現將解纖物中包含相對較小者或密度較低者(樹脂粒或色劑或添加劑等)之去除物分離並去除之構成。第1裝置100A具備將堆積於網帶36之第1網狀物W1分斷之旋轉體39。第1網狀物W1於網帶36藉由輥37而折返之位置，自網帶36剝離並藉由旋轉體39分斷。旋轉體39之構成為任意，但於本實施形態中，可設為具有板狀之葉片且旋轉之旋轉葉形狀。旋轉體39配置於自網帶36剝離之第1網狀物W1與葉片接觸之位置。藉由旋轉體39之旋轉(例如向圖中以箭頭R所示之方向旋轉)，葉片與自網帶46剝離而搬送之第1網狀物W1碰撞將其分斷而細分化。另，旋轉體39設置於旋轉體39之葉片不與網帶36碰撞之位置。例如，可將旋轉體39之葉片之前端與網帶36之間隔設為0.05 mm以上且0.5 mm以下，於該情形時，可藉由旋轉體39不對網帶36造成損傷地有效地分斷第1網狀物W1。由旋轉體39分斷之第1網狀物W1通過管7供給至纖維處理部40。纖維處理部40為藉由進行將包含解纖纖維之第1網狀物W1收納至卡匣200(容器)之處理而將解纖纖維設為可搬形態的裝置。可對纖維處理部40應用例如藉由空氣吹入法將解纖纖維填充至卡匣200內之填充裝置、或藉由螺旋桿等傳送帶將解纖纖維壓入(填充)至卡匣200內之壓入裝置。如此，第1裝置100A構成為一體具備以下之裝置：粗碎裝置，其將包含纖維之原料即廢紙粗碎；解纖裝置，其將粗碎物解纖；及纖維處理裝置，其將解纖纖維收納於卡匣200。以下，為了說明之方便起見，於功能性表述第1裝置100A之情形時，適當地表述為「粗碎、解纖裝置」。卡匣200為不使填充至內部之解纖纖維向外流出而可保持之容器，且易於使用者搬運。該卡匣200可為具有剛性之金屬製容器或樹脂製容器，亦可為具有柔軟性之袋體等容器。纖維處理部40具有排出部42，其具有自外部自由取出地排出收納解纖纖維之卡匣200。藉此，使用者可容易地取出卡匣200並搬運至第2裝置100B。另，使用者係利用片材製造系統1的人，亦可為僅使用該片材製造系統1之功能之一部分的人。例如，使用者為待在第1裝置100A之設置場所的人(後述之在辦公室上班的人等)、進行片材製造系統1之操作、保養、管理等的人、進行廢紙之安裝或解纖纖維之搬運之作業員等。於本構成中，由於將解纖纖維收納於卡匣200，故可一面防止解纖纖維之飛散，且邊抑制異物混入，邊搬送解纖纖維。又，可藉由設定將解纖纖維收納(填充)至卡匣200時之壓力或負壓，而容易地提高解纖纖維向卡匣200之填充率。該情形之壓力於第2裝置100B中設定為不會對片材製造產生阻礙之程度之值，例如設定為可藉由後述之纖維供給部45取出解纖纖維之值。纖維處理部40可為使用真空包裝之技術將解纖纖維收納(填充)至袋體之裝置(真空包裝裝置)。於真空包裝之情形時，可進一步提高解纖纖維之填充率。另，纖維處理部40不限定於將解纖纖維收納於卡匣200或袋體等容器之裝置，亦可為將解纖纖維處理至具有形狀保持性之狀態之裝置。具體而言，可對纖維處理部40應用藉由輥等將解纖纖維壓縮加工成板形狀之壓縮加工裝置，亦可應用藉由模具等將解纖纖維壓縮成型為長方體形狀、或球形狀等預定立體形狀的壓縮成型裝置。於將解纖纖維加固為板形狀之情形時，易於堆疊而易於一起移動。又，藉由將解纖纖維加固為長方形狀、球形狀等預定立體形狀，而易於放入箱等收納盒，藉此亦易於一起移動。於該情形時，藉由設為易於使用者以手固持之形狀、及大小，而易於解纖纖維之搬運、及向第2裝置100B之供給口46之供給作業等。於不使用卡匣200時，相應地，無須卡匣200相關之構成，而易於將構成簡單化。另，只要將解纖纖維加固為具有形狀保持性之程度即可，而不限定於將全體加固成同樣之方法，可僅加固一部分(例如僅外周部)，亦可為了便於加固而賦予水分。於第2裝置100B中，纖維供給部45具有被供給可搬形態之解纖纖維之供給口46。於將解纖纖維收納於卡匣200之情形時，供給口46構成為自由裝卸卡匣200。纖維供給部45自安裝於供給口46之卡匣200取出可搬形態之解纖纖維並排出至管8。可對該纖維供給部45應用例如藉由送風或吸引使卡匣200內之解纖纖維排出之裝置，或掏出卡匣200內之解纖纖維之裝置。又，亦可對纖維供給部45應用使卡匣200之下部開放，並利用重力取出解纖纖維之裝置。纖維供給部45較佳具有為了易於以添加物混合部50混合添加物而將可搬形態之解纖纖維細分化之構成。例如，纖維供給部45於掏出卡匣200內之解纖纖維之情形時，較佳藉由掏出將解纖纖維分斷而細分化。又，纖維供給部45於藉由送風或吸引而排出卡匣200內之解纖纖維之情形時，亦可藉由氣流將解纖纖維細分化。又，於不使用卡匣200，而由纖維處理部40進行將解纖纖維加固為具有形狀保持性之程度之上述處理之情形時，經加固之解纖纖維(可搬形態之解纖纖維)被投入至供給口46。於該情形時，纖維供給部45可於將加固之解纖纖維解開後，藉由例如利用送風或吸引、或掏出所投入之解纖纖維、或進行皮帶搬送、或利用重力而將解纖纖維排出至管8。排出至管8之解纖纖維供給至添加物混合部50。添加物混合部50具備：添加物供給部52，其供給包含樹脂之添加物；及混合鼓風機56，其使管8內產生使自纖維供給部45排出之解纖纖維於添加物混合部50中流動之氣流。於添加物混合部50中，藉由混合鼓風機56產生氣流，而於與管8及混合鼓風機56之下游相連之管9中，一面將解纖纖維與添加物混合一面搬送。又，解纖纖維於管8、9中流動之過程中進一步被解開，而成更細之纖維狀。添加物供給部52(樹脂收納部)連接於蓄積添加物之添加物卡匣(省略圖示)，並將添加物卡匣內部之添加物供給至管8。添加物卡匣可為能與添加物供給部52自由裝卸之構成。又，可具備將添加物補充至添加物卡匣之構成。添加物供給部52為例如暫時儲存添加物卡匣內部之包含微粉或微粒子之添加物，並使用螺旋送料器等將儲存之添加物供給至管8的裝置。添加物供給部52所供給之添加物包含用以使複數條纖維黏合之黏合劑等之樹脂。包含於添加物之樹脂為熱塑性樹脂或熱硬化性樹脂，例如AS樹脂、ABS樹脂、聚丙烯、聚乙烯、聚氯乙烯、聚苯乙烯、丙烯酸樹脂、聚酯樹脂、聚對苯二甲酸乙二酯、聚苯醚、聚對苯二甲酸丁二酯、尼龍、聚醯胺、聚碳酸酯、聚縮醛、聚苯硫醚、聚醚醚酮等。該等樹脂可單獨或適當混合使用。即，添加物可包含單一之物質，亦可為混合物，亦可包含由各種單一或複數種物質構成之複數種粒子。又，添加物可為纖維狀，亦可為粉末狀。添加物所包含之樹脂藉由加熱熔融而使複數條纖維彼此黏著。因此，於使樹脂與纖維混合之狀態，且於未將樹脂加熱至熔融之溫度之狀態下，纖維彼此不黏著。又，添加物供給部52所供給之添加物係除了黏合劑以外，可根據製造之片材種類，包含用以將纖維著色之著色劑、或用以抑制纖維凝聚或樹脂凝聚之凝聚抑制劑、用以使纖維等難以燃燒之阻燃劑。又，不包含著色劑之添加物可為無色、或看似無色程度之較淺顏色，亦可為白色。另，使解纖纖維與添加物混合之機構無特別限定，可為藉由高速旋轉之葉片攪拌者，亦可為如V型混合器般利用容器之旋轉者，亦可將該等機構設置於混合鼓風機56之前方或後方。堆積部60使由解纖部20解纖之解纖物堆積。更具體而言，堆積部60自導入口62導入已通過添加物混合部50之混合物，解開纏結之解纖物(解纖纖維)，使其一面於空氣中分散一面降下。再者，堆積部60於自添加物供給部52供給之添加物之樹脂為纖維狀之情形時，解開纏結之樹脂。藉此，堆積部60可使混合物均勻性良好地堆積於片材形成部70。堆積部60具有轉筒部61(轉筒)、及收納轉筒部61之外殼部63(覆蓋部)。轉筒部61為藉由馬達而旋轉驅動之圓筒篩。轉筒部61具有網(過濾網、絲網)，且作為篩(sieve)發揮功能。藉由該網眼，轉筒部61使小於網眼開度(開口)之纖維或粒子通過，並自轉筒部61降下。轉筒部61之構成例如與轉筒部31之構成相同。另，轉筒部61之「篩」亦可不具有分選特定對象物之功能。即，作為轉筒部61使用之「篩」意指具備網者，轉筒部61亦可使導入至轉筒部61之全部混合物降下。片材形成部70具有：第2網狀物形成部71、加壓部82、及加熱部84。第2網狀物形成部71配置於轉筒部61之下方，且堆積已通過堆積部60之通過物，而形成第2網狀物W2(堆積物)。第2網狀物形成部71具有：網帶72(皮帶)、輥74、及抽吸機構76。網帶72為環形狀之皮帶，懸掛於複數根輥74，並藉由輥74之轉動而向圖中箭頭所示之方向搬送。網帶72為例如金屬製、樹脂製、布製、或不織布等。網帶72之表面由排列特定尺寸之開口之網構成。自轉筒部61降下之纖維或粒子中之通過網眼之尺寸之微粒子落下至網帶72之下方，無法通過網眼之尺寸之纖維堆積於網帶72，並與網帶72一同向箭頭方向搬送。網帶72於製造片材之動作中以特定速度V2移動。網帶72之網眼較細微，可設為不使自轉筒部61降下之纖維或粒子的大部分通過之尺寸。抽吸機構76設置於網帶72之下方(堆積部60側之相反側)。抽吸機構76可藉由抽吸鼓風機(省略圖示)之吸引力，產生向下方之氣流(自堆積部60向網帶72之氣流)。藉由抽吸機構76，可將藉由堆積部60而分散至空氣中之混合物吸引至網帶72上。藉此，可促進網帶72上之第2網狀物W2之形成，且加快自堆積部60之排出速度。再者，藉由抽吸機構76，可於混合物之落下路徑形成下向流，可防止解纖物或添加物於落下中纏結。如以上所示，藉由經由堆積部60及第2網狀物形成部71(網狀物形成步驟)，而形成含有較多空氣且柔軟膨鬆狀態之第2網狀物W2。堆積於網帶72之第2網狀物W2向片材形成部70搬送。於網帶72之搬送路徑中，於堆積部60之下游側，藉由加濕部78供給包含霧之空氣。藉此，將加濕部78產生之霧供給至第2網狀物W2，而調整第2網狀物W2所包含之水分量。藉此，可抑制因靜電所致之纖維向網帶72之吸附等。片材形成部70將堆積於網帶72且藉由搬送部79搬送之第2網狀物W2藉由加壓部82及加熱部84加壓加熱而成形為片材S。藉由對第2網狀物W2包含之解纖物之纖維、及添加物施加熱，而使混合物中之複數條纖維彼此經由添加物(樹脂)而黏著。加壓部82由一對壓輥85構成，且以特定之夾持壓夾著第2網狀物W2並加壓。第2網狀物W2其厚度因加壓而變小，使得第2網狀物W2之密度提高。一對壓輥85之一者為藉由加壓部驅動馬達(省略圖示)驅動之驅動輥，另一者為從動輥。壓輥85將藉由加壓而成為高密度之第2網狀物W2向加熱部84搬送。加熱部84可使用例如加熱輥(加熱器輥)、熱壓成形機、加熱板、暖風鼓風機、紅外線加熱器、閃光定著器而構成。於本實施形態中，加熱部84具備一對加熱輥86。加熱輥86藉由設置於內部或外部之加熱器，而被加熱至預先設定之溫度。加熱輥86夾住經壓輥85加壓之第2網狀物W2並賦予熱，而形成圖1中以符號S所示之片材。如此，堆積部60中形成之第2網狀物W2於片材形成部70中被加壓及加熱，而成為片材S。一對加熱輥86之一者係藉由加熱部驅動馬達(省略圖示)驅動之驅動輥，另一者係從動輥。加熱輥86將加熱後之片材S向切斷部90搬送。另，加壓部82所具備之壓輥85之數量、及加熱部84所具備之加熱輥86之數量無特別限定。切斷部90(切割刀部)切斷由片材形成部70成形之片材S。於本實施形態中，切斷部90具有：第1切斷部92，其於與圖中以符號F所示之片材S之搬送方向交叉之方向切斷片材S；及第2切斷部94，其於與搬送方向F平行之方向切斷片材S。第2切斷部94切斷例如已通過第1切斷部92之片材S。藉由切斷部90，成形A4尺寸等特定尺寸之單片片材S。切斷之單片片材S被排出至排出部96。排出部96具備排出特定尺寸之片材S之排紙托盤、或蓄積片材S之堆疊部。如此，第2裝置100B構成為一體具備以下之裝置：纖維供給裝置，其供給卡匣200內之解纖纖維，即供給可搬形態之解纖纖維；及片材製造裝置(片材製造部)，其利用解纖纖維製造片材S。以下，為了說明之方便起見，於功能性表述第2裝置100B之情形時，適當地表述為「片材製造裝置」。圖2係顯示片材製造系統1之包含控制系統之構成之方塊圖。第1裝置100A具有：控制裝置101A、操作部102A、顯示部103A及剩餘量感測器104A，且可在控制裝置101A之控制下獨立地動作。控制裝置101A為由主處理器、ROM(Read Only Memory：唯讀記憶體)及RAM(Random Access Memory：隨機存取記憶體)等構成之電腦系統。控制裝置101A藉由主處理器執行記憶於ROM之基本控制程式而控制第1裝置100A之各部(供給部10、粗碎部12、解纖部20、分選部30、及壓入部40)。操作部102A對第1裝置100A輸入各種指示。操作部103A具有例如操作開關或觸控面板。控制裝置101A於將第1裝置100A之電源設為接通而執行啟動順序後，可控制第1裝置100A之各部。於該情形時，控制裝置101A可經由操作部102A受理第1網狀物W1(解纖纖維)之製造開始指示、製造條件(第1網狀物W1之製造量等)、製造開始時日(排程)等之輸入。接著，控制裝置101A於被輸入製造指示時，或到預先設定之製造開始時日時，使第1裝置100A之各部動作。藉此，可將廢紙粗碎並解纖而製造第1網狀物W1，並排出填充有第1網狀物W1之卡匣200。顯示部103A在控制裝置101A之控制下，顯示第1裝置100A相關之各種資訊。顯示部103A例如為液晶顯示裝置。剩餘量感測器104A檢測第1裝置100A內之原料(廢紙)之剩餘量，並將檢測結果輸出至控制裝置101A。該剩餘量感測器104A不限定於一個，而可為複數個。本構成之剩餘量感測器104A至少具備檢測供給部10之廢紙剩餘量之感測器。控制裝置101A於由剩餘量感測器104A檢測出殘存於供給部10之廢紙(原料)之剩餘量低於設定值時，進行報知廢紙不足之報知處理。報知處理為於顯示部103A之顯示或利用未圖示之聲音輸出單元之聲音輸出等。另，於該第1裝置100A經由通信網路與外部裝置(例如使用者操作之PC(Personal Computer：個人電腦))連接之情形時，可向外部裝置通知廢紙不足(向供給部10補充廢紙)。又，可進而具有檢測粗碎部12之粗碎物剩餘量之剩餘量感測器。於該情形時，控制裝置101A於由該剩餘量感測器104A檢測出粗碎物之剩餘量低於設定值時，可自供給部10將廢紙供給至粗碎部12，並由粗碎部12予以粗碎。藉由始終確保粗碎物，可於第1網狀物W1之製造開始時，立即將粗碎物供給至解纖部20，而可迅速地製造第1網狀物W1。又，控制裝置101A將第1裝置100A之動作歷程記錄於未圖示之記憶體，且基於該動作歷程進行測量表示纖維處理量之廢紙處理量之測量處理。動作歷程為例如將供給部10之廢紙供給量(供給張數)、與供給之時日建立對應之資訊。又，於本構成中，控制裝置101A基於動作歷程計數供給部10之廢紙供給量(供給張數)，並將該計數值作為廢紙處理量記錄於記憶體(省略圖示)。測量處理不限定於該方法，可廣泛地應用能測量廢紙處理量之方法。例如，可利用測量流量、重量或距離等之感測器，測量由解纖部20解纖之解纖纖維之量、由粗碎部12粗碎之粗碎物之量、第1網狀物W1之製造量、或填充至卡匣200之纖維量，並將測量結果作為廢紙處理量。又，可計數第1裝置100A排出之卡匣200之件數(次數)，並將計數結果作為廢紙處理量。控制裝置101A可藉由將廢紙處理量顯示於顯示部103A而向使用者等通知廢紙處理量。如圖2所示，第2裝置100B亦與第1裝置100A同樣，具有控制裝置101B、操作部102B、顯示部103B及剩餘量感測器104B，且可在控制裝置101B之控制下獨立動作。控制裝置101B為由主處理器、ROM及RAM等構成之電腦系統。控制裝置101B藉由主處理器執行記憶於ROM之基本控制程式而控制第2裝置100B之各部(纖維供給部45、添加物混合部50、堆積部60、片材形成部70、及切斷部90)。操作部102B對第2裝置100B輸入各種指示。操作部103B具有例如操作開關或觸控面板。控制裝置101B於將第2裝置100B之電源設為接通而執行啟動順序後，可控制第2裝置100B之各部。於該情形時，控制裝置101B可經由操作部102B受理片材S之製造開始指示、製造條件(片材S之密度(基重)、形狀(尺寸、厚度)、顏色、製造量(製造張數)等)、製造開始時日(排程)等之輸入。接著，控制裝置101B於輸入製造指示時，或到預先設定之製造開始時日時，使第2裝置100B之各部動作。藉此，製造片材S。此處，控制裝置101B例如藉由進行片材形成部70之網帶72之速度V2之調整、及自轉筒部61降下之纖維量之調整之至少任一者而控制片材S之密度。又，控制裝置101B藉由控制由添加物供給部52(圖1)添加之著色劑之種類及量而控制片材S之顏色。又，控制裝置101B藉由切斷部90控制片材S之尺寸，藉由加壓部82控制片材S之厚度。藉此，製造對應於預先設定之製造條件之片材S。顯示部103B在控制裝置之控制下，顯示第2裝置100B相關之各種資訊。顯示部103B例如為液晶顯示裝置。剩餘量感測器104B檢測第2裝置100B內之原料剩餘量、及/或製造之片材S之剩餘量，並將檢測結果輸出至控制裝置101B。本構成之剩餘量感測器104B至少具備檢測安裝於纖維供給部45之卡匣200內之第1網狀物W1(解纖纖維)之剩餘量(以下稱為卡匣200之剩餘量)的剩餘量感測器。控制裝置101B於由剩餘量感測器104B檢測出卡匣200之剩餘量低於設定值時，進行報知卡匣200之剩餘量不足之報知處理。報知處理為於顯示部103B之顯示或利用未圖示之聲音輸出單元之聲音輸出等。另，於該第2裝置100B經由通信網路與外部裝置連接之情形時，可向外部裝置通知纖維(原料)不足(更換卡匣200)。又，可進而具有檢測殘存於排出部96之片材S之剩餘量的剩餘量感測器。於該情形時，控制裝置101B於由該剩餘量感測器檢測出殘存於排出部96之片材S之剩餘量低於設定值時，可進行報知片材S不足之報知處理。該報知處理與上述同樣可為顯示、聲音輸出或向外部裝置通知之任一者。又，控制裝置101B將第2裝置100B之動作歷程記錄於未圖示之記憶體，且基於該動作歷程進行測量表示纖維處理量之片材製造量之測量處理。動作歷程為例如將片材S之製造張數與製造之時日建立對應之資訊。又，於本構成中，控制裝置101B基於動作歷程計數片材S之製造量(製造張數)，並將該計數值作為片材製造量記錄於記憶體(省略圖示)。控制裝置101B可藉由將片材製造量顯示於顯示部103A而向使用者等通知片材製造量。另，可代替測量片材S之製造張數之方法，而測量自卡匣200內取出之纖維量、或第2網狀物W2之製造量。如上所述，由於第1裝置100A及第2裝置100B可各自獨立動作，故無須配置於同一場所。又，第1裝置100A及第2裝置100B由無須大規模之水設備之乾式構成。藉此，與由將包含纖維之原料投入水中，進行纖維解離而再造之濕式(濕式造紙法等)構成之情形相比，可無須水相關之設備，或簡單化，且配置場所之自由度提高。例如，可將片材製造裝置即第2裝置100B配置於需要片材S之辦公室，將粗碎、解纖裝置即第1裝置100A配置於後場(參照圖2)。將該配置表述為配置樣式A。辦公室為主要進行事務作業之區域，後場為不以事務作業為主之區域，例如倉庫、作業場。辦公室為可將片材S作為印刷媒體使用之印刷裝置存在相對較多等之需要片材S之機械存在相對較多的區域。於配置樣式A之情形時，使用者將辦公室等產生之廢紙帶入後場，並安裝於第1裝置100A之供給部10。接著，使用者藉由使第1裝置100A作動將廢紙粗碎及解纖而製造第1網狀物W1，並將填充有第1網狀物W1之卡匣200排出。例如，使用者將處理對象之機密文件(以下稱為機密紙)安裝於第1裝置100A，並藉由使裝置100A作動而設為無法立即讀取機密紙。如此，使用者於後場處理廢紙，並調度成為片材S之原料之解纖纖維。又，可避免於辦公室產生伴隨粗碎及解纖之振動或噪音之事況。接著，使用者攜帶卡匣200而移動至辦公室，並將卡匣200安裝於第2裝置100B之纖維供給部45。接著，使用者可藉由使第2裝置100B作動以卡匣200內之第1網狀物W1為原料而製造片材S。隨後，使用者可藉由將製造之片材S安裝於辦公室之印刷裝置(省略圖示)而開始對該片材S之印刷。即，可按需要製造印刷所需之片材S。另，於第2裝置100B之排出部96有已製造完成之片材S之情形時，若將該片材S安裝於印刷裝置，則不會產生直至製造出片材S之等待時間，而使用者可利用片材S進行印刷。藉此，可回收辦公室等產生之廢紙，且處理機密紙。於配置樣式A中，由於將片材製造裝置即第2裝置100B配置於利用片材S之區域即辦公室，故易於使用者利用片材S。又，由於將進行粗碎及解纖之第1裝置100A配置於後場，故與將第1裝置100A配置於辦公室之情形相比，伴隨粗碎及解纖之振動或噪音不會成為問題。又，由於使機密紙等廢紙僅於辦公室與後場之間移動，故與倚賴於外部回收業者處理廢紙之情形相比，有利於防止機密洩露。因此，配置樣式A可一面於辦公室內調度所製造之片材S，一面避免辦公室中產生伴隨粗碎及解纖之振動或噪音之事況。另，作為片材製造系統1之配置場所之後場亦可為辦公室之一部分。例如，可廣泛地應用印刷裝置相對較少或印刷裝置不存在之區域、或利用片材S者相對較少之區域。例如，於將構成建築物之一室之辦公室空間劃分為複數個區域之情形時，將第1裝置100A配置於各區域中之片材S之需求相對較高之區域，將第2裝置100B配置於片材S之需求相對較低之區域。又，不限定於配置樣式A，亦可為配置樣式A以外之配置。圖3係顯示複數種配置樣式例之圖。圖3所示之配置樣式B將第1裝置100A與第2裝置100B配置於辦公室。於該情形時，使用者藉由配置於辦公室之第1裝置100A將機密紙等廢紙粗碎及解纖。因此，不會將機密紙帶出辦公室而可設為無法讀取，而有利於防止機密之洩漏。再者，於使用者需要片材S之情形時，可無須自辦公室移動，而藉由第2裝置100B按需求製造片材S。例如，使用者保管自第1裝置100A排出之卡匣200，一旦第2裝置100B之原料即解纖纖維不足時，便將保管之卡匣200安裝於第2裝置100B。藉此，僅於辦公室內即可完成廢紙之回收。又，由於第1裝置100A與第2裝置100B各自獨立動作，故可將各裝置100A、100B配置於辦公室內不同之場所。例如，可實現於辦公室內將第1裝置100A配置於遠離使用者之場所，將第2裝置100B配置於靠近使用者或印刷裝置之場所等之配置。於該情形時，第1裝置100A之振動及噪音不易對使用者造成影響，又，使用者可自附近之第2裝置100B調度片材S。如此，配置樣式B有利於一面優先防止機密之洩漏，一面可於辦公室調度所製造之片材S之情形。另，配置樣式B之配置較適於將噪音及振動降低至可於辦公室內使用第1裝置100A之程度之情形，或於辦公室內振動或噪音不易成為問題之場所之情形等。圖3所示之配置樣式C係將第1裝置100A配置於辦公室，將第2裝置100B配置於後場。於該情形時，與配置樣式B同樣，使用者不會將機密紙帶出辦公室而可設為無法讀取，而有利於防止機密之洩漏。又，裝有藉由第1裝置100A獲得之解纖纖維之卡匣200由使用者搬入後場。且，使用者於製造片材S之情形時移動至後場，並調度裝有解纖纖維之卡匣200。接著，使用者可藉由將解纖纖維安裝於後場所配置之第2裝置100B，並使第2裝置100B作動而製造片材S。如此，配置樣式C較適於一面優先防止機密之洩漏，一面抑制辦公室之空間減少、或有效利用後場之情形等。如以上說明般，片材製造系統1具備：解纖部20；纖維處理部40，其將由解纖部20解纖之解纖纖維設為可搬形態；及第2裝置100B(片材製造部)，其利用可搬形態之解纖纖維製造片材S。由於將解纖之解纖纖維設為可搬形態，故可將第2裝置100B、與解纖部20及纖維處理部40分離。因此，可易於將第2裝置100B、及/或解纖部20等配置於產生成為原料之廢紙且有需要製造之片材之辦公室等。例如，於解纖之振動或噪音大至會於辦公室中成為問題之程度之情形時，可藉由僅將第2裝置100B配置於辦公室，而使得辦公室中不產生解纖之振動或噪音。又，於解纖之振動或噪音相對較小之情形時，可採取將第2裝置100B配置於辦公室，且將解纖部20配置於辦公室中之振動或噪音不易成為問題之場所的對策。又，由於纖維處理部40將解纖纖維收納於卡匣200或袋體等容器，故可使解纖纖維之處理變得容易，而易於搬運解纖纖維。又，於纖維處理部40將解纖纖維處理為具有形狀保持性之狀態之情形時，無須卡匣200等容器，故易於將裝置構成簡單化。於該情形時，可藉由將解纖纖維處理成板形狀、長方體形狀、球形狀之任一狀態而期待易於一起移動解纖纖維等效果。另，於將解纖纖維收納於卡匣200或袋體等容器之情形時，亦可將解纖纖維處理成板形狀、長方體形狀、球形狀之任一狀態。於該情形時，可期待易於放入卡匣200等效果。又，容器之形狀可為板形狀、長方體形狀、球形狀之任一狀態。又，於纖維處理部40藉由將解纖纖維真空包裝而設為可搬形態之情形時，可效率良好地提高解纖纖維之填充率，且易於解纖纖維之處理。此處，由於解纖部20為乾式，故無須具備用於解纖之給排水設備。又，由於不使用水分，故與解纖部為濕式之情形相比，將解纖纖維收納於卡匣200等容器、或真空包裝之製程較為容易。另，將解纖纖維設為可搬形態之態樣不限定於上述形態。例如，可藉由於解纖纖維包含用以使纖維黏合之黏合劑後供給至纖維處理部40，而使可搬形態之解纖纖維包含黏合劑。藉此，無須對第2裝置100B準備黏合劑。又，可使可搬形態之解纖纖維包含黏合劑以外之材料，例如著色劑、凝聚抑制劑、阻燃劑等。例如，可將添加物供給部52之一部分或全部之構成設置於纖維處理部40之上游側(即，第1裝置100A)。又，由於片材製造系統1由具有解纖部20之第1裝置100A、與製造片材S之第2裝置100B構成，故可將第2裝置100B配置於辦公室等，且將第1裝置100A配置於解纖之振動或噪音不會成為問題之場所。且，由於第1裝置100A與第2裝置100B可分別獨立動作，故可提高該等之配置及運轉之自由度，並按需求製造片材。 (第2實施形態) 圖4係顯示第2實施形態之片材製造系統1之包含控制系統之構成的方塊圖。第2實施形態替代第1實施形態之第1裝置100A而具有：具有解纖部20之第1裝置110A、與具有粗碎部12之第3裝置110C。另，對與第1實施形態同樣之部位附註同一符號顯示而省略說明，且詳細敍述不同之部分。第3裝置110C具備：供給部10、粗碎部12及粗碎物處理部40A。粗碎物處理部40A將由粗碎部12粗碎之粗碎物填充至卡匣210(容器)，並排出至排出部42A。粗碎物處理部40A及排出部42A為與上述纖維處理部40及排出部42大致同樣之構成。以下，為了說明之方便起見，於功能性表述第3裝置110C之情形時適當地表述為「粗碎裝置」。又，第3裝置110C具有：控制裝置111C、操作部112C、顯示部113C及剩餘量感測器114C，且可在控制裝置111A之控制下獨立動作。控制裝置111C為由主處理器、ROM及RAM等構成之電腦系統。控制裝置111C藉由主處理器執行記憶於ROM之基本控制程式而控制第3裝置110C之各部(供給部10、粗碎部12、粗碎物處理部40A)。操作部112C對第3裝置110C輸入各種指示。控制裝置111C於將第3裝置110C之電源設為接通而執行啟動順序後，可控制第3裝置110C之各部。於該情形時，控制裝置111C可經由操作部112C受理粗碎物之製造開始指示、製造條件(粗碎物之製造量等)、製造開始時日(排程)等之輸入。接著，控制裝置111C於被輸入製造指示時，或到預先設定之製造開始時日時，使第3裝置110C之各部動作，藉此將廢紙粗碎並排出填充有粗碎物之卡匣210。顯示部113C在控制裝置111C之控制下，顯示第3裝置110C相關之各種資訊。剩餘量感測器114C檢測第3裝置110C內之原料(廢紙)之剩餘量，並將檢測結果輸出至控制裝置。該剩餘量感測器114C不限定於一個，而可為複數個。本構成之剩餘量感測器114C至少具備檢測供給部10之廢紙剩餘量之感測器。控制裝置111C於由剩餘量感測器114C檢測出殘存於供給部10之廢紙之剩餘量低於設定值時，進行報知廢紙不足之報知處理。報知處理為於顯示部113C之顯示或利用未圖示之聲音輸出單元之聲音輸出等。另，於該第3裝置110C經由通信網路與外部裝置(例如使用者操作之PC)連接之情形時，可向外部裝置通知廢紙不足(向供給部10補充廢紙)。又，控制裝置111C將第3裝置110C之動作歷程記錄於未圖示之記憶體，且基於該動作歷程進行測量表示纖維處理量之廢紙處理量之測量處理。動作歷程為例如將供給部10之廢紙供給量(供給張數)與供給之時日建立對應之資訊。又，於本構成中，控制裝置111A基於動作歷程計數供給部10之廢紙供給量(供給張數)，並將該計數值作為廢紙處理量記錄於記憶體(省略圖示)。另，測量處理不限定於該方法，可廣泛地應用能測量廢紙處理量之方法。控制裝置111C可藉由將廢紙處理量顯示於顯示部113C而向使用者等通知廢紙處理量。第1裝置110A具備：粗碎物供給部45A、解纖部20、分選部30、及纖維處理部40。粗碎物供給部45A具有自由裝卸卡匣210之供給口46A，且自安裝於供給口46A之卡匣210取出粗碎物，並供給至解纖部20。解纖部20、分選部30、及纖維處理部40與第1實施形態之第1裝置100A相同。以下，為了說明之方便起見，於功能性表述第1裝置110A之情形時適當地表述為「解纖裝置」。又，第1裝置110A具有：控制裝置111A、操作部112A、顯示部113A及剩餘量感測器114A，且可在控制裝置111A之控制下獨立動作。控制裝置111A為由主處理器、ROM及RAM等構成之電腦系統。控制裝置111A藉由主處理器執行記憶於ROM之基本控制程式而控制第1裝置110A之各部(粗碎物供給部45A、解纖部20、分選部30、纖維處理部40)。操作部112A對第1裝置110A輸入各種指示。控制裝置111A於將第1裝置110A之電源設為接通而執行啟動順序後，可控制第1裝置110A之各部。於該情形時，控制裝置111A可經由操作部112A受理第1網狀物W1(解纖纖維)之製造開始指示、製造條件(第1網狀物W1之製造量等)、製造開始時日(排程)等之輸入。接著，控制裝置111A於輸入製造指示時，或到預先設定之製造開始時日時，使第1裝置110A之各部動作，藉此將廢紙粗碎製造第1網狀物W1，並排出填充有第1網狀物W1之卡匣200。顯示部113A在控制裝置111A之控制下，顯示第1裝置110A相關之各種資訊。剩餘量感測器114A檢測第1裝置110A內之成為原料之纖維剩餘量，並將檢測結果輸出至控制裝置111A。該剩餘量感測器114A例如檢測安裝於粗碎物供給部45A之卡匣210內之粗碎物之剩餘量。控制裝置111A於由剩餘量感測器114A檢測出第1裝置110A內之粗碎物之剩餘量低於設定值之情形時，進行報知粗碎物不足(例如更換卡匣210)之報知處理。報知處理係於顯示部113A之顯示或利用未圖示之聲音輸出單元之聲音輸出等。另，於該第1裝置110A經由通信網路與外部裝置(例如使用者操作之PC)連接之情形時，可向外部裝置通知粗碎物不足。又，控制裝置111A將第1裝置110A之動作歷程記錄於未圖示之記憶體，且基於該動作歷程進行測量表示纖維處理量之廢紙處理量之測量處理。動作歷程為例如將由解纖部20解纖之解纖纖維之量、與解纖之時日建立對應之資訊。又，於本構成中，控制裝置111A基於動作歷程計數解纖纖維之量，並將該計數值作為廢紙處理量記錄於記憶體(省略圖示)。另，解纖纖維之量可利用測量流量、重量或距離等之感測器測量，又，可將第1網狀物W1之製造量、或填充至卡匣200之纖維之量作為解纖纖維之量(廢紙處理量)予以測量。控制裝置111A可藉由將廢紙處理量顯示於顯示部113A而向使用者等通知廢紙處理量。第2裝置100B與第1實施形態相同。於本實施形態中，由於構成片材製造系統1之第1裝置110A、第2裝置100B及第3裝置110C可各自獨立動作，故無須配置於同一場所。又，各裝置110A、100B及110C由無須大規模之水設備之乾式構成，故與以濕式構成之情形相比，可無須水相關之設備，或簡單化，且易於向辦公室等之設置。例如，將片材製造裝置即第2裝置100B配置於有片材S需求之辦公室，將粗碎裝置即第3裝置110C亦配置於產生粗碎對象之廢紙之辦公室。又，解纖裝置即第1裝置110A配置於後場(圖4)。將該配置表述為配置樣式D。於配置樣式D之情形時，使用者可藉由配置於辦公室之第3裝置110C將機密紙等廢紙粗碎。因此，不會將機密紙帶出辦公室而可設為無法讀取，而有利於防止機密之洩漏。又，藉由第3裝置110C獲得之粗碎物由使用者等搬入後場。藉此，使用者於後場調度裝有粗碎物之卡匣210，並可藉由配置於後場之第2裝置110B獲得裝有解纖纖維之卡匣200。於該情形時，由於於後場進行解纖，故避免於辦公室中產生伴隨解纖之振動或噪音之事況。接著，使用者可攜帶於後場獲得之裝有解纖纖維之卡匣200並移動至辦公室，並藉由配置於辦公室之第2裝置100B製造片材S。使用者可藉由將所製造之片材S安裝於辦公室之印刷裝置而立即開始向該片材S之印刷。於配置樣式D中，由於將機密紙等廢紙於辦公室內粗碎，而有利於防止機密之洩漏，且由於在辦公室製造片材S，故易於按需求製造片材S，而易於謀求片材S之印刷利用。又，由於於後場進行解纖，故可避免於辦公室中產生伴隨解纖之振動或噪音之事況。由於一般乾式解纖使用葉輪粉碎機等，故與進行粗碎之情形相比更易增大振動或噪音。於配置樣式D中，可一面避免因解纖時之振動或噪音對辦公室之影響，一面提高辦公室之使用者之便利性。圖5係顯示複數種配置樣式例之圖。圖5所示之配置樣式A'與由2台裝置100A、100B構成片材製造系統1時之配置樣式A類似。即，將片材製造裝置即第2裝置100B配置於辦公室，將進行粗碎及解纖之第3裝置110C及第1裝置110A配置於後場。根據該配置樣式A'，除了以配置樣式A獲得之效果以外，由於配置於後場之裝置為2台，故後場中之配置及運轉之自由度提高。又，由於第3裝置110C與第1裝置110A相比更容易啟動、停止，故可立即粗碎機密紙等。因此，有利於防止機密之洩漏。又，圖5所示之配置樣式E將粗碎裝置即第3裝置110C配置於產生粗碎對象之廢紙的辦公室，將解纖裝置即第1裝置110A及片材製造裝置即第2裝置100B配置於後場。於配置樣式E之情形時，使用者可藉由配置於辦公室之第3裝置110C將機密紙等廢紙粗碎，而有利於防止機密之洩漏。又，藉由第3裝置110C獲得之粗碎物由使用者等搬入後場。使用者可於後場調度粗碎物，並藉由配置於後場之第2裝置110B獲得成為片材S的原料之解纖纖維。由於後場亦配置有片材製造裝置即第2裝置100B，故將解纖纖維容易地安裝於第2裝置100B而可製造片材S。因此，使用者可容易地於後場調度片材S。配置樣式E有利於防止機密之洩漏，且於後場進行解纖及片材製造，故不會於辦公室產生伴隨解纖之振動或噪音。又，圖5所示之配置樣式C'，與由2台裝置100A、100B構成片材製造系統1時之配置樣式C類似。即，將粗碎裝置即第3裝置110C及第1裝置110A配置於辦公室，將片材製造裝置即第2裝置100B配置於後場。根據該配置樣式C'，除了以配置樣式C獲得之效果以外，由於配置於辦公室之裝置為2台，故辦公室中之配置及運轉之自由度提高。即，第3裝置110C可配置於辦公室之產生廢紙之場所，且第1裝置110A配置於辦公室中之震動或噪音之影響較少之場所。 (第3實施形態) 圖6係顯示第3實施形態之片材製造系統1之包含控制系統之構成之方塊圖。第3實施形態與第2實施形態之不同點在於：由一台裝置(以下為第4裝置)120A構成第2實施形態之第1裝置110A及第2裝置100B。另，對與上述各實施形態同樣之部位標註同一符號顯示而省略說明，且詳細敍述不同之部分。第4裝置120A具備：粗碎物供給部45A、解纖部20、分選部30、添加物混合部50、堆積部60、片材形成部70、及切斷部90。即，第4裝置120A作為進行解纖及片材製造之裝置發揮功能。以下，為了說明之方便起見，於功能性表述第4裝置120A之情形時，適當地表述為「解纖、片材製造裝置」。又，第4裝置120A具有：控制裝置121A、操作部122A、顯示部123A及剩餘量感測器124A，且可在控制裝置121A之控制下獨立動作。控制裝置121A為由主處理器、ROM及RAM等構成之電腦系統。控制裝置121A藉由主處理器執行記憶於ROM之基本控制程式而控制第4裝置120A之各部(粗碎物供給部45A、解纖部20、分選部30、添加物混合部50、堆積部60、片材形成部70、及切斷部90)。操作部122A對第4裝置120A輸入各種指示。控制裝置121A於將第4裝置120A之電源設為接通而執行啟動順序後，可控制第4裝置120A之各部。於該情形時，控制裝置121A可經由操作部122A受理片材S之製造開始指示、製造條件(片材S之密度(基重)、形狀(尺寸、厚度)、顏色、製造量(製造張數)等)、製造開始時日(排程)等之輸入。接著，控制裝置121A於輸入製造指示時，或到預先設定之製造開始時日時，使第4裝置120A之各部動作，藉此將卡匣210內之粗碎物解纖，並由解纖纖維製造對應於製造條件之片材S。顯示部123A在控制裝置121A之控制下，顯示第4裝置120A相關之各種資訊。剩餘量感測器124A檢測第4裝置120A內之原料、及/或製造之片材S之剩餘量，並將檢測結果輸出至控制裝置121A。本構成之剩餘量感測器124A例如檢測安裝於粗碎物供給部45A之卡匣210內之粗碎物之剩餘量。控制裝置121A於第4裝置120A內之粗碎物之剩餘量低於設定值之情形時，進行報知粗碎物不足(例如更換卡匣210)之報知處理。報知處理係於顯示部123A之顯示或利用未圖示之聲音輸出單元之聲音輸出等。另，於該第4裝置120A經由通信網路與其他裝置(例如使用者操作之PC)連接之情形時，可向其他裝置通知粗碎物不足。又，控制裝置121A將第4裝置120A之動作歷程記錄於未圖示之記憶體，且基於該動作歷程進行測量表示纖維處理量之片材製造量之測量處理。動作歷程為例如將片材S之製造張數與製造之時日建立對應之資訊。又，於本構成中，控制裝置121A基於動作歷程計數片材S之製造量(製造張數)，並將該計數值作為片材製造量記錄於記憶體(省略圖示)。控制裝置121A可藉由將片材製造量顯示於顯示部123A而向使用者等通知片材製造量。另，可替代測量片材S之製造張數之方法，而測量自卡匣210內取出之粗碎物之量、或第2網狀物W2之製造量。例如，將粗碎裝置即第3裝置110C配置於辦公室，將解纖、片材製造裝置即第4裝置120A配置於後場(參照圖6)。將該配置表述為配置樣式E'。配置樣式E'，與由3台裝置110C、110A、及100B構成片材製造系統1時之配置樣式E類似。於配置樣式E'之情形時，使用者可藉由配置於辦公室之第3裝置110C將機密紙等廢紙粗碎，而有利於防止機密之洩漏。又，藉由第3裝置110C產生之粗碎物由使用者等搬入後場。使用者可於後場調度粗碎物，並藉由配置於後場之第4裝置120A製造片材S。藉此，可獲得與配置樣式E同樣之效果，即，有利於防止機密之洩漏，且由於在後場進行解纖及片材製造，故可獲得不於辦公室產生伴隨解纖之振動或噪音的效果。 (第4實施形態) 圖7係顯示第4實施形態之片材製造系統1之概要構成的圖。第4實施形態可於複數個辦公室X1、X2、X3中製造片材S。以下，說明與第1實施形態不同之點。片材製造裝置即第2裝置100B配置於辦公室X1、X2、X3各者。又，粗碎、解纖裝置即第1裝置100A配置於後場。即，第4實施形態為對應於上述之配置樣式A之配置。於辦公室X1、X2、X3各者配置有用以於各辦公室回收廢紙之回收盒11，且配置有於各辦公室作為用以將廢紙細斷之碎紙機發揮功能之粗碎部12X。粗碎部12X為可單獨將廢紙粗碎之裝置，且應用例如與第1裝置100A內之粗碎部12同樣之構成。如圖7所示，於第1裝置100A，如圖7以箭頭所示，設置有被供給經回收至各辦公室X1、X2、X3之回收盒11的廢紙之供給口12K。供給口12K為用以將廢紙供給至粗碎部12之部分。即，各辦公室X1、X2、X3之使用者等可藉由將廢紙搬運至後場並投入供給口12K，且使第1裝置100A作動而獲得成為片材S之原料的解纖纖維。於各辦公室X1、X2、X3配置有可單獨動作之粗碎部12X，因而亦可於辦公室內將機密紙等廢紙粗碎，而有利於防止機密之洩漏。例如，機密性不高之廢紙可放入至辦公室之回收盒11而於後場粗碎，另一方面，機密性高之廢紙以辦公室內之粗碎部12X粗碎。又，於第1裝置100A，如圖7以箭頭所示，設置有被供給藉由各辦公室X1、X2、X3內之粗碎部12X粗碎之粗碎物的供給口20K。供給口20K為用以將粗碎物供給至解纖部20之部分。即，各辦公室X1、X2、X3之使用者等將辦公室內之粗碎物搬運至後場並投入供給口20K，且使第1裝置100A作動，藉此獲得解纖纖維。接著，可藉由將獲得之解纖纖維帶入各辦公室X1、X2、X3，並投入至配置於各辦公室X1、X2、X3之第2裝置100B，且使第2裝置100B動作而製造片材S。如此，可一面於各辦公室X1、X2、X3中製造片材S，一面使各辦公室X1、X2、X3之使用者共用粗碎、解纖裝置即第1裝置100A。因此，可一面獲得配置樣式A之效果一面減少第1裝置100A之台數。如上所述，於配置於各辦公室X1、X2、X3之第2裝置100B中，藉由控制裝置101B(圖2)測量片材製造量。可藉由使用者等確認該等片材製造量，而比較各辦公室X1、X2、X3之片材製造量。該比較結果成為提高第1裝置100A及第2裝置100B之配置之有效資訊。例如，易於採取對於片材製造量較少之辦公室停止第2裝置100B之配置、或將第2裝置100B移動至其他辦公室之對策。又，易於採取將第1裝置100A移動至靠近片材製造量較多之辦公室之位置等之對策。又，於各辦公室配置印刷裝置之情形時，可掌握各辦公室中之印刷量，而採取將第1裝置100A移動至靠近印刷量較多之辦公室之位置之對策。 (第5實施形態) 圖8係顯示第5實施形態之片材製造系統1之概要構成的圖。第5實施形態可於複數個辦公室X1、X2、X3中將片材S粗碎及解纖。以下，對與第1實施形態不同之點進行說明。粗碎、解纖裝置即第1裝置100A配置於辦公室X1、X2、X3各者。又，片材製造裝置即第2裝置100B配置於後場。即，第5實施形態為對應於上述之樣式C之配置。於辦公室X1、X2、X3各者配置有用以於各辦公室回收廢紙之回收盒11。又，於圖8顯示各辦公室X1～X3之使用者使用之PC(圖8中標註符號1X、2X、3X而顯示)、與於各辦公室X1～X3用以供使用者印刷之印刷裝置(圖8中標註符號1Y、2Y、3Y而顯示)。各PC1X、2X、3X與印刷裝置1Y、2Y、3Y可經由通信網路NW通信地連接。通信網路NW為有線或無線之通信網路，且可廣泛應用公知之通信網路。如圖8所示，由於各辦公室X1、X2、X3配置有粗碎、解纖裝置即第1裝置100A，故使用者可於辦公室內將機密紙等廢紙粗碎及解纖，而有利於防止機密之洩漏。又，由於各辦公室X1、X2、X3配置有回收盒11，故亦可將回收至回收盒11之廢紙藉由第1裝置100A於辦公室內粗碎及解纖。又，如圖8以箭頭所示，自第1裝置100A排出之卡匣200被搬運至後場，並安裝於後場所配置之第2裝置100B，而用於片材S之製造。接著，製造之片材S自後場搬運至各辦公室X1、X2、X3，並安裝於各辦公室X1、X2、X3之印刷裝置1Y、2Y、3Y。藉此，可根據來自各辦公室X1～X3之PC1X、2X、3X之印刷資料而印刷於片材S。如此，可一面於各辦公室X1、X2、X3中將廢紙粗碎及解纖，一面使各辦公室X1、X2、X3之使用者共用片材製造裝置即第2裝置100B。因此，可一面獲得配置樣式C之效果一面減少第2裝置100B之台數。如上所述，於配置於各辦公室X1、X2、X3之第1裝置100A中，藉由控制裝置101A測量表示粗碎及解纖之量之廢紙處理量。藉由使用者等確認該等片材製造量，而比較各辦公室X1、X2、X3之廢紙處理量。該比較結果為提高第1裝置100A之配置之有效資訊。例如，易於採取對於廢紙處理量較少之辦公室停止第1裝置100A之配置、或將第1裝置100A移動至其他辦公室之對策。又，亦可採取將第2裝置100B移動至靠近廢紙處理量較多之辦公室之位置等之對象。 (第6實施形態) 第6實施形態與第1實施形態之不同點在於使片材製造裝置即第2裝置100B具有對片材S進行印刷之印刷部1Z。圖9係顯示第6實施形態之第2裝置100B之包含控制系統之構成的方塊圖。於第2裝置100B設置有將排出至排出部96之片材S供給至印刷部1Z之片材供給機構(省略圖示)，且可藉由印刷部1Z對製造之片材S進行印刷。又，於第2裝置100B設置有用以經由通信網路NW與外部機器(於圖9之例中為PC1X、2X、3X等)通信之通信部105B。第2裝置100B之控制裝置101B藉由通信部105B自外部機器即PC1X、2X、3X等接收印刷資料。接著，於接收到印刷資料之情形時，控制裝置101B進行藉由印刷部1Z將對應於印刷資料之印刷圖像印刷於片材S之印刷控制。根據該構成，與配置獨立之印刷裝置之情形相比，機器之設置效率提高。此處，控制裝置101B於接收到印刷資料作為印刷開始指示之情形時，可以印刷開始指示為觸發而製造片材S。圖10係顯示以印刷開始指示為觸發製造片材S時之動作例之流程圖。控制裝置101B於接收到印刷資料(相當於印刷開始指示)時(步驟S1D：是(YES))，基於根據印刷資料而特定之印刷量，判定是否需要製造片材S(步驟S2D)。是否需要製造片材S係根據殘存於排出部96之片材S之剩餘量而判定。例如，控制裝置101B構成為可藉由剩餘量感測器104B檢測殘存於排出部96之片材S之剩餘量，且於該片材S之剩餘量為印刷量以上之情形時，判定為無須製造片材S(步驟S2D：否(NO))。於該情形時，控制裝置101B開始將殘存於排出部96之片材S給紙至印刷部1Z之控制(步驟S3D)。接著，控制裝置101B判定是否結束給紙(步驟S4D)。控制裝置101B於將印刷量之印刷對象之片材S供給至印刷部1Z時，判定為結束給紙(步驟S4D：是)，並停止給紙(步驟S5D)。於步驟S2D中，控制裝置101B於殘存於排出部96之片材S未達印刷量之情形(未滿足印刷量之情形)時，判定為需要製造片材S(步驟S2D：是)。另，於片材S之剩餘量為印刷量以上，但仍少於預先設定之設定剩餘量之情形時，亦可判定為需要製造片材S。於判定為需要製造片材S之情形(步驟S2D：是)時，控制裝置101B進行至步驟S6D之處理，並以不足之片材S作為製造對象之片材，特定出確保不足張數之目標製造量。目標製造量可與不足張數相同，亦可設定為多於不足張數之張數。接著，控制裝置101B開始製造對象之片材S之製造(步驟S7D)。控制裝置101B判定是否結束片材S之製造(步驟S8D)，於結束製造之情形時，使第2裝置100B之各部之動作停止(步驟S9D)。結束製造之情形為片材S之製造量達到目標製造量之情形等。接著，控制裝置101B開始將所製造之片材S經由排出部96給紙至印刷部1Z之控制(步驟S10D)。又，控制裝置101B判定是否結束片材S之給紙(步驟S11D)，且於結束給紙之情形時，停止給紙之控制(步驟S12D)。所謂結束給紙之情形係已將相當於印刷量之張數之片材S供給至印刷部1Z之情形。藉由以上，於印刷對象之片材S不足之情形時，可製造不足之片材S，並給紙至印刷部1Z。如此，由於可將印刷開始指示作為觸發而製造片材S，故可根據印刷開始指示按需求製造片材S。且，由於基於片材S之剩餘量判定是否製造片材S，故可根據片材S之剩餘量適當地自動補充片材S。又，由於片材製造裝置即第2裝置100B與印刷部1Z成一體，故可順利地進行片材S之製造、與對所製造之片材S的印刷。另，可一面製造片材S，一面並行地實施對片材S之印刷。於第6實施形態中，可設為使第2裝置100B以靜電式製造片材S之構成。圖11係顯示以靜電式製造片材S時之主要部分(以下，表述為片材製造部75)之模式圖。片材製造部75藉由將成為片材S之原料的含纖維材料靜電轉印至搬送帶401(被轉印體)，並進行調整表面性狀之後處理而製造片材S。該片材製造部75具有：供給部410，其供給含纖維材料；載持體420(第2載持體)，其載持經供給之含纖維材料；搬送帶401，其靜電轉印所載持之含纖維材料；及後處理部430，其進行後處理。於該片材製造部75中，將含纖維材料自載持體420靜電轉印至被轉印體(搬送帶401)。藉此，可防止附著於被轉印體(搬送帶401)之含纖維材料之附著量產生不均。即，將含纖維材料適當地附著於被轉印體(搬送帶401)。其結果，可穩定地製造厚度均一之由含纖維材料獲得之片材S。成為原料之含纖維材料由包含纖維素纖維、與被覆纖維素纖維之至少一部分之疏水性材料之複合體構成，且藉由利用後處理部430加壓加熱而形成片材S。纖維素纖維可為源自廢紙等纖維素製品者，亦可為源自原紙漿者，故可廣泛地應用包含纖維素之纖維。例如，可使用將廢紙解纖處理而獲得之纖維素纖維。疏水性材料使纖維素纖維彼此黏著而形成片材S。再者，疏水性材料被覆纖維素纖維，且使複合體之帶電特性穩定化。藉此，可藉由靜電塗佈較佳地形成片材S。對於疏水性材料，可使用例如熱塑性樹脂、或硬化性樹脂等。又，疏水性材料亦可包含用以獲得期望之帶電特性之帶電控制劑(電荷控制劑)、或用以調整片材S顏色之著色劑。如圖11所示，供給部410將儲存部412、攪拌機413(Agitator)、輥414、第1載持體415、及刮板416收納於外殼部411內。儲存部412儲存包含纖維素纖維與熱塑性樹脂之含纖維材料。攪拌機413於儲存部412內攪拌含纖維材料，並藉由攪拌時之摩擦使含纖維材料帶電。該含纖維材料藉由輥414之旋轉而供給至第1載持體415。第1載持體415與輥414之間具有電位差，且靜電附著有含纖維材料。刮板416調整附著於第1載持體415之含纖維材料之厚度(附著量)而調整(薄膜化)為特定厚度之片材狀，且藉由摩擦使含纖維材料帶電。載持體420與第1載持體415之間具有電位差，且靜電附著有含纖維材料。載持體420為旋轉之輥構件，且使載持於載持體420之含纖維材料轉印至搬送帶401。於載持體420之周圍，設置使載持體420之外周面421帶電之帶電部422、及調整外周面421電位之曝光部423。再者，於載持體420之周圍設置藉由與載持體420之間之電位差產生之靜電力而使含纖維材料轉印至搬送帶401的轉印部424。又，轉印部424將轉印至搬送帶401之含纖維材料於與載持體420之間加壓，而將含纖維材料之厚度調整為均一之厚度。搬送帶401由環形狀之皮帶構成，且藉由複數根輥402搬送。搬送帶401較佳由轉印含纖維材料之面具有中、高電阻(體積電阻率107～1011 Ω·cm)之樹脂構成。作為此種構成材料無特別限定，例如可使用於氟系樹脂混練入碳黑者。藉此，以電位差將含纖維材料之粉體轉印至搬送帶401，進而容易於搬送帶401上靜電保持。後處理部430具備：推平處理部431，其將轉印至搬送帶401之含纖維材料之表面平滑化；加壓處理部432，其加壓含纖維材料；半固化處理部433，其使含纖維材料之表面半固化；及固化部434，其使呈層狀之含纖維材料固化。推平處理部431係至少外周面具有金屬面之推平輥435，藉由推平輥435將含纖維材料之表面平滑化，且經由接地線436對含纖維材料進行除電。加壓處理部432藉由加壓輥437之加壓使含纖維材料彼此黏合，而使密度均一化。半固化處理部433具有由隔熱材構成之腔室438、及設置於腔室438內之加熱器439，且藉由加熱器439之加熱而使含纖維材料之表面半固化。固化部434具有固化輥440、及設置於固化輥440內之加熱器441，藉由對加熱器441通電而加熱固化輥440，且一面由固化輥440加熱含纖維材料，一面將含纖維材料向層厚減少之方向加壓。藉此，含纖維材料內之熱塑性樹脂熔融，且於熔融之熱塑性樹脂通過固化輥440後，例如自然冷卻而黏著並固化。如此，製造具有適當地固化之含纖維材料，即片材S。於後處理部430之下游設置有促進片材S自搬送帶401剝離的送風風扇(省略圖示)、及切斷部90(省略圖示)等。該片材製造部75由於無須網狀物形成等，故容易縮短片材S之製造時間。因此，於藉由圖10所示之控制等製造片材S之情形時，可於短時間內製造片材S。另，上述各實施形態係僅為申請專利範圍所記載之實施本發明之具體態樣，並非限定本發明者，亦非限定各實施形態中說明之構成之全部為本發明之必要構成要件。又，該發明並非限於各實施形態之構成者，可於不脫離其主旨之範圍內於各種態樣中實施。例如，於各實施形態中，說明了將本發明應用於乾式之片材製造系統1之情形，但並不限於此。例如可將本發明應用於以將包含纖維之原料投入水中，進行纖維解離而再造之所謂濕式(例如濕式造紙法)製造片材之片材製造系統。於濕式之情形時，例如，將粗碎物投入攪碎機(Pulper)以濕式解纖，且不將其造紙壓縮，而以乾燥之狀態收納(填充)至卡匣200。又，可取代收納於卡匣200之方法，由於解纖纖維包含水分，故藉由將解纖纖維進行使解纖纖維具有形狀保持性之程度之擠壓處理等，亦可容易地將解纖纖維設為可搬形態。於該情形時，易於將解纖纖維處理成具有形狀保持性之狀態。又，片材製造系統1亦可構成為製造由硬質之片材或積層之片材構成之板狀、或網狀物之製造物，而不限於片材S。又，片材S之性狀無特別限定，可為能作為以書寫或印刷為目的之記錄紙(例如所謂之PPC(Plain Paper Copy：普通紙影印)用紙)使用之紙，亦可為壁紙、包裝紙、色紙、繪畫用紙、製圖紙(Kent Paper)等。又，於片材S為不織布之情形時，除了一般之不織布以外，亦可作為纖維板、衛生紙、廚房用紙、清潔片、過濾片、液體吸收材、吸音材、緩衝材、墊片等。又，本發明不限定於應用於片材製造系統1之情形，亦可僅對具有解纖部20之解纖裝置、或利用解纖纖維製造片材S之片材製造裝置應用本發明。於該情形時，解纖裝置構成為至少具有解纖部20與纖維處理部40之裝置，例如，採用第1裝置100A、110A之構成。根據該構成，可容易地搬運解纖纖維，可易於將解纖裝置設置於辦公室等。又，片材製造裝置構成為具有被供給可搬形態之解纖纖維之供給口46，且利用被供給至供給口46之可搬形態之解纖纖維製造片材S之裝置，例如，採用第2裝置100B之構成。根據該構成，可利用可搬形態之解纖纖維製造片材，且易於將片材製造裝置設置於辦公室等。又，使用製造之片材S之使用側裝置不限定於印刷裝置1Y、2Y、3Y及印刷部1Z，可廣泛地應用能利用片材S之裝置。又，各圖所示之功能區塊中之至少一部分可以硬體實現，亦可設為藉由硬體與軟體之協動而實現之構成，不限定於配置獨立之硬體資源之構成。又，執行之程式可記憶於非揮發性記憶部、或其他記憶裝置(省略圖示)。亦可設為接收經記憶於外部裝置之程式而執行之構成。Hereinafter, preferred embodiments of the present invention will be described in detail using the drawings. The embodiments described below are not intended to limit the scope of the invention described in the claims. Further, not all of the configurations described below are essential components of the present invention. (First Embodiment) Fig. 1 is a view showing a configuration of a sheet manufacturing system 1 according to a first embodiment. The sheet manufacturing system 1 according to the present embodiment is preferably used, for example, by using a waste paper (sheet) such as a confined paper as a raw material, and then fibrillating it by dry defibration, followed by pressurization, heating, and cutting. A device for making new paper. It is also possible to improve the bonding strength or whiteness of the paper product, or the functions of color, aroma, flame retardance, etc., depending on the use, by mixing various additives with the fiber material. Further, by controlling the density, thickness, and shape of the paper, it is possible to manufacture paper of various thicknesses and sizes such as office paper or business card paper of A4 or A3 depending on the application. The sheet manufacturing system 1 is composed of a first device 100A and a second device 100B. The first device 100A and the second device 100B are separate devices that can be independently operated. The first device 100A is a device (also referred to as a coarse crushing, defibrating device, or a defibrating device) for producing a defibrated fiber by subjecting waste paper as a raw material to coarse crushing and defibration, and has a supply portion 10 and a coarse crushed product. The portion 12, the defibrating unit 20, the sorting unit 30, and the fiber processing unit 40. The second device 100B is a device (also referred to as a sheet manufacturing device and a sheet manufacturing unit) that manufactures a sheet from a defibrated fiber, and has a fiber supply unit 45, an additive mixing unit 50, a deposition unit 60, and a sheet. The forming portion 70 and the cutting portion 90 are formed. The supply unit 10 supplies the raw material to the coarse crushing portion 12. The raw material is only required to contain fibers. For example, paper, pulp, pulp sheets, cloths containing non-woven fabrics, or fabrics and the like are listed. In the present embodiment, a configuration in which waste paper is used as a raw material is exemplified. The supply unit 10 is an automatic input unit that has a tray (paper feed tray) on which, for example, waste paper is placed, and waste paper placed on the tray is continuously fed to the coarse-grained portion 12. The coarse crushing portion 12 (fine cut portion) is coarsely crushed (finely cut) by the coarse crushing blade 14 into coarse chips (hereinafter referred to as coarse crushed material). The coarse crushed material is in the same state as the shredded paper cut by a so-called shredder. The coarse crushing blade 14 is a blade for coarsely crushing the raw material in the air (in the air) or the like. The coarse crushing portion 12 is provided with a pair of rough cutting edges 14 which are sandwiched between the raw materials and coarsely crushed, and a driving portion that rotates the coarse crushing blades 14 and can be configured similarly to the so-called shredder. The shape or size of the coarse chips is arbitrary as long as it is suitable for the defibration treatment of the defibrating unit 20. For example, the coarse crushing portion 12 roughly pulverizes the raw material into a sheet of a size of 1 to several cm square or less. The raw material coarsely crushed by the coarse crushing portion 12 is received by the cylinder 1 and then transferred (transferred) to the defibrating portion 20 via the tube 2. The defibrating unit 20 defibrates the coarsely divided material from the coarsely divided portion 12. More specifically, the defibrating unit 20 defibrates the raw material (coarse material) coarsely crushed by the coarse crushing portion 12 to produce a defibrated fiber. Here, "defibration" means that a raw material (defibrated material) obtained by bonding a plurality of fibers is untwisted into one fiber. The defibrating unit 20 also has a function of separating the resin particles or the ink adhering to the raw material, the toner, the anti-seepage agent, and the like from the fibers. The person who passes through the defibrating unit 20 is referred to as "defibrillation material". In addition to the untwisted defibrating fiber, the "defleasing fiber" also includes a resin which separates the fiber from the fiber when the fiber is unwound (a resin for bonding a plurality of fibers to each other), a toner, a toner, and the like. Or the case of additives such as barrier agents and paper strength enhancers. The shape of the untwisted defibrated fiber is a string shape or a ribbon shape. The untwisted defibrated fiber may not exist in a state of being entangled with other untwisted defibrated fibers (independent state), or may be entangled with other unwrapped defibrated materials into a block state (formed so-called The "state of the mass" exists. The defibrating unit 20 defibrates in a dry manner. Here, the treatment of defibration or the like in the air (in the air) or the like instead of the liquid is referred to as a dry type. In the present embodiment, the defibrating unit 20 is configured to use an impeller pulverizer. Specifically, the defibrating unit 20 includes a rotor (not shown) that rotates at a high speed, and a sleeve (not shown) that is located on the outer circumference of the rotor. The coarse chips coarsely crushed by the coarse crushing portion 12 are interposed between the rotor and the sleeve of the defibrating portion 20 to be defibrated. The defibrating unit 20 generates an air flow by the rotation of the rotor. By the gas flow, the defibrating unit 20 can suck the raw material, that is, the coarse chips from the introduction port 22 of the tube 2, and transport the defibrated material to the discharge port 24. The defibrated material is sent from the discharge port 24 to the tube 3, and is transferred to the sorting unit 30 via the tube 3. Further, the airflow for transferring the defibrated material from the defibrating unit 20 to the sorting unit 30 may be the airflow generated by the defibrating unit 20, or an airflow generating device such as a blower may be provided, and the airflow may be utilized. The sorting unit 30 has an introduction port 32 through which the defibrated material including the defibrated fibers defibrated by the defibrating unit 20 flows into the tube 3 together with the air current. The sorting unit 30 sorts the defibrated materials introduced into the introduction port 32 in accordance with the length of the fibers. Specifically, the sorting unit 30 sets the defibrated material having a predetermined size or less in the defibrated material as the first sorting material, and divides the defibrated material larger than the first sorting material into the second sorting material. selected. The first sorting material contains smaller particles or the like in addition to the fiber, and the second sorting material includes, for example, a larger fiber, an undefibrated sheet (a coarse chip which is not sufficiently defibrated), and a defibrated fiber agglomerate. Or tangled masses, etc. In the present embodiment, the sorting unit 30 includes a drum portion 31 (screen portion), an outer casing portion 33 (cover portion) that houses the drum portion 31, and a first mesh forming portion 35. The drum portion 31 is a cylindrical sieve that is rotationally driven by a motor. The drum portion 31 has a mesh (filter, mesh) and functions as a sieve. According to the mesh, the drum portion 31 sorts the first sorting material smaller than the mesh opening degree (opening) and the second sorting material larger than the mesh opening degree. As the net of the drum portion 31, for example, a metal mesh, an expanded metal plate in which a metal plate with a slit is stretched, and a punched metal plate in which a press machine is equal to a metal plate to form a hole can be used. The defibrated material introduced into the introduction port 32 is conveyed to the inside of the drum portion 31 together with the air current, and the first sorting object is dropped from the mesh of the rotating cylinder portion 31 to the lower side by the rotation of the drum portion 31. The second sorting which cannot pass through the mesh of the drum portion 31 flows by the airflow flowing into the drum portion 31 from the introduction port 32, is guided to the discharge port 34, and is sent to the tube 8. The tube 8 connects the inside of the drum portion 31 with the tube 2. The second sorting material flowing through the tube 8 is supplied to the tube 2 together with the coarse chips coarsely shredded by the coarse crushing portion 12, and guided to the introduction port 22 of the defibrating portion 20. Thereby, the second sorting object is returned to the defibrating unit 20 to perform defibration processing. Further, the first sorting object sorted by the drum portion 31 is dispersed into the air by the mesh of the drum portion 31, and is directed to the mesh belt 36 of the first web forming portion 35 located below the drum portion 31. lower. The first mesh forming portion 35 (separating portion) includes a mesh belt 36 (separating belt), a roller 37, and a suction portion 38 (suction mechanism). The mesh belt 36 is a ring-shaped belt suspended from the three rollers 37, and is conveyed in the direction indicated by the arrow in the figure by the rotation of the rollers 37. The surface of the mesh belt 36 is formed by a mesh of openings of a particular size. The particles passing through the size of the mesh falling from the first sorting portion dropped from the sorting portion 30 fall below the mesh belt 36, and the fibers (defibrated fibers) which cannot pass through the mesh size are deposited on the mesh belt 36, and are meshed with the mesh belt. 36 Transfer in the direction of the arrow. The fine particles dropped from the mesh belt 36 include relatively small or low density (resin particles or toners or additives, etc.) in the defibration, and are not used in the sheet manufacturing system 1 when the sheet is manufactured. . The mesh belt 36 moves at a constant speed V1 during the normal operation of the first device 100A. Here, the normal operation refers to an operation other than the start of the first device 100A and the stop. Therefore, the defibrated material defibrated by the defibrating unit 20 is sorted into the first sorting and the second sorting in the sorting unit 30, and the second sorting is returned to the defibrating via the tube 4. Department 20. Further, the removed matter is removed from the first sorting material by the first mesh forming portion 35. The remainder after removing the removed material from the first sorting is a defibrated fiber suitable for the production of a sheet, and the defibrated fibers are deposited on the web tape 36 to form the first web W1. The suction portion 38 attracts air from below the mesh belt 36. By the attraction of the attraction portion 38, the formation of the first mesh W1 on the mesh belt 36 is promoted, and the removal of the removed matter is accelerated. Further, in the first device 100A, the configuration of sorting and separating the first defibrated material and the second defibrated material is not limited to the sorting unit 30 including the drum portion 41. For example, it is also possible to adopt a configuration in which the defibrated material to be defibrated by the defibrating unit 20 is classified by a classifier. As the classifier, for example, a cyclone classifier, an elbow jet classifier, and an Eddie classifier can be used. If such a classifier is used, the first and second sorts can be sorted and separated. Further, by the classifier described above, it is possible to realize a configuration in which a relatively small or low-density material (resin particles or toners or additives, etc.) in the defibration is separated and removed. The first device 100A includes a rotating body 39 that divides the first mesh W1 deposited on the mesh belt 36. The first web W1 is peeled off from the web 36 at a position where the web 36 is folded back by the roller 37 and is separated by the rotating body 39. The configuration of the rotating body 39 is arbitrary. However, in the present embodiment, it is possible to have a rotating blade shape having a plate-like blade and rotating. The rotating body 39 is disposed at a position where the first mesh W1 peeled from the mesh belt 36 is in contact with the blade. By the rotation of the rotating body 39 (for example, rotating in the direction indicated by the arrow R in the drawing), the blade is separated from the mesh belt 46 and the first mesh W1 conveyed by the blade collides and is divided and subdivided. Further, the rotating body 39 is disposed at a position where the blades of the rotating body 39 do not collide with the mesh belt 36. For example, the distance between the front end of the blade of the rotating body 39 and the mesh belt 36 can be set to 0. 05 mm or more and 0. 5 mm or less, In this case, The first mesh W1 can be effectively separated by the rotating body 39 without causing damage to the mesh belt 36. The first web W1 separated by the rotating body 39 is supplied to the fiber processing unit 40 through the tube 7. The fiber processing unit 40 is a device that disposes the defibrated fiber into a movable form by performing a process of accommodating the first mesh W1 containing the defibrated fiber in the cassette 200 (container). A filling device for filling the defibrated fiber into the cassette 200 by an air blowing method, for example, may be applied to the fiber treating portion 40, Or a press-in device that presses (fills) the defibrated fibers into the cassette 200 by a conveyor belt such as a screw. in this way, The first device 100A is configured to integrally include the following devices: Coarse crushing device, It will contain the raw material of the fiber, that is, the waste paper; Defibration device, It defibrates the coarsely divided material; And fiber treatment equipment, It stores the defibrated fiber in the cassette 200. the following, For the sake of convenience, When the first device 100A is functionally described, Properly expressed as "coarse, Defibration device". The cassette 200 is a container that can be held without allowing the defibrated fibers filled into the interior to flow outward. It is easy for the user to carry. The cassette 200 can be a rigid metal container or a resin container. It can also be a container such as a flexible bag. The fiber processing unit 40 has a discharge portion 42. The cartridge 200 for discharging the defibrated fibers is discharged from the outside. With this, The user can easily take out the cassette 200 and carry it to the second device 100B. another, The user is a person who uses the sheet manufacturing system 1, It may also be a person who uses only one of the functions of the sheet manufacturing system 1. E.g, The user is a person to be placed in the installation place of the first device 100A (a person who is working in an office, etc., which will be described later), Performing the operation of the sheet manufacturing system 1, maintenance, Management, etc. An operator who performs the installation of waste paper or the handling of defibrating fibers. In this composition, Since the defibrated fiber is housed in the cassette 200, Therefore, it is possible to prevent the scattering of defibrating fibers while preventing And while suppressing the intrusion of foreign matter, Transfer the defibrated fibers. also, The pressure or negative pressure at which the defibrated fiber is stored (filled) to the cassette 200 can be set. It is easy to increase the filling rate of the defibrated fiber to the cassette 200. The pressure in this case is set to a value that does not cause an obstacle to the sheet manufacturing in the second device 100B. For example, the value of the defibrated fiber can be taken out by the fiber supply unit 45 which will be described later. The fiber processing unit 40 may be a device (vacuum packaging device) that stores (fills) the defibrated fibers into the bag using a technique of vacuum packaging. In the case of vacuum packaging, The filling rate of the defibrated fiber can be further increased. another, The fiber processing unit 40 is not limited to a device that stores the defibrated fibers in a container such as a cassette 200 or a bag. It is also possible to treat the defibrated fiber to a device having a shape retaining state. in particular, The fiber processing unit 40 can apply a compression processing device that compresses the defibrated fibers into a plate shape by a roller or the like. It is also possible to apply a method of compressing a defibrated fiber into a rectangular parallelepiped shape by a mold or the like, A compression molding device having a predetermined three-dimensional shape such as a spherical shape. When the defibrated fiber is reinforced into a plate shape, Easy to stack and easy to move together. also, By reinforcing the defibrated fibers into a rectangular shape, a predetermined three-dimensional shape such as a ball shape, It is easy to put into a storage box such as a box. It is also easy to move together. In this case, By making it easy for the user to hold the shape by hand, And size, Easy to dismantle fiber handling, And a supply operation or the like to the supply port 46 of the second device 100B. When not using the cassette 200, Correspondingly, No need to carry out the relevant structure of the card 200, It is easy to simplify the composition. another, As long as the defibrated fiber is reinforced to a degree of shape retention, Not limited to the same method of strengthening the whole, It can only be partially reinforced (for example, only the outer perimeter). It is also possible to impart moisture for the purpose of reinforcement. In the second device 100B, The fiber supply unit 45 has a supply port 46 to which a defibrated fiber of a movable form is supplied. When the defibrated fiber is stored in the cassette 200, The supply port 46 is configured to freely attach and detach the cassette 200. The fiber supply unit 45 takes out the disintegrated fiber in a movable form from the cassette 200 attached to the supply port 46, and discharges it to the tube 8. The fiber supply unit 45 can be applied, for example, by means of air blowing or suction to discharge the defibrated fibers in the cassette 200. Or the device for defibrating the fiber in the cassette 200. also, The fiber supply portion 45 can also be applied to open the lower portion of the cassette 200, And the device for removing the defibrating fiber by gravity is used. The fiber supply unit 45 preferably has a configuration in which the disintegrated fiber of the movable form is subdivided in order to facilitate mixing of the additive in the additive mixing unit 50. E.g, When the fiber supply portion 45 is in the case of defibrating the fibers in the cassette 200, Preferably, the defibrated fibers are broken and subdivided by scooping. also, When the fiber supply unit 45 discharges the defibrated fibers in the cassette 200 by air blowing or suction, The defibrated fibers can also be subdivided by a gas stream. also, Without using the cassette 200, When the fiber processing unit 40 performs the above-described treatment to which the defibrated fiber is reinforced to have a shape retainability, The reinforced fibrillated fiber (the disintegrated fiber of the movable form) is put into the supply port 46. In this case, The fiber supply portion 45 can be used to unravel the reinforced fibrillated fibers. By using, for example, air supply or attraction, Or take out the defibrated fiber that has been invested, Or carry out belt transport, The defibrated fibers are discharged to the tube 8 by gravity. The defibrated fiber discharged to the tube 8 is supplied to the additive mixing portion 50. The additive mixing unit 50 is provided with: Additive supply unit 52, Providing an additive comprising a resin; And a hybrid blower 56, This causes a flow of air in the tube 8 to flow the defibrated fibers discharged from the fiber supply portion 45 into the additive mixing portion 50. In the additive mixing section 50, The air flow is generated by the mixing blower 56, And in the tube 9 connected to the downstream of the tube 8 and the mixing blower 56, The defibrated fiber is mixed while being mixed with the additive. also, Defibrating fiber in tube 8, The process of flowing in 9 is further solved, Made into a finer fibrous shape. The additive supply unit 52 (resin storage unit) is connected to an additive cartridge (not shown) that accumulates the additive. The additive inside the additive cartridge is supplied to the tube 8. The additive cartridge can be configured to be detachably attachable to the additive supply unit 52. also, It may have a configuration in which the additive is added to the additive cartridge. The additive supply unit 52 is, for example, temporarily storing an additive containing fine powder or fine particles inside the additive cartridge. And the device for supplying the stored additive to the tube 8 using a screw feeder or the like. The additive supplied from the additive supply unit 52 includes a resin such as a binder for bonding a plurality of fibers. The resin contained in the additive is a thermoplastic resin or a thermosetting resin. Such as AS resin, ABS resin, Polypropylene, Polyethylene, Polyvinyl chloride, Polystyrene, Acrylic, polyester resin, Polyethylene terephthalate, Polyphenylene ether, Polybutylene terephthalate, nylon, Polyamine, Polycarbonate, Polyacetal, Polyphenylene sulfide, Polyetheretherketone and the like. These resins may be used singly or in a suitable mixture. which is, Additives may contain a single substance, Can also be a mixture, A plurality of particles composed of various single or plural substances may also be included. also, The additive may be fibrous, It can also be in the form of a powder. The resin contained in the additive adheres to the plurality of fibers by heating and melting. therefore, In a state in which the resin is mixed with the fiber, And in the state where the resin is not heated to the melting temperature, The fibers do not stick to each other. also, The additive supplied from the additive supply unit 52 is in addition to the binder. According to the type of sheet produced, Containing a coloring agent to color the fibers, Or a coacervation inhibitor for inhibiting fiber aggregation or resin aggregation, A flame retardant for making fibers and the like difficult to burn. also, Additives that do not contain colorants can be colorless, Or a lighter color that appears to be colorless, It can also be white. another, The mechanism for mixing the defibrated fiber with the additive is not particularly limited. Can be a blade stirrer by high speed rotation, It can also be used for the rotation of the container like a V-type mixer. These mechanisms may also be placed in front of or behind the mixing blower 56. The deposition unit 60 deposits the defibrated material defibrated by the defibrating unit 20. More specifically, The stacking portion 60 introduces the mixture that has passed through the additive mixing portion 50 from the introduction port 62. Untangling the defibrated (defibrated fiber), Lower one side of the air in the air. Furthermore, When the resin of the additive supplied from the additive supply unit 52 in the deposition unit 60 is fibrous, Untie the entangled resin. With this, The deposition portion 60 allows the mixture to be uniformly deposited on the sheet forming portion 70 in a uniform manner. The stacking portion 60 has a drum portion 61 (drum), And housing portion 63 (covering portion) of the drum portion 61. The drum portion 61 is a cylindrical sieve that is rotationally driven by a motor. The drum portion 61 has a net (filter, Wire mesh), And function as a sieve. With the mesh, The drum portion 61 passes fibers or particles smaller than the opening (opening) of the mesh, And the rotation of the tube portion 61 is lowered. The configuration of the drum portion 61 is the same as the configuration of the drum portion 31, for example. another, The "screen" of the drum portion 61 may not have the function of sorting a specific object. which is, The "screen" used as the drum portion 61 means that the net is provided. The drum portion 61 can also lower the entire mixture introduced into the drum portion 61. The sheet forming portion 70 has: The second mesh forming portion 71, Pressurizing unit 82, And a heating portion 84. The second mesh forming portion 71 is disposed below the drum portion 61. And stacking the passage that has passed through the stacking portion 60, The second web W2 (deposit) is formed. The second mesh forming portion 71 has: Net belt 72 (belt), Roller 74, And a suction mechanism 76. The mesh belt 72 is a ring-shaped belt. Suspended from a plurality of rollers 74, And by the rotation of the roller 74, it is conveyed in the direction indicated by the arrow in the figure. The mesh belt 72 is made of, for example, metal. Resin, Cloth, Or not weaving, etc. The surface of the mesh belt 72 is constructed of a mesh of openings of a particular size. The particles passing through the size of the mesh in the fibers or particles lowered by the rotating cylinder portion 61 fall below the mesh belt 72, Fibers that cannot pass through the size of the mesh are stacked on the mesh belt 72. And the mesh belt 72 is conveyed in the direction of the arrow. The mesh belt 72 moves at a specific speed V2 during the operation of manufacturing the sheet. The mesh of the mesh belt 72 is relatively small, It can be set to a size that does not allow most of the fibers or particles that are lowered by the rotating cylinder portion 61 to pass. The suction mechanism 76 is disposed below the mesh belt 72 (opposite side of the stacking portion 60 side). The suction mechanism 76 can be attracted by a suction blower (not shown). A downward flow (air flow from the stacking portion 60 to the mesh belt 72) is generated. By the suction mechanism 76, The mixture dispersed in the air by the stacking portion 60 can be attracted to the mesh belt 72. With this, The formation of the second mesh W2 on the mesh belt 72 can be promoted, And the discharge speed from the stacking portion 60 is increased. Furthermore, By the suction mechanism 76, The downward flow can be formed in the falling path of the mixture, It prevents the defibration or additives from becoming entangled in the fall. As shown above, By passing through the stacking portion 60 and the second mesh forming portion 71 (mesh forming step), On the other hand, a second mesh W2 containing a large amount of air and being soft and bulky is formed. The second web W2 deposited on the mesh belt 72 is conveyed to the sheet forming portion 70. In the transport path of the mesh belt 72, On the downstream side of the stacking portion 60, The air containing the mist is supplied by the humidifying unit 78. With this, The mist generated by the humidifying portion 78 is supplied to the second mesh W2, The amount of water contained in the second mesh W2 is adjusted. With this, The adsorption of the fibers to the mesh belt 72 due to static electricity can be suppressed. The sheet forming unit 70 forms the second web W2 deposited on the mesh belt 72 and conveyed by the conveying unit 79 by pressurization and heating by the pressurizing unit 82 and the heating unit 84 to form the sheet S. By the fiber of the defibrated material contained in the second web W2, And adding heat to the additive, The plurality of fibers in the mixture are adhered to each other via an additive (resin). The pressurizing portion 82 is composed of a pair of press rolls 85. The second web W2 is sandwiched by a specific nip and pressurized. The thickness of the second mesh W2 is reduced by the pressure, The density of the second web W2 is increased. One of the pair of press rolls 85 is a drive roll driven by a pressurizing unit drive motor (not shown). The other is a driven roller. The pressure roller 85 conveys the second web W2 having a high density by pressurization to the heating unit 84. The heating portion 84 can use, for example, a heating roller (heater roller), Hot press forming machine, Heating plate, Warm air blower, Infrared heater, It is composed of a flashing fixer. In this embodiment, The heating unit 84 includes a pair of heating rollers 86. The heating roller 86 is provided by a heater disposed inside or outside. It is heated to a preset temperature. The heating roller 86 sandwiches the second web W2 pressurized by the pressing roller 85 and gives heat. The sheet shown by the symbol S in Fig. 1 is formed. in this way, The second web W2 formed in the stacking portion 60 is pressurized and heated in the sheet forming portion 70. And become the sheet S. One of the pair of heating rollers 86 is a driving roller driven by a heating unit driving motor (not shown). The other is a driven roller. The heating roller 86 conveys the heated sheet S to the cutting unit 90. another, The number of the pressure rollers 85 provided in the pressurizing portion 82, The number of the heating rolls 86 provided in the heating unit 84 is not particularly limited. The cutting portion 90 (cutting blade portion) cuts the sheet S formed by the sheet forming portion 70. In this embodiment, The cutting portion 90 has: The first cutting portion 92, The sheet S is cut in a direction crossing the conveying direction of the sheet S indicated by the symbol F in the drawing; And the second cutting unit 94, The sheet S is cut in a direction parallel to the conveying direction F. The second cutting portion 94 cuts, for example, the sheet S that has passed through the first cutting portion 92. By cutting the portion 90, A single sheet S of a specific size such as A4 size is formed. The cut single sheet S is discharged to the discharge portion 96. The discharge unit 96 is provided with a paper discharge tray that discharges a sheet S of a specific size, Or stacking the stack of sheets S. in this way, The second device 100B is configured to integrally include the following devices: Fiber supply device, It is supplied to the defibrated fiber in the cassette 200, That is, supplying the defibrated fiber in a movable form; And sheet manufacturing equipment (sheet manufacturing department), It manufactures sheet S using defibrated fibers. the following, For the sake of convenience, When the second device 100B is functionally described, It is expressed as "sheet manufacturing apparatus" as appropriate. 2 is a block diagram showing the constitution of a control system including the sheet manufacturing system 1. The first device 100A has: Control device 101A, Operation unit 102A, Display unit 103A and remaining amount sensor 104A, And it can operate independently under the control of the control device 101A. The control device 101A is a main processor, ROM (Read Only Memory: Read only memory) and RAM (Random Access Memory: A computer system composed of random access memory). The control device 101A controls the respective units of the first device 100A by the main processor executing the basic control program stored in the ROM (the supply unit 10, Rough part 12, Defibration unit 20, Sorting section 30, And the press-in portion 40). The operation unit 102A inputs various instructions to the first device 100A. The operation unit 103A has, for example, an operation switch or a touch panel. After the control device 101A turns on the power of the first device 100A and executes the startup sequence, Each part of the first device 100A can be controlled. In this case, The control device 101A can receive the manufacturing start instruction of the first mesh W1 (defibrillation fiber) via the operation unit 102A. Manufacturing conditions (manufacturing amount of the first mesh W1, etc.), Input of the date of manufacture (schedule), etc. then, When the control device 101A is input with a manufacturing instruction, Or to the pre-set manufacturing start date, Each unit of the first device 100A is operated. With this, The first web W1 can be manufactured by coarsely crushing and de-firing the waste paper. The cassette 200 filled with the first web W1 is discharged. The display unit 103A is under the control of the control device 101A, Various pieces of information related to the first device 100A are displayed. The display unit 103A is, for example, a liquid crystal display device. The remaining amount sensor 104A detects the remaining amount of the raw material (waste paper) in the first device 100A, The detection result is output to the control device 101A. The remaining amount sensor 104A is not limited to one, It can be plural. The remaining amount sensor 104A of the present configuration includes at least a sensor that detects the remaining amount of waste paper of the supply unit 10. When the remaining amount sensor 104A detects that the remaining amount of the waste paper (raw material) remaining in the supply unit 10 is lower than the set value, the control device 101A We report the notification of insufficient paper waste. The notification processing is a display of the display unit 103A or a sound output by a sound output unit (not shown). another, The first device 100A communicates with an external device via a communication network (for example, a PC operated by a user (Personal Computer: PC)) When connecting, It is possible to notify the external device that the waste paper is insufficient (to replenish the supply unit 10 with waste paper). also, It may in turn have a residual amount sensor that detects the remaining amount of coarse debris of the coarsely divided portion 12. In this case, When the remaining amount of the coarse debris is detected by the remaining amount sensor 104A, the control device 101A is lower than the set value. The waste paper can be supplied from the supply portion 10 to the coarse portion 12, It is coarsely crushed by the coarse crushing portion 12. By always ensuring coarse debris, At the beginning of the manufacture of the first mesh W1, The coarsely crushed material is immediately supplied to the defibrating section 20, The first mesh W1 can be quickly manufactured. also, The control device 101A records the operation history of the first device 100A in a memory (not shown). Based on the operation history, measurement processing for measuring the amount of waste paper processed indicating the amount of fiber processing is performed. The operation history is, for example, the amount of waste paper supplied to the supply unit 10 (the number of sheets supplied), Information corresponding to the date of supply. also, In this composition, The control device 101A counts the amount of waste paper supply (the number of sheets supplied) of the supply unit 10 based on the operation history, This count value is recorded in the memory (not shown) as the waste paper processing amount. The measurement process is not limited to this method, A method capable of measuring the amount of waste paper processed can be widely applied. E.g, Available to measure flow, a sensor such as weight or distance, Measuring the amount of defibrated fibers defibrated by the defibrating unit 20, The amount of coarse crushed material from the coarse crushed portion 12, The amount of manufacture of the first mesh W1, Or the amount of fiber filled into the cassette 200, The measurement result is taken as the waste paper processing amount. also, The number (number of times) of the cassettes 200 discharged from the first device 100A can be counted, The count result is taken as the amount of waste paper processed. The control device 101A can notify the user or the like of the amount of waste paper processing by displaying the amount of waste paper processing on the display unit 103A. as shown in picture 2, The second device 100B is also the same as the first device 100A. With control device 101B, Operation unit 102B, Display unit 103B and remaining amount sensor 104B, And it can operate independently under the control of the control device 101B. The control device 101B is a main processor, A computer system composed of a ROM and a RAM. The control device 101B controls the respective units of the second device 100B by the main processor executing the basic control program stored in the ROM (the fiber supply unit 45, Additive mixing unit 50, Stacking section 60, Sheet forming portion 70, And the cutting portion 90). The operation unit 102B inputs various instructions to the second device 100B. The operation unit 103B has, for example, an operation switch or a touch panel. After the control device 101B turns on the power of the second device 100B and executes the startup sequence, Each part of the second device 100B can be controlled. In this case, The control device 101B can accept the manufacturing start instruction of the sheet S via the operation unit 102B, Manufacturing conditions (density (basis weight) of sheet S, Shape (size, thickness), colour, Manufacturing quantity (number of manufactured sheets), etc.) Input of the date of manufacture (schedule), etc. then, When the control device 101B inputs a manufacturing instruction, Or to the pre-set manufacturing start date, Each unit of the second device 100B is operated. With this, Sheet S is produced. Here, The control device 101B adjusts the speed V2 of the mesh belt 72 of the sheet forming portion 70, for example. The density of the sheet S is controlled by at least one of the adjustment of the amount of fiber dropped by the rotating cylinder portion 61. also, The control device 101B controls the color of the sheet S by controlling the type and amount of the coloring agent added by the additive supply unit 52 (FIG. 1). also, The control device 101B controls the size of the sheet S by the cutting portion 90, The thickness of the sheet S is controlled by the pressurizing portion 82. With this, A sheet S corresponding to a predetermined manufacturing condition is manufactured. The display unit 103B is under the control of the control device, Various pieces of information related to the second device 100B are displayed. The display unit 103B is, for example, a liquid crystal display device. The remaining amount sensor 104B detects the remaining amount of the raw material in the second device 100B, And/or the remaining amount of the manufactured sheet S, The detection result is output to the control device 101B. The remaining amount sensor 104B of the present configuration includes at least the remaining amount of the remaining amount of the first mesh W1 (defibrillation fiber) (hereinafter referred to as the remaining amount of the cassette 200) detected in the cassette 200 of the fiber supply unit 45. Quantity sensor. When the remaining amount of the cassette 200 is detected by the remaining amount sensor 104B, the control device 101B is lower than the set value. A notification process of not reporting that the remaining amount of the card 200 is insufficient is performed. The notification processing is a display of the display unit 103B or a sound output by a sound output unit (not shown). another, When the second device 100B is connected to an external device via a communication network, The external device can be notified that the fiber (raw material) is insufficient (replacement of the cassette 200). also, Further, it may have a remaining amount sensor that detects the remaining amount of the sheet S remaining in the discharge portion 96. In this case, When the remaining amount of the sheet S remaining in the discharge portion 96 is detected by the remaining amount sensor, the control device 101B is lower than the set value, It is possible to perform notification processing for notifying the shortage of the sheet S. The notification processing can be displayed, as described above. The sound is output or notified to an external device. also, The control device 101B records the operation history of the second device 100B in a memory (not shown). And measuring the sheet manufacturing amount indicating the fiber processing amount based on the operation history. The course of action is, for example, information that associates the number of sheets produced by the sheet S with the date of manufacture. also, In this composition, The control device 101B counts the manufacturing amount (the number of sheets manufactured) of the sheet S based on the operation history, This count value is recorded in a memory (not shown) as a sheet manufacturing amount. The control device 101B can notify the user or the like of the sheet manufacturing amount by displaying the sheet manufacturing amount on the display unit 103A. another, Instead of measuring the number of sheets produced by the sheet S, And measuring the amount of fiber taken out of the cassette 200, Or the amount of manufacture of the second web W2. As mentioned above, Since the first device 100A and the second device 100B can operate independently, Therefore, it is not necessary to be placed in the same place. also, The first device 100A and the second device 100B are configured by a dry type that does not require large-scale water equipment. With this, And by putting the raw material containing the fiber into the water, Compared with the case where the fiber is dissociated and reconstituted into a wet type (wet paper making method, etc.) No need for water related equipment, Or simplistic, And the degree of freedom in the configuration place is increased. E.g, The second apparatus 100B which is a sheet manufacturing apparatus can be disposed in an office where the sheet S is required. Will be coarsely crushed, The first device 100A, which is the defibrating device, is disposed in the back field (see FIG. 2). Express this configuration as configuration style A. The office is the main area for business operations. The backcourt is an area that is not dominated by business operations. Such as warehouses, Workplace. In the office, there is a relatively large area in which the printing apparatus used for the sheet S as a printing medium has a relatively large number of mechanical parts in which the sheet S is required. When configuring style A, The user brings the waste paper generated by the office and the like into the backcourt. It is attached to the supply unit 10 of the first device 100A. then, The user manufactures the first mesh W1 by coarsely breaking and defibrating the waste paper by operating the first device 100A. The cassette 200 filled with the first web W1 is discharged. E.g, The user installs the confidential file of the processing object (hereinafter referred to as confidential paper) on the first device 100A. Further, by operating the apparatus 100A, it is assumed that the confidential paper cannot be read immediately. in this way, The user processes the waste paper in the back field, And dismantle the fiber into the raw material of the sheet S. also, It can avoid the occurrence of vibration or noise accompanying coarse crushing and defibration in the office. then, The user carries the cassette 200 and moves to the office. The cassette 200 is attached to the fiber supply unit 45 of the second device 100B. then, The user can manufacture the sheet S by using the first web W1 in the cassette 200 as a raw material by operating the second apparatus 100B. Subsequently, The user can start printing the sheet S by attaching the manufactured sheet S to an office printing device (not shown). which is, The sheet S required for printing can be produced as needed. another, When the discharge unit 96 of the second device 100B has the manufactured sheet S, If the sheet S is mounted on a printing device, It does not generate waiting time until the sheet S is manufactured. The user can use the sheet S for printing. With this, Recycling waste paper produced by the office, etc. And handle confidential paper. In configuration style A, The second device 100B, which is a sheet manufacturing apparatus, is disposed in an office that uses the sheet S, that is, an office. Therefore, it is easy for the user to use the sheet S. also, Since the first device 100A that performs coarse crushing and defibration is disposed in the back field, Therefore, compared with the case where the first device 100A is placed in the office, Vibration or noise accompanying coarse crushing and defibration will not be a problem. also, Since waste paper such as confidential paper is moved between the office and the backcourt, Therefore, compared with the situation of relying on external recycling companies to dispose of waste paper, Helps prevent confidential leaks. therefore, Configuration style A can schedule the manufactured sheet S in the office. Avoid situations where vibration or noise accompanying coarse crushing and defibration occurs in the office. another, The field after the configuration of the sheet manufacturing system 1 may also be part of the office. E.g, Widely applicable areas where the printing device is relatively small or the printing device does not exist, Or use a relatively small area of the sheet S. E.g, When dividing the office space constituting one of the buildings into a plurality of areas, The first device 100A is disposed in a region where the demand for the sheet S in each region is relatively high, The second device 100B is disposed in a region where the demand for the sheet S is relatively low. also, Not limited to configuration style A, It can also be configured other than configuration style A. Fig. 3 is a view showing an example of a plurality of configuration patterns. The arrangement pattern B shown in FIG. 3 arranges the first device 100A and the second device 100B in the office. In this case, The user crushes and defoams waste paper such as confidential paper by the first device 100A disposed in the office. therefore, The confidential paper will not be taken out of the office and can be set to be unreadable. It is good for preventing leakage of confidentiality. Furthermore, When the user needs the sheet S, No need to move from the office, On the other hand, the sheet S is manufactured as needed by the second device 100B. E.g, The user stores the cassette 200 discharged from the first device 100A, Once the raw material of the second device 100B, that is, the defibrating fiber is insufficient, The stored cassette 200 is attached to the second device 100B. With this, Waste paper recycling can be done only in the office. also, Since the first device 100A and the second device 100B operate independently of each other, Therefore, each device 100A, The 100B is deployed in different locations within the office. E.g, The first device 100A can be disposed in a place away from the user in the office. The second device 100B is disposed in an arrangement close to a user or a printing device. In this case, The vibration and noise of the first device 100A are not easily affected by the user. also, The user can schedule the sheet S from the nearby second device 100B. in this way, Configuring style B helps to prevent confidential leakage. On the one hand, it is possible to schedule the sheet S manufactured by the office. another, The configuration of the configuration pattern B is more suitable for reducing the noise and vibration to the extent that the first device 100A can be used in the office. Or in the office where vibration or noise is not a problem. The configuration pattern C shown in FIG. 3 is that the first device 100A is disposed in the office. The second device 100B is placed in the back field. In this case, Same as configuration style B, The user does not take the confidential paper out of the office and can be made unreadable. It is good for preventing leakage of confidentiality. also, The cassette 200 containing the defibrated fibers obtained by the first apparatus 100A is carried into the back field by the user. And, The user moves to the back field when the sheet S is manufactured, The cassette 200 containing the defibrated fibers is dispatched. then, The user can install the defibrated fiber in the second device 100B disposed in the rear place. The second device 100B is actuated to manufacture the sheet S. in this way, Configuration style C is more suitable for one side to prevent confidential leakage. Reduce the space in the office, Or use the backcourt effectively. As explained above, The sheet manufacturing system 1 has: Defibration unit 20; Fiber processing unit 40, The fibrillated fiber defibrated by the defibrating unit 20 is in a movable form; And the second device 100B (sheet manufacturing unit), The sheet S is produced by using a disintegrated fiber of a movable form. Since the defibrated fiber is made into a movable form, Therefore, the second device 100B can be It is separated from the defibrating unit 20 and the fiber processing unit 40. therefore, The second device 100B can be easily And/or the defibrating unit 20 or the like is disposed in an office or the like which generates waste paper which is a raw material and which is required to be manufactured. E.g, When the vibration or noise of the defibration is so large that it becomes a problem in the office, Only by disposing the second device 100B in the office, The vibration or noise of defibration is not generated in the office. also, When the vibration or noise of the defibration is relatively small, It is possible to arrange the second device 100B in the office. Further, the defibration unit 20 is placed in a place where vibration or noise in the office is less likely to be a problem. also, The fiber processing unit 40 stores the defibrated fibers in a container such as a cassette 200 or a bag. Therefore, the processing of defibrating fibers can be facilitated. It is easy to handle defibrating fibers. also, When the fiber processing unit 40 processes the defibrated fiber to have a shape retaining state, No need to carry a container such as 200, Therefore, it is easy to simplify the device configuration. In this case, By treating the defibrated fibers into a plate shape, Rectangular shape, In any state of the ball shape, it is expected that it is easy to move the defibrating fiber together. another, When the defibrated fiber is stored in a container such as a cassette 200 or a bag, The defibrated fiber can also be processed into a plate shape, Rectangular shape, Any state of the ball shape. In this case, It is expected to be easy to put into the effect of the cassette 200. also, The shape of the container can be a plate shape, Rectangular shape, Any state of the ball shape. also, When the fiber processing unit 40 vacuum-packs the defibrated fiber to form a movable form, It can efficiently increase the filling rate of defibrated fibers, And easy to dismantle fiber treatment. Here, Since the defibrating unit 20 is dry, Therefore, it is not necessary to have water supply and drainage equipment for defibration. also, Since no moisture is used, Therefore, compared with the case where the defibrating unit is wet, The defibrated fiber is stored in a container such as a cassette 200, Or vacuum packaging process is relatively easy. another, The aspect in which the defibrated fiber is in a movable form is not limited to the above embodiment. E.g, The fiber can be supplied to the fiber processing unit 40 by the binder fiber containing the binder for bonding the fibers. The disintegrating fiber of the movable form contains a binder. With this, It is not necessary to prepare a binder for the second device 100B. also, The disintegrated fiber of the movable form can be made of materials other than the binder. Such as coloring agents, Coagulation inhibitor, Flame retardant, etc. E.g, A part or all of the configuration of the additive supply unit 52 may be provided on the upstream side of the fiber processing unit 40 (ie, First device 100A). also, Since the sheet manufacturing system 1 is composed of the first device 100A having the defibrating unit 20, It is constituted by the second device 100B that manufactures the sheet S, Therefore, the second device 100B can be placed in an office or the like. Further, the first device 100A is disposed in a place where the vibration or noise of the defibration does not become a problem. And, Since the first device 100A and the second device 100B can operate independently, Therefore, the freedom of configuration and operation of the devices can be improved. And manufacture sheets as needed. (Second Embodiment) Fig. 4 is a block diagram showing a configuration of a control system including a sheet manufacturing system 1 according to a second embodiment. The second embodiment has, instead of the first device 100A of the first embodiment,: The first device 110A having the defibrating unit 20, And the third device 110C having the coarse portion 12. another, The same portions as those in the first embodiment are denoted by the same reference numerals, and their description will be omitted. And describe the different parts in detail. The third device 110C has: Supply unit 10, The coarse crushing portion 12 and the coarse scrap processing portion 40A. The coarse-grain processing portion 40A fills the coarse crushed material of the coarse crushed portion 12 into the cassette 210 (container). And discharged to the discharge portion 42A. The coarse-grain processing unit 40A and the discharge unit 42A have substantially the same configuration as the fiber processing unit 40 and the discharge unit 42 described above. the following, For the sake of convenience, In the case where the third device 110C is functionally described, it is appropriately expressed as a "coarse device". also, The third device 110C has: Control device 111C, Operation unit 112C, Display portion 113C and remaining amount sensor 114C, And it can operate independently under the control of the control device 111A. The control device 111C is a main processor, A computer system composed of a ROM and a RAM. The control device 111C controls the respective units of the third device 110C by the main processor executing the basic control program stored in the ROM (the supply unit 10, Rough part 12, Crushed material processing unit 40A). The operation unit 112C inputs various instructions to the third device 110C. After the control device 111C turns on the power of the third device 110C to execute the startup sequence, Each part of the third device 110C can be controlled. In this case, The control device 111C can accept the manufacturing start instruction of the coarse crushed material via the operation unit 112C, Manufacturing conditions (manufacture amount of coarse crushed material, etc.), Input of the date of manufacture (schedule), etc. then, When the control device 111C is input with a manufacturing instruction, Or to the pre-set manufacturing start date, The respective units of the third device 110C are operated, Thereby, the waste paper is coarsely crushed and discharged from the cassette 210 filled with coarse debris. The display unit 113C is under the control of the control device 111C, Various pieces of information related to the third device 110C are displayed. The remaining amount sensor 114C detects the remaining amount of the raw material (waste paper) in the third device 110C, The test result is output to the control device. The remaining amount sensor 114C is not limited to one, It can be plural. The remaining amount sensor 114C of the present configuration includes at least a sensor that detects the remaining amount of waste paper of the supply unit 10. When the remaining amount of the waste paper remaining in the supply unit 10 is detected by the remaining amount sensor 114C, the control device 111C is lower than the set value. We report the notification of insufficient paper waste. The notification processing is a display of the display unit 113C or a sound output by a sound output unit not shown. another, When the third device 110C is connected to an external device (for example, a PC operated by a user) via a communication network, It is possible to notify the external device that the waste paper is insufficient (to replenish the supply unit 10 with waste paper). also, The control device 111C records the operation history of the third device 110C in a memory (not shown). Based on the operation history, measurement processing for measuring the amount of waste paper processed indicating the amount of fiber processing is performed. The operation history is, for example, information that associates the amount of waste paper supply (the number of sheets supplied) of the supply unit 10 with the time of supply. also, In this composition, The control device 111A counts the amount of waste paper supply (the number of sheets supplied) of the supply unit 10 based on the operation history, This count value is recorded in the memory (not shown) as the waste paper processing amount. another, The measurement process is not limited to this method, A method capable of measuring the amount of waste paper processed can be widely applied. The control device 111C can notify the user or the like of the amount of waste paper processing by displaying the amount of waste paper processing on the display unit 113C. The first device 110A has: Crushed material supply unit 45A, Defibration unit 20, Sorting section 30, And the fiber processing unit 40. The coarse scrap supply unit 45A has a supply port 46A for freely loading and unloading the cassette 210, And removing the coarse debris from the cassette 210 mounted on the supply port 46A, And supplied to the defibrating unit 20. Defibration unit 20, Sorting section 30, The fiber processing unit 40 is the same as the first device 100A of the first embodiment. the following, For the sake of convenience, In the case where the first device 110A is functionally described, it is appropriately expressed as a "defibating device". also, The first device 110A has: Control device 111A, Operation unit 112A, Display portion 113A and remaining amount sensor 114A, And it can operate independently under the control of the control device 111A. The control device 111A is a main processor, A computer system composed of a ROM and a RAM. The control device 111A controls each unit of the first device 110A by the main processor executing the basic control program stored in the ROM (the coarse material supply unit 45A, Defibration unit 20, Sorting section 30, Fiber treatment unit 40). The operation unit 112A inputs various instructions to the first device 110A. The control device 111A performs the startup sequence after the power of the first device 110A is turned on. Each part of the first device 110A can be controlled. In this case, The control device 111A can receive the manufacturing start instruction of the first mesh W1 (defibrillation fiber) via the operation unit 112A. Manufacturing conditions (manufacturing amount of the first mesh W1, etc.), Input of the date of manufacture (schedule), etc. then, When the control device 111A inputs a manufacturing instruction, Or to the pre-set manufacturing start date, The respective units of the first device 110A are operated, Thereby, the waste paper is coarsely crushed to manufacture the first mesh W1, The cassette 200 filled with the first web W1 is discharged. The display unit 113A is under the control of the control device 111A, Various pieces of information related to the first device 110A are displayed. The remaining amount sensor 114A detects the remaining amount of the fiber as the raw material in the first device 110A, The detection result is output to the control device 111A. The remaining amount sensor 114A detects, for example, the remaining amount of the coarse crushed matter installed in the cassette 210 of the coarse scrap supply portion 45A. When the remaining amount sensor 114A detects that the remaining amount of the coarse debris in the first device 110A is lower than the set value, the control device 111A A notification process for notifying the shortage of coarse debris (for example, replacing the cassette 210) is performed. The notification processing is a display of the display unit 113A or a sound output by a sound output unit (not shown). another, When the first device 110A is connected to an external device (for example, a PC operated by a user) via a communication network, The external device can be notified that the coarse debris is insufficient. also, The control device 111A records the operation history of the first device 110A in a memory (not shown). Based on the operation history, measurement processing for measuring the amount of waste paper processed indicating the amount of fiber processing is performed. The course of action is, for example, the amount of defibrated fiber to be defibrated by the defibrating unit 20, Correspond to the date of defibration. also, In this composition, The control device 111A counts the amount of defibrated fibers based on the operation history. This count value is recorded in the memory (not shown) as the waste paper processing amount. another, The amount of defibrated fiber can be measured by measuring the flow rate, Sensor measurement of weight or distance, etc. also, The amount of manufacture of the first web W1, Or the amount of fibers filled into the cassette 200 is measured as the amount of defibrated fiber (waste paper processing amount). The control device 111A can notify the user or the like of the amount of waste paper processing by displaying the amount of waste paper processing on the display unit 113A. The second device 100B is the same as the first embodiment. In this embodiment, Since the first device 110A constituting the sheet manufacturing system 1, The second device 100B and the third device 110C can each operate independently. Therefore, it is not necessary to be placed in the same place. also, Each device 110A, 100B and 110C are made up of dry equipment that does not require large-scale water equipment. Therefore, compared with the case of being wet No need for water related equipment, Or simplistic, And easy to set up to the office and so on. E.g, The second device 100B, which is a sheet manufacturing apparatus, is placed in an office having a sheet S demand. The coarse crushing device, that is, the third device 110C, is also disposed in an office that produces waste paper of coarsely crushed objects. also, The defibrating device, that is, the first device 110A, is disposed in the back field (Fig. 4). Express this configuration as configuration style D. When configuring style D, The user can crush the waste paper such as confidential paper by the third device 110C disposed in the office. therefore, The confidential paper will not be taken out of the office and can be set to be unreadable. It is good for preventing leakage of confidentiality. also, The coarse debris obtained by the third device 110C is carried into the back field by the user or the like. With this, The user dispatches a cassette 210 containing coarse debris in the back field. The cassette 200 containing the defibrated fibers can be obtained by the second device 110B disposed in the back field. In this case, Due to defibration in the back field, Therefore, it is avoided to cause vibration or noise accompanying defibration in the office. then, The user can carry the cassette 200 containing defibrated fibers obtained in the backcourt and move to the office. The sheet S is produced by the second device 100B disposed in the office. The user can immediately start printing onto the sheet S by mounting the manufactured sheet S to the printing device of the office. In configuration style D, Because the waste paper such as confidential paper is coarsely broken in the office, And it helps to prevent leakage of confidentiality. And because the sheet S is made in the office, Therefore, it is easy to manufacture the sheet S as required. It is easy to seek the printing and utilization of the sheet S. also, Due to defibration in the back field, Therefore, it is possible to avoid the occurrence of vibration or noise accompanying defibration in the office. Since the general dry defibration uses an impeller grinder or the like, Therefore, it is easier to increase vibration or noise than in the case of coarse crushing. In configuration style D, It can avoid the impact of vibration or noise on the office due to defibration. Improve the convenience of users in the office. Fig. 5 is a view showing an example of a plurality of configuration patterns. The configuration pattern A' shown in FIG. 5 is composed of two devices 100A, The configuration pattern A when 100B constitutes the sheet manufacturing system 1 is similar. which is, The second device 100B, which is a sheet manufacturing apparatus, is placed in the office. The third device 110C and the first device 110A that perform coarse crushing and defibration are disposed in the back field. According to the configuration style A', In addition to the effect obtained by configuring style A, Since there are 2 devices installed in the backcourt, Therefore, the freedom of configuration and operation in the backcourt is improved. also, Since the third device 110C is easier to start up than the first device 110A, stop, Therefore, it is possible to immediately crush coarse paper and the like. therefore, Helps prevent leakage of confidentiality. also, The configuration pattern E shown in FIG. 5 arranges the coarse crushing device, that is, the third device 110C, in an office that produces waste paper of coarsely crushed objects. The first device 110A, which is the defibrating device, and the second device 100B, which is the sheet manufacturing device, are placed in the back field. When configuring the style E, The user can crush the waste paper such as confidential paper by the third device 110C disposed in the office. It is good for preventing leakage of confidentiality. also, The coarse debris obtained by the third device 110C is carried into the back field by the user or the like. The user can schedule coarse debris in the backcourt. The defibrated fiber which becomes the raw material of the sheet S is obtained by the second device 110B disposed in the back field. Since the back field is also provided with the second device 100B which is a sheet manufacturing device, Therefore, the defibrated fiber can be easily attached to the second device 100B to manufacture the sheet S. therefore, The user can easily schedule the sheet S in the back field. Configuration style E helps prevent leakage of confidentiality. And in the back field for defibration and sheet manufacturing, Therefore, vibration or noise accompanying defibration will not occur in the office. also, The configuration pattern C' shown in Figure 5, With two devices 100A, The configuration pattern C when 100B constitutes the sheet manufacturing system 1 is similar. which is, The third device 110C and the first device 110A, which are the coarse crushing devices, are disposed in the office. The second device 100B, which is a sheet manufacturing apparatus, is placed in the back field. According to the configuration style C', In addition to the effect obtained by configuring style C, Since there are 2 units installed in the office, Therefore, the freedom of configuration and operation in the office is increased. which is, The third device 110C can be disposed at a place where waste paper is produced in the office. Further, the first device 110A is disposed in a place where the influence of vibration or noise in the office is small. (Third Embodiment) Fig. 6 is a block diagram showing the configuration of a control system including a sheet manufacturing system 1 according to a third embodiment. The third embodiment differs from the second embodiment in that: The first device 110A and the second device 100B of the second embodiment are configured by one device (hereinafter, the fourth device) 120A. another, The same portions as those in the above embodiments are denoted by the same reference numerals, and their description will be omitted. And describe the different parts in detail. The fourth device 120A has: Crushed material supply unit 45A, Defibration unit 20, Sorting section 30, Additive mixing unit 50, Stacking section 60, Sheet forming portion 70, And the cutting portion 90. which is, The fourth device 120A functions as a device for performing defibration and sheet production. the following, For the sake of convenience, In the case of functionally describing the fourth device 120A, Properly stated as "defibration, Sheet manufacturing device". also, The fourth device 120A has: Control device 121A, Operation unit 122A, Display portion 123A and remaining amount sensor 124A, And it can operate independently under the control of the control device 121A. The control device 121A is a main processor, A computer system composed of a ROM and a RAM. The control device 121A controls the respective units of the fourth device 120A by the main processor executing the basic control program stored in the ROM (the coarse material supply portion 45A, Defibration unit 20, Sorting section 30, Additive mixing unit 50, Stacking section 60, Sheet forming portion 70, And the cutting portion 90). The operation unit 122A inputs various instructions to the fourth device 120A. After the control device 121A turns on the power of the fourth device 120A and executes the startup sequence, Each part of the fourth device 120A can be controlled. In this case, The control device 121A can accept the manufacturing start instruction of the sheet S via the operation unit 122A, Manufacturing conditions (density (basis weight) of sheet S, Shape (size, thickness), colour, Manufacturing quantity (number of manufactured sheets), etc.) Input of the date of manufacture (schedule), etc. then, When the control device 121A inputs a manufacturing instruction, Or to the pre-set manufacturing start date, The respective units of the fourth device 120A are operated, Thereby dissolving the coarse debris in the cassette 210, The sheet S corresponding to the manufacturing conditions is produced from the defibrated fibers. The display unit 123A is under the control of the control device 121A, Various pieces of information related to the fourth device 120A are displayed. The remaining amount sensor 124A detects the raw material in the fourth device 120A, And/or the remaining amount of the manufactured sheet S, The detection result is output to the control device 121A. The remaining amount sensor 124A of the present configuration detects, for example, the remaining amount of the coarse debris contained in the cassette 210 of the coarse-grain supply unit 45A. When the remaining amount of the coarse debris in the fourth device 120A is lower than the set value, the control device 121A A notification process for notifying the shortage of coarse debris (for example, replacing the cassette 210) is performed. The notification processing is a display of the display unit 123A or a sound output by a sound output unit (not shown). another, When the fourth device 120A is connected to another device (for example, a PC operated by a user) via a communication network, Other devices can be notified that the coarse debris is insufficient. also, The control device 121A records the operation history of the fourth device 120A in a memory (not shown). And measuring the sheet manufacturing amount indicating the fiber processing amount based on the operation history. The course of action is, for example, information that associates the number of sheets produced by the sheet S with the date of manufacture. also, In this composition, The control device 121A counts the manufacturing amount (the number of sheets manufactured) of the sheet S based on the operation history, This count value is recorded in a memory (not shown) as a sheet manufacturing amount. The control device 121A can notify the user or the like of the sheet manufacturing amount by displaying the sheet manufacturing amount on the display unit 123A. another, An alternative method of measuring the number of sheets produced by the sheet S, And measuring the amount of coarse debris taken out from the cassette 210, Or the amount of manufacture of the second web W2. E.g, Disposing the coarse crushing device, that is, the third device 110C, in the office. Will be defibrated, The fourth device 120A, which is a sheet manufacturing apparatus, is disposed in the back field (see FIG. 6). This configuration is expressed as a configuration style E'. Configure the style E', With 3 units 110C, 110A, The arrangement pattern E when 100B constitutes the sheet manufacturing system 1 is similar. When configuring the style E', The user can crush the waste paper such as confidential paper by the third device 110C disposed in the office. It is good for preventing leakage of confidentiality. also, The coarse debris generated by the third device 110C is carried into the back field by the user or the like. The user can schedule coarse debris in the backcourt. The sheet S is produced by the fourth device 120A disposed in the back field. With this, The same effect as the configuration style E can be obtained. which is, Helps prevent leakage of confidentiality, And because of the defibration and sheet manufacturing in the back field, Therefore, it is possible to obtain an effect that does not cause vibration or noise accompanying defibration in the office. (Fourth Embodiment) Fig. 7 is a view showing a schematic configuration of a sheet manufacturing system 1 according to a fourth embodiment. The fourth embodiment can be used in a plurality of offices X1. X2 Sheet S was produced in X3. the following, The difference from the first embodiment will be described. The second apparatus 100B, which is a sheet manufacturing apparatus, is disposed in the office X1. X2 X3 each. also, Coarse, The defibrating device, that is, the first device 100A, is disposed in the back field. which is, The fourth embodiment is an arrangement corresponding to the above-described arrangement pattern A. At office X1 X2 Each of X3 is equipped with a recycling box 11 for recycling waste paper in each office. Further, it is disposed in each office as a coarse crushing portion 12X that functions as a shredder for cutting waste paper. The coarse crushing portion 12X is a device capable of separately crushing waste paper. Further, for example, the configuration is the same as that of the coarsely divided portion 12 in the first device 100A. As shown in Figure 7, In the first device 100A, As shown by the arrow in Figure 7, The settings are supplied and recycled to each office X1 X2 The supply port 12K of the waste paper of the recovery box 11 of X3. The supply port 12K is a portion for supplying waste paper to the coarse crushing portion 12. which is, Office X1 X2 The user of X3 or the like can carry the waste paper to the back field and put it into the supply port 12K. Further, the first device 100A is actuated to obtain a defibrated fiber which is a raw material of the sheet S. In each office X1 X2 The X3 is equipped with a coarsely shredded part 12X that can be operated separately. Therefore, it is also possible to crush waste paper such as confidential paper in the office. It is good for preventing leakage of confidentiality. E.g, Waste paper with low confidentiality can be placed in the recycling box 11 of the office and coarsely crushed in the back field. on the other hand, The high-density waste paper is coarsely crushed by the coarse portion 12X in the office. also, In the first device 100A, As shown by the arrow in Figure 7, The settings are supplied by each office X1 X2 The supply port 20K of the coarse crushed material 12X in the X3. The supply port 20K is a portion for supplying coarse debris to the defibrating unit 20. which is, Office X1 X2 The user of X3 transports the coarse debris in the office to the backcourt and puts it into the supply port 20K. And the first device 100A is activated, Thereby, defibrated fibers are obtained. then, By bringing the obtained defibrated fiber into each office X1 X2 X3, And invested in the configuration of each office X1 X2 The second device 100B of X3, The second device 100B is operated to manufacture the sheet S. in this way, Can be in each office X1 X2 Sheet S is made in X3, One side of each office X1 X2 Users of X3 share coarse crush, The defibrating device is the first device 100A. therefore, The number of the first device 100A can be reduced while the effect of the configuration pattern A is obtained. As mentioned above, For configuration in each office X1 X2 In the second device 100B of X3, The sheet manufacturing amount is measured by the control device 101B (Fig. 2). The amount of sheet production can be confirmed by the user or the like, And compare each office X1 X2 The amount of sheet material produced by X3. This comparison result is effective information for improving the arrangement of the first device 100A and the second device 100B. E.g, It is easy to take the configuration in which the second device 100B is stopped in an office where the sheet manufacturing amount is small, Or countermeasures to move the second device 100B to another office. also, It is easy to take measures to move the first device 100A to a position close to an office where the sheet manufacturing amount is large. also, When configuring a printing device in each office, Can control the amount of printing in each office, However, measures are taken to move the first device 100A to a position close to an office having a large amount of printing. (Fifth Embodiment) Fig. 8 is a view showing a schematic configuration of a sheet manufacturing system 1 according to a fifth embodiment. The fifth embodiment can be used in a plurality of offices X1. X2 The sheet S is coarsely crushed and defibrated in X3. the following, Points different from the first embodiment will be described. Coarse, The defibrating device, that is, the first device 100A is disposed in the office X1. X2 X3 each. also, The second apparatus 100B, which is a sheet manufacturing apparatus, is disposed in the back field. which is, The fifth embodiment is an arrangement corresponding to the above-described pattern C. At office X1 X2 Each of X3 is provided with a recycling box 11 for recycling waste paper in each office. also, Figure 8 shows the PC used by the users of each office X1 ~ X3 (marked 1X in Figure 8, 2X, 3X and display), And the printing device for printing to the user in each office X1 to X3 (marked 1Y in Fig. 8, 2Y, 3Y and show). Each PC1X, 2X, 3X and printing device 1Y, 2Y, 3Y can be communicatively connected via a communication network NW. The communication network NW is a wired or wireless communication network. A well-known communication network can be widely applied. As shown in Figure 8, Due to office X1 X2 The X3 configuration has coarse, The defibrating device is the first device 100A, Therefore, the user can crush and defoam the waste paper such as confidential paper in the office. It is good for preventing leakage of confidentiality. also, Due to office X1 X2 The X3 is equipped with a recycling box 11, Therefore, the waste paper recovered to the recovery box 11 can also be coarsely crushed and defibrated in the office by the first device 100A. also, As shown by the arrow in Figure 8, The cassette 200 discharged from the first device 100A is carried to the back field. And installed in the second device 100B configured in the rear place, It is used for the manufacture of sheet S. then, The manufactured sheet S is transported from the back yard to each office X1. X2 X3, And installed in each office X1 X2 X3 printing device 1Y, 2Y, 3Y. With this, According to PC1X from each office X1 ~ X3, 2X, The 3X printed material is printed on the sheet S. in this way, Can be in each office X1 X2 In X3, the waste paper is coarsely crushed and defibrated. One side of each office X1 X2 The user of X3 shares the second device 100B which is a sheet manufacturing apparatus. therefore, The number of the second devices 100B can be reduced while the effect of the configuration pattern C is obtained. As mentioned above, For configuration in each office X1 X2 In the first device 100A of X3, The amount of waste paper processed indicating the amount of coarse crushing and defibration is measured by the control device 101A. Confirming the amount of sheet production by the user or the like, And compare each office X1 X2 The amount of waste paper processed by X3. The comparison result is effective information for improving the configuration of the first device 100A. E.g, It is easy to adopt an office that has a small amount of waste paper processing to stop the configuration of the first device 100A, Or a countermeasure to move the first device 100A to another office. also, It is also possible to move the second device 100B to a position close to the office of the office having a large amount of waste paper processing. (sixth embodiment) The sixth embodiment differs from the first embodiment in that the second device 100B, which is a sheet manufacturing apparatus, has a printing unit 1Z that prints the sheet S. Fig. 9 is a block diagram showing the configuration of a control system including the second device 100B of the sixth embodiment. The second device 100B is provided with a sheet supply mechanism (not shown) that supplies the sheet S discharged to the discharge unit 96 to the printing unit 1Z. Further, the manufactured sheet S can be printed by the printing unit 1Z. also, The second device 100B is set to be used to communicate with an external device via the communication network NW (in the example of FIG. 9, PC1X, 2X, 3X, etc. communication unit 105B for communication. The control device 101B of the second device 100B is connected to the PC1X from an external device by the communication unit 105B. 2X, 3X and other receiving printed materials. then, When receiving printed materials, The control device 101B performs print control for printing a print image corresponding to the print material on the sheet S by the printing unit 1Z. According to this configuration, Compared to the case of configuring a separate printing device, The efficiency of setting up the machine is improved. Here, When the control device 101B receives the printed material as a printing start instruction, The sheet S can be manufactured by printing a start instruction as a trigger. Fig. 10 is a flow chart showing an example of the operation when the sheet S is manufactured by the printing start instruction. When the control device 101B receives the print material (corresponding to the print start instruction) (step S1D: Yes (YES)), Based on the amount of printing specified based on the printed materials, It is determined whether or not it is necessary to manufacture the sheet S (step S2D). Whether or not it is necessary to manufacture the sheet S is determined based on the remaining amount of the sheet S remaining in the discharge portion 96. E.g, The control device 101B is configured to detect the remaining amount of the sheet S remaining in the discharge portion 96 by the remaining amount sensor 104B. And when the remaining amount of the sheet S is more than the printing amount, It is determined that it is not necessary to manufacture the sheet S (step S2D: No (NO)). In this case, The control device 101B starts the control of feeding the sheet S remaining in the discharge unit 96 to the printing unit 1Z (step S3D). then, The control device 101B determines whether or not the paper feed is ended (step S4D). When the control device 101B supplies the sheet S of the printing target to the printing unit 1Z, It is determined that the paper feed is ended (step S4D: Yes), And the paper feeding is stopped (step S5D). In step S2D, When the control device 101B remains in the case where the sheet S of the discharge unit 96 does not reach the printing amount (when the printing amount is not satisfied), It is determined that it is necessary to manufacture the sheet S (step S2D: Yes). another, The remaining amount of the sheet S is more than the printing amount, However, if it is still less than the preset set remaining amount, It can also be determined that it is necessary to manufacture the sheet S. In the case where it is determined that the sheet S needs to be manufactured (step S2D: Yes), The control device 101B proceeds to the process of step S6D, And taking the sheet S which is insufficient, as the sheet to be manufactured, Specify the target manufacturing quantity to ensure the number of sheets is insufficient. The target manufacturing quantity can be the same as the insufficient number of sheets. It can also be set to more than the number of sheets. then, The control device 101B starts the manufacture of the sheet S to be manufactured (step S7D). The control device 101B determines whether or not the manufacture of the sheet S is ended (step S8D), At the end of the manufacturing situation, The operation of each unit of the second device 100B is stopped (step S9D). The case where the manufacturing is completed is a case where the manufacturing amount of the sheet S reaches the target manufacturing amount. then, The control device 101B starts the control of feeding the manufactured sheet S to the printing unit 1Z via the discharge unit 96 (step S10D). also, The control device 101B determines whether or not the paper feed of the sheet S is ended (step S11D), And at the end of the paper feeding situation, The control of paper feeding is stopped (step S12D). In the case where the sheet feeding is ended, the sheet S corresponding to the number of sheets of the printing amount is supplied to the printing unit 1Z. With the above, When the sheet S of the printing object is insufficient, Can produce insufficient sheet S, And the paper is fed to the printing unit 1Z. in this way, Since the sheet S can be manufactured by triggering the printing start instruction, Therefore, the sheet S can be manufactured as needed according to the printing start instruction. And, Since it is determined based on the remaining amount of the sheet S whether or not the sheet S is manufactured, Therefore, the sheet S can be automatically replenished appropriately according to the remaining amount of the sheet S. also, Since the second apparatus 100B which is the sheet manufacturing apparatus is integrated with the printing unit 1Z, Therefore, the manufacture of the sheet S can be smoothly performed, And printing of the manufactured sheet S. another, Sheet S can be manufactured on one side, The printing of the sheet S is carried out in parallel. In the sixth embodiment, The second device 100B can be configured to electrostatically manufacture the sheet S. Figure 11 is a view showing the main part when the sheet S is electrostatically produced (hereinafter, The expression is a schematic diagram of the sheet manufacturing unit 75). The sheet manufacturing unit 75 electrostatically transfers the fiber-containing material that is the raw material of the sheet S to the conveyance belt 401 (transferable body). The sheet S is produced by performing treatment after adjusting the surface properties. The sheet manufacturing unit 75 has: Supply unit 410, It supplies fiber-containing material; Carrier 420 (second carrier), It carries the supplied fibrous material; Carrying belt 401, a fiber-containing material carried by the electrostatic transfer; And post-processing unit 430, It is post-processed. In the sheet manufacturing unit 75, The fiber-containing material is electrostatically transferred from the carrier 420 to the transfer target (transport belt 401). With this, It is possible to prevent unevenness in the adhesion amount of the fiber-containing material adhering to the transfer target (transport belt 401). which is, The fiber-containing material is appropriately attached to the transfer target (transport belt 401). the result, The sheet S obtained from the fiber-containing material having a uniform thickness can be stably produced. The fiber-containing material that becomes the raw material consists of cellulose fibers, And a composite of a hydrophobic material covering at least a portion of the cellulose fibers, The sheet S is formed by pressurization and heating by the post-processing unit 430. Cellulose fiber can be derived from cellulose products such as waste paper. Can also be derived from the original pulp, Therefore, fibers containing cellulose can be widely used. E.g, Cellulose fibers obtained by defibrating the waste paper can be used. The hydrophobic material causes the cellulose fibers to adhere to each other to form the sheet S. Furthermore, The hydrophobic material is coated with cellulose fibers, And the charging characteristics of the composite are stabilized. With this, The sheet S can be preferably formed by electrostatic coating. For hydrophobic materials, For example, a thermoplastic resin can be used, Or a curable resin or the like. also, The hydrophobic material may also contain a charge control agent (charge control agent) for obtaining a desired charge characteristic, Or a coloring agent for adjusting the color of the sheet S. As shown in Figure 11, The supply unit 410 stores the storage unit 412, Mixer 413 (Agitator), Roller 414, The first carrier 415, The squeegee 416 is housed in the outer casing portion 411. The storage portion 412 stores a fiber-containing material containing cellulose fibers and a thermoplastic resin. The agitator 413 agitates the fiber-containing material in the storage portion 412. The fiber-containing material is charged by friction during agitation. The fiber-containing material is supplied to the first carrier 415 by the rotation of the roller 414. There is a potential difference between the first carrier 415 and the roller 414. And the static electricity adheres to the fiber-containing material. The squeegee 416 adjusts (thickness) the thickness (adhesion amount) of the fiber-containing material adhering to the first carrier 415 to a specific thickness. And the fiber-containing material is charged by friction. There is a potential difference between the carrier 420 and the first carrier 415. And the static electricity adheres to the fiber-containing material. The carrier 420 is a rotating roller member. The fiber-containing material carried on the carrier 420 is transferred to the conveyor belt 401. Around the carrier 420, A charging portion 422 for charging the outer circumferential surface 421 of the carrier 420 is provided, And an exposure unit 423 that adjusts the potential of the outer peripheral surface 421. Furthermore, The fiber-containing material is transferred to the transfer portion 424 of the conveyance belt 401 by an electrostatic force generated by a potential difference from the carrier 420 around the carrier 420. also, The transfer unit 424 pressurizes the fiber-containing material transferred to the conveyor belt 401 between the carrier 420 and the carrier 420. The thickness of the fiber-containing material is adjusted to a uniform thickness. The conveyor belt 401 is composed of a belt of a ring shape. And it is conveyed by the multiple roller 402. The conveying belt 401 is preferably made of a medium that transfers the fiber-containing material, A resin having a high electrical resistance (volume resistivity: 107 to 1011 Ω·cm). The constituent material is not particularly limited. For example, it can be used for mixing a fluorine-based resin into carbon black. With this, The powder of the fiber-containing material is transferred to the conveyor belt 401 by a potential difference, Further, it is easy to hold the static electricity on the conveyor belt 401. The post-processing unit 430 is provided with: Flattening processing unit 431, It smoothes the surface of the fiber-containing material transferred to the conveyor belt 401; Pressurization processing unit 432, Pressurized fiber-containing material; The semi-curing processing unit 433, It semi-cures the surface of the fibrous material; And curing unit 434, It solidifies the layered fibrous material. The flattening processing unit 431 is a flattening roller 435 having at least a metal surface on the outer peripheral surface thereof. Smoothing the surface of the fiber-containing material by the flattening roller 435, The fiber-containing material is neutralized via a ground line 436. The pressurizing treatment portion 432 bonds the fiber-containing materials to each other by the pressurization of the pressure roller 437. And the density is uniformized. The semi-curing treatment portion 433 has a chamber 438 made of a heat insulating material, And a heater 439 disposed in the chamber 438, The surface of the fiber-containing material is semi-cured by heating by the heater 439. The curing portion 434 has a curing roller 440, And a heater 441 disposed in the curing roller 440, The curing roller 440 is heated by energizing the heater 441, And heating the fiber-containing material by the curing roller 440, The fibrous material is pressurized in the direction in which the layer thickness is reduced. With this, The thermoplastic resin in the fiber-containing material is melted, And after the molten thermoplastic resin passes through the curing roller 440, For example, it is naturally cooled to adhere and cure. in this way, Producing a fiber-containing material that is suitably cured, That is, the sheet S. A blower fan (not shown) that facilitates peeling of the sheet S from the conveyance belt 401 is provided downstream of the post-processing unit 430, And a cutting unit 90 (not shown) or the like. The sheet manufacturing portion 75 does not require the formation of a mesh or the like. Therefore, it is easy to shorten the manufacturing time of the sheet S. therefore, When the sheet S is manufactured by the control or the like shown in FIG. 10, The sheet S can be manufactured in a short time. another, The above embodiments are only specific embodiments of the invention described in the scope of the claims. Not limiting the inventor, It is also not intended that all of the configurations described in the respective embodiments are essential components of the present invention. also, The invention is not limited to the constituents of the respective embodiments. It can be implemented in various aspects without departing from the spirit of the invention. E.g, In various embodiments, The case where the present invention is applied to the dry sheet manufacturing system 1 is explained. But it is not limited to this. For example, the present invention can be applied to put a material containing fibers into water, A sheet manufacturing system for producing a sheet by a wet type (for example, a wet paper making method) which is subjected to fiber dissociation and reconstituted. In the case of wet, E.g, The coarse crushed material is put into a pulverizer to wet the fiber, And do not compress the paper, It is stored (filled) in the dry state to the cassette 200. also, Can replace the method of being stored in the cassette 200, Since the defibrated fiber contains moisture, Therefore, the defibrating fiber is subjected to extrusion treatment such that the defibrated fiber has shape retainability. It is also possible to easily form the defibrated fiber in a movable form. In this case, It is easy to treat the defibrated fiber into a state of shape retention. also, The sheet manufacturing system 1 may be configured to produce a plate shape composed of a hard sheet or a laminated sheet. Or the manufacture of the mesh, It is not limited to the sheet S. also, The properties of the sheet S are not particularly limited. It can be used as a recording paper for writing or printing (for example, PPC (Plain Paper Copy: Plain paper photocopying) paper) paper used, Can also be wallpaper, wrapper, Colored paper, Painting paper, Kent Paper, etc. also, When the sheet S is a non-woven fabric, In addition to the general non-woven fabric, Can also be used as a fiberboard, toilet paper, Kitchen paper, Cleaning sheet, Filter, Liquid absorbing material, Sound absorbing material, Buffer material, Gaskets, etc. also, The present invention is not limited to the case of being applied to the sheet manufacturing system 1, It is also possible to only apply the defibrating device having the defibrating unit 20, The present invention is applied to a sheet manufacturing apparatus for producing a sheet S by defibrating fibers. In this case, The defibrating device is configured as a device having at least the defibrating unit 20 and the fiber processing unit 40, E.g, Using the first device 100A, The composition of 110A. According to this configuration, Easy to handle defibrated fibers, The defibrating device can be easily installed in an office or the like. also, The sheet manufacturing apparatus is configured to have a supply port 46 to which a disintegrated fiber of a movable form is supplied, And using the device for producing the sheet S by the dismantled fiber of the movable form supplied to the supply port 46, E.g, The configuration of the second device 100B is employed. According to this configuration, Sheets can be made from dismantled fibers in a formable form, Moreover, it is easy to install a sheet manufacturing apparatus in an office or the like. also, The use side device using the manufactured sheet S is not limited to the printing device 1Y, 2Y, 3Y and Printing Department 1Z, A device capable of utilizing the sheet S can be widely applied. also, At least a part of the functional blocks shown in each figure can be implemented by hardware. It can also be realized by the cooperation of hardware and software. It is not limited to the configuration of a separate hardware resource. also, The executed program can be memorized in the non-volatile memory, Or other memory device (omitted from illustration). It can also be configured to receive a program that is stored in an external device.

1‧‧‧片材製造系統1‧‧‧Sheet Manufacturing System

1‧‧‧料筒1‧‧‧Bowl

2‧‧‧管2‧‧‧ tube

3‧‧‧管3‧‧‧ tube

4‧‧‧管4‧‧‧ tube

7‧‧‧管7‧‧‧ tube

8‧‧‧管8‧‧‧ tube

9‧‧‧管9‧‧‧ tube

10‧‧‧供給部10‧‧‧Supply Department

11‧‧‧回收盒11‧‧‧Recycling box

12‧‧‧粗碎部12‧‧‧Grade

12X‧‧‧粗碎部12X‧‧‧Grunting Department

12K‧‧‧供給口12K‧‧‧ supply port

14‧‧‧粗碎刃14‧‧‧

20‧‧‧解纖部20‧‧‧Defibration Department

22‧‧‧導入口22‧‧‧Import

23‧‧‧導入口23‧‧‧Import

24‧‧‧排出口24‧‧‧Export

20K‧‧‧供給口20K‧‧‧ supply port

30‧‧‧分選部30‧‧‧Sorting Department

31‧‧‧轉筒部31‧‧‧Turning Department

32‧‧‧導入口32‧‧‧Import

33‧‧‧外殼部33‧‧‧ Shell Department

34‧‧‧排出口34‧‧‧Export

35‧‧‧第1網狀物形成部35‧‧‧1st mesh formation

36‧‧‧網帶36‧‧‧Net belt

37‧‧‧輥37‧‧‧ Roll

38‧‧‧吸引部38‧‧‧Attraction

39‧‧‧旋轉體39‧‧‧Rotating body

40‧‧‧纖維處理部(處理部)40‧‧‧Fiber Processing Department (Processing Department)

40A‧‧‧粗碎物處理部(處理部)40A‧‧‧Gravity Processing Department (Processing Department)

42‧‧‧排出部42‧‧‧Exporting Department

42A‧‧‧排出部42A‧‧‧Exporting Department

45‧‧‧纖維供給部45‧‧‧Fiber Supply Department

45A‧‧‧粗碎物供給部45A‧‧‧Gravel Supply Department

46‧‧‧供給口46‧‧‧ supply port

46A‧‧‧供給口46A‧‧‧ supply port

50‧‧‧添加物混合部50‧‧‧Additive Mixing Department

52‧‧‧添加物供給部52‧‧‧Additive Supply Department

56‧‧‧混合鼓風機56‧‧‧Mixed air blower

60‧‧‧堆積部60‧‧‧Stacking Department

61‧‧‧轉筒部61‧‧‧Turning Department

62‧‧‧導入口62‧‧‧Import

63‧‧‧外殼部63‧‧‧Shell Department

70‧‧‧片材形成部70‧‧‧Sheet forming department

71‧‧‧第2網狀物形成部71‧‧‧2nd mesh formation

72‧‧‧網帶72‧‧‧Net belt

74‧‧‧輥74‧‧‧roll

75‧‧‧片材製造部75‧‧‧Sheet Manufacturing Department

76‧‧‧抽吸機構76‧‧‧sucking mechanism

78‧‧‧加濕部78‧‧‧Humidification Department

79‧‧‧搬送部79‧‧‧Transportation Department

82‧‧‧加壓部82‧‧‧ Pressurization

84‧‧‧加熱部84‧‧‧heating department

85‧‧‧壓輥85‧‧‧pressure roller

86‧‧‧加熱輥86‧‧‧heating roller

90‧‧‧切斷部90‧‧‧cutting department

92‧‧‧第1切斷部92‧‧‧1st cut-off

94‧‧‧第2切斷部94‧‧‧2nd cut-off

96‧‧‧排出部96‧‧‧Exporting Department

100A‧‧‧第1裝置100A‧‧‧1st device

100B‧‧‧第2裝置(片材製造部)100B‧‧‧Second device (sheet manufacturing department)

101A‧‧‧控制裝置101A‧‧‧Control device

101B‧‧‧控制裝置101B‧‧‧Control device

102A‧‧‧操作部102A‧‧‧Operation Department

102B‧‧‧操作部102B‧‧‧Operation Department

103A‧‧‧顯示部103A‧‧‧Display Department

103B‧‧‧顯示部103B‧‧‧Display Department

104A‧‧‧剩餘量感測器104A‧‧‧Remaining sensor

104B‧‧‧剩餘量感測器104B‧‧‧Remaining sensor

105B‧‧‧通信部105B‧‧‧Communication Department

110A‧‧‧第1裝置110A‧‧‧1st device

110C‧‧‧第3裝置110C‧‧‧3rd device

111A‧‧‧控制裝置111A‧‧‧Control device

111C‧‧‧控制裝置111C‧‧‧Control device

112A‧‧‧操作部112A‧‧‧Operation Department

112C‧‧‧操作部112C‧‧‧Operation Department

113A‧‧‧顯示部113A‧‧‧Display Department

113C‧‧‧顯示部113C‧‧‧Display Department

114A‧‧‧剩餘量感測器114A‧‧‧Remaining sensor

114C‧‧‧剩餘量感測器114C‧‧‧Remaining sensor

120A‧‧‧第4裝置120A‧‧‧4th device

121A‧‧‧控制裝置121A‧‧‧Control device

122A‧‧‧操作部122A‧‧‧Operation Department

123A‧‧‧顯示部123A‧‧‧Display Department

124A‧‧‧剩餘量感測器124A‧‧‧Remaining sensor

200‧‧‧卡匣200‧‧‧Carmen

210‧‧‧卡匣210‧‧‧Carmen

401‧‧‧搬送帶401‧‧‧Transportation belt

402‧‧‧輥402‧‧‧ Roll

410‧‧‧供給部410‧‧‧Supply Department

411‧‧‧外殼部411‧‧‧ Shell Department

412‧‧‧儲存部412‧‧‧ Storage Department

413‧‧‧攪拌機413‧‧‧Mixer

414‧‧‧輥414‧‧‧roll

415‧‧‧第1載持體415‧‧‧1st carrier

416‧‧‧刮板416‧‧‧Scraper

420‧‧‧載持體420‧‧‧ Carrying body

421‧‧‧外周面421‧‧‧ outer perimeter

422‧‧‧帶電部422‧‧‧Power Department

423‧‧‧曝光部423‧‧‧Exposure Department

424‧‧‧轉印部424‧‧‧Transfer Department

430‧‧‧後處理部430‧‧‧Reprocessing Department

431‧‧‧推平處理部431‧‧‧ Flattening Department

432‧‧‧加壓處理部432‧‧‧ Pressurization Department

433‧‧‧半固化處理部433‧‧‧ Semi-curing treatment department

434‧‧‧固化部434‧‧‧Cure Department

435‧‧‧推平輥435‧‧‧Pushing roller

436‧‧‧接地線436‧‧‧ Grounding wire

437‧‧‧加壓輥437‧‧‧Pressure roller

438‧‧‧腔室438‧‧‧室

439‧‧‧加熱器439‧‧‧heater

440‧‧‧固化輥440‧‧‧curing roller

441‧‧‧加熱器441‧‧‧heater

1X‧‧‧PC1X‧‧‧PC

2X‧‧‧PC2X‧‧‧PC

3X‧‧‧PC3X‧‧‧PC

1Y‧‧‧印刷裝置1Y‧‧‧Printing device

2Y‧‧‧印刷裝置2Y‧‧‧Printing device

3Y‧‧‧印刷裝置3Y‧‧‧Printing device

1Z‧‧‧印刷部1Z‧‧‧Printing Department

F‧‧‧搬送方向F‧‧‧Transfer direction

NW‧‧‧通信網路NW‧‧‧Communication Network

S‧‧‧片材S‧‧‧Sheet

S1D～S12D‧‧‧步驟S1D～S12D‧‧‧ steps

V1‧‧‧速度V1‧‧‧ speed

V2‧‧‧速度V2‧‧‧ speed

W1‧‧‧第1網狀物W1‧‧‧1st mesh

W2‧‧‧第2網狀物W2‧‧‧2nd mesh

X1‧‧‧辦公室X1‧‧ office

X2‧‧‧辦公室X2‧‧ office

X3‧‧‧辦公室X3‧‧ office

圖1係顯示第1實施形態之片材製造系統之構成之圖。圖2係顯示片材製造系統之包含控制系統之構成的方塊圖。圖3係顯示複數種配置樣式例之圖。圖4係顯示第2實施形態之片材製造系統之包含控制系統之構成的方塊圖。圖5係顯示複數種配置樣式例之圖。圖6係顯示第3實施形態之片材製造系統之包含控制系統之構成的方塊圖。圖7係顯示第4實施形態之片材製造系統之概要構成之圖。圖8係顯示第5實施形態之片材製造系統之概要構成之圖。圖9係顯示第6實施形態之第2裝置之包含控制系統之構成的方塊圖。圖10係顯示製造片材時之動作例之流程圖。圖11係供說明第6實施形態之變化例之圖。Fig. 1 is a view showing the configuration of a sheet manufacturing system according to a first embodiment. Figure 2 is a block diagram showing the construction of a control system including a sheet manufacturing system. Fig. 3 is a view showing an example of a plurality of configuration patterns. Fig. 4 is a block diagram showing the configuration of a control system including a sheet manufacturing system according to a second embodiment. Fig. 5 is a view showing an example of a plurality of configuration patterns. Fig. 6 is a block diagram showing the configuration of a control system including a sheet manufacturing system according to a third embodiment. Fig. 7 is a view showing a schematic configuration of a sheet manufacturing system according to a fourth embodiment. Fig. 8 is a view showing a schematic configuration of a sheet manufacturing system according to a fifth embodiment. Fig. 9 is a block diagram showing the configuration of a control system including a second device of the sixth embodiment. Fig. 10 is a flow chart showing an example of the operation when a sheet is manufactured. Fig. 11 is a view for explaining a modification of the sixth embodiment.

Claims

A sheet manufacturing system comprising: a defibrating unit that defibrates a raw material containing fibers; a sheet manufacturing unit that produces a sheet; and a processing unit that sets the defibrated fiber from which the defibrating unit is defibrated The sheet forming unit is configured to produce the sheet by using the disintegrated fiber of the movable form.

The sheet manufacturing system according to claim 1, wherein the processing unit stores the defibrated fibers defibrated by the defibrating unit in a container.

The sheet manufacturing system of claim 1, wherein the processing unit processes the defibrated fibers defibrated by the defibrating unit into a shape retaining state.

The sheet manufacturing system according to claim 2 or 3, wherein the processing unit processes the defibrated fiber into any of a plate shape, a rectangular parallelepiped shape, and a spherical shape.

The sheet manufacturing system of claim 2, wherein the processing unit vacuum-packs the defibrated fiber.

The sheet manufacturing system according to any one of claims 1 to 5, wherein the disintegrating fiber of the above-described movable form comprises a binder.

The sheet manufacturing system according to any one of claims 1 to 6, comprising: a first device having the defibrating unit; and a second device having the sheet manufacturing unit.

The sheet manufacturing system of claim 7, wherein the first device and the second device are independently operable.

The sheet manufacturing system according to any one of claims 1 to 8, wherein the sheet manufacturing unit has a printing unit that prints on the sheet.

The sheet manufacturing system of claim 9, wherein the sheet manufacturing unit manufactures the sheet by triggering a printing start instruction.

A sheet manufacturing system according to claim 7 or 8, comprising a third device having a coarsely crushed portion of the raw material of the defibrated object obtained by coarsely pulverizing the paper.

The sheet manufacturing system according to any one of claims 1 to 11, wherein the defibrating unit is dry.

The sheet manufacturing system according to any one of claims 1 to 11, wherein the defibrating portion is wet.

A defibrating device comprising: a defibrating unit that defibrates a raw material containing fibers; and a processing unit that converts the defibrated fibers from which the defibrating unit is defibrated into a movable form.

A sheet manufacturing apparatus comprising a supply port for supplying a defibrated fiber in a movable form, and a sheet manufacturing unit for producing a sheet by the defibrated fiber supplied to the supply port.