TW200422672A - RFID-equipped identification member and method of producing the same, and optical fiber cable using identification member - Google Patents

RFID-equipped identification member and method of producing the same, and optical fiber cable using identification member Download PDF

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Publication number
TW200422672A
TW200422672A TW93103216A TW93103216A TW200422672A TW 200422672 A TW200422672 A TW 200422672A TW 93103216 A TW93103216 A TW 93103216A TW 93103216 A TW93103216 A TW 93103216A TW 200422672 A TW200422672 A TW 200422672A
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Taiwan
Prior art keywords
rfid
tape body
tape
buffer
long
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TW93103216A
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Chinese (zh)
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TWI234017B (en
Inventor
Takeshi Honjyou
Kazunaga Kobayashi
Satoru Shiobara
Osamu Koyasu
Ken Ohsato
Masashi Hara
Shimei Tanaka
Keiji Ohashi
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Fujikura Ltd
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Publication of TW200422672A publication Critical patent/TW200422672A/en
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Publication of TWI234017B publication Critical patent/TWI234017B/en

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    • G—PHYSICS
    • G06—COMPUTING; CALCULATING OR COUNTING
    • G06K—GRAPHICAL DATA READING; PRESENTATION OF DATA; RECORD CARRIERS; HANDLING RECORD CARRIERS
    • G06K19/00—Record carriers for use with machines and with at least a part designed to carry digital markings
    • G06K19/06—Record carriers for use with machines and with at least a part designed to carry digital markings characterised by the kind of the digital marking, e.g. shape, nature, code
    • G06K19/067—Record carriers with conductive marks, printed circuits or semiconductor circuit elements, e.g. credit or identity cards also with resonating or responding marks without active components
    • G06K19/07—Record carriers with conductive marks, printed circuits or semiconductor circuit elements, e.g. credit or identity cards also with resonating or responding marks without active components with integrated circuit chips
    • G06K19/077—Constructional details, e.g. mounting of circuits in the carrier
    • G06K19/07718—Constructional details, e.g. mounting of circuits in the carrier the record carrier being manufactured in a continuous process, e.g. using endless rolls
    • G—PHYSICS
    • G02—OPTICS
    • G02B—OPTICAL ELEMENTS, SYSTEMS OR APPARATUS
    • G02B6/00—Light guides; Structural details of arrangements comprising light guides and other optical elements, e.g. couplings
    • G02B6/44—Mechanical structures for providing tensile strength and external protection for fibres, e.g. optical transmission cables
    • G02B6/4479—Manufacturing methods of optical cables
    • G02B6/4482—Code or colour marking
    • G—PHYSICS
    • G06—COMPUTING; CALCULATING OR COUNTING
    • G06K—GRAPHICAL DATA READING; PRESENTATION OF DATA; RECORD CARRIERS; HANDLING RECORD CARRIERS
    • G06K19/00—Record carriers for use with machines and with at least a part designed to carry digital markings
    • G06K19/04—Record carriers for use with machines and with at least a part designed to carry digital markings characterised by the shape
    • G06K19/041—Constructional details
    • G—PHYSICS
    • G06—COMPUTING; CALCULATING OR COUNTING
    • G06K—GRAPHICAL DATA READING; PRESENTATION OF DATA; RECORD CARRIERS; HANDLING RECORD CARRIERS
    • G06K19/00—Record carriers for use with machines and with at least a part designed to carry digital markings
    • G06K19/04—Record carriers for use with machines and with at least a part designed to carry digital markings characterised by the shape
    • G06K19/041—Constructional details
    • G06K19/047—Constructional details the record carrier being shaped as a coin or a gambling token
    • G—PHYSICS
    • G06—COMPUTING; CALCULATING OR COUNTING
    • G06K—GRAPHICAL DATA READING; PRESENTATION OF DATA; RECORD CARRIERS; HANDLING RECORD CARRIERS
    • G06K19/00—Record carriers for use with machines and with at least a part designed to carry digital markings
    • G06K19/06—Record carriers for use with machines and with at least a part designed to carry digital markings characterised by the kind of the digital marking, e.g. shape, nature, code
    • G06K19/067—Record carriers with conductive marks, printed circuits or semiconductor circuit elements, e.g. credit or identity cards also with resonating or responding marks without active components
    • G06K19/07—Record carriers with conductive marks, printed circuits or semiconductor circuit elements, e.g. credit or identity cards also with resonating or responding marks without active components with integrated circuit chips
    • G06K19/077—Constructional details, e.g. mounting of circuits in the carrier
    • G06K19/0772—Physical layout of the record carrier
    • G06K19/07728—Physical layout of the record carrier the record carrier comprising means for protection against impact or bending, e.g. protective shells or stress-absorbing layers around the integrated circuit
    • G—PHYSICS
    • G06—COMPUTING; CALCULATING OR COUNTING
    • G06K—GRAPHICAL DATA READING; PRESENTATION OF DATA; RECORD CARRIERS; HANDLING RECORD CARRIERS
    • G06K19/00—Record carriers for use with machines and with at least a part designed to carry digital markings
    • G06K19/06—Record carriers for use with machines and with at least a part designed to carry digital markings characterised by the kind of the digital marking, e.g. shape, nature, code
    • G06K19/067—Record carriers with conductive marks, printed circuits or semiconductor circuit elements, e.g. credit or identity cards also with resonating or responding marks without active components
    • G06K19/07—Record carriers with conductive marks, printed circuits or semiconductor circuit elements, e.g. credit or identity cards also with resonating or responding marks without active components with integrated circuit chips
    • G06K19/077—Constructional details, e.g. mounting of circuits in the carrier
    • G06K19/07749—Constructional details, e.g. mounting of circuits in the carrier the record carrier being capable of non-contact communication, e.g. constructional details of the antenna of a non-contact smart card
    • H—ELECTRICITY
    • H01—ELECTRIC ELEMENTS
    • H01B—CABLES; CONDUCTORS; INSULATORS; SELECTION OF MATERIALS FOR THEIR CONDUCTIVE, INSULATING OR DIELECTRIC PROPERTIES
    • H01B7/00—Insulated conductors or cables characterised by their form
    • H01B7/36—Insulated conductors or cables characterised by their form with distinguishing or length marks
    • H01B7/368—Insulated conductors or cables characterised by their form with distinguishing or length marks being a sleeve, ferrule, tag, clip, label or short length strip
    • H—ELECTRICITY
    • H02—GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02G—INSTALLATION OF ELECTRIC CABLES OR LINES, OR OF COMBINED OPTICAL AND ELECTRIC CABLES OR LINES
    • H02G9/00—Installations of electric cables or lines in or on the ground or water
    • H02G9/02—Installations of electric cables or lines in or on the ground or water laid directly in or on the ground, river-bed or sea-bottom; Coverings therefor, e.g. tile
    • H02G9/025—Coverings therefor, e.g. tile
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04B—TRANSMISSION
    • H04B10/00—Transmission systems employing electromagnetic waves other than radio-waves, e.g. infrared, visible or ultraviolet light, or employing corpuscular radiation, e.g. quantum communication
    • H04B10/25—Arrangements specific to fibre transmission
    • H04B10/2575—Radio-over-fibre, e.g. radio frequency signal modulated onto an optical carrier
    • H04B10/25752—Optical arrangements for wireless networks

Landscapes

  • Engineering & Computer Science (AREA)
  • Physics & Mathematics (AREA)
  • General Physics & Mathematics (AREA)
  • Theoretical Computer Science (AREA)
  • Microelectronics & Electronic Packaging (AREA)
  • Computer Hardware Design (AREA)
  • Computer Networks & Wireless Communication (AREA)
  • Signal Processing (AREA)
  • Electromagnetism (AREA)
  • Manufacturing & Machinery (AREA)
  • Optics & Photonics (AREA)
  • Electric Cable Installation (AREA)
  • Optical Fibers, Optical Fiber Cores, And Optical Fiber Bundles (AREA)
  • Insulated Conductors (AREA)
  • Laying Of Electric Cables Or Lines Outside (AREA)

Abstract

An identification member (15) includes a long-sized tape body (25). The identification member includes a plurality of RFIDs (23) disposed on one surface of the tape body (25) at suitable longitudinally spaced intervals. The identification member includes a spacer (29) that is stuck to the vicinity of the RFID (23) to protect the latter from the external force and that is thicker than the RFID (23).

Description

200422672 Π) 玖、發明說明 【發明所屬之技術領域】 本發明係有關一種具備從所敷設之多數條纜線中可容 易識別目的之纜線的 RFID ( Radio Frequency Identification )之無線辨識系統之辨識零件及其製造方法 、以及使用有識別零件之光纖纜線。 【先前技術】 例如，在槽內敷設有多數個光纖纜線。以2.5至5km 間隔設置有機器室，上述多數個纜線係與各機器室的連接 端子連接。上述的連接端子之各纜線的管理以及纜線撤去 時必須確實進行各纜線的識別。 以往的識別方法係在纜線的外皮表面施加識別用印字 ，或識別用標籤安裝於各纜線的終端部之方法。識別用印 字係使製造者名/製造年月/纜線品名/長度等的纜線資 訊以墨水、熱轉寫、雷射等顯示於纜線表面。爲識別用標 籤之情況時，例如在薄的金屬板刻印上述的項目之纜線資 訊並黏貼於各纜線，或是以金屬線等懸掛（例如，特開平 6-60750號公報（段落〔0012〕至〔0013〕，參照第1圖 )° 其他的纜線識別方法係將光纜線的布設關連資訊2次 元QR碼化而印刷的QR碼印刷紙黏貼於光纜線的外皮。 在維修等之際，藉以條碼閱讀器掃描QR碼印刷紙上，在 敷設現場讀取出所記錄的資訊。Q R碼印刷紙係取代條碼 -5- (2) 200422672 、磁卡、1C卡同樣讀取出光纜線的資訊（ 開200卜2 1 73 0號公報（段落〔0012〕至〔 圖）。 然而，在習知的纜線識別方法中，在纜 別用印字時，印字於纜線的長邊方向。因此 多時，無法無法確認不使埋設在槽或地下的 路出。除了長區間除去槽的蓋或土沙，使工 。因此，期望識別用印字的全體之長度爲1 ，由於可印字lm左右的文字數有限，因此 載需要的資訊。 識別用印字在經過長時間而摩擦時，文 生不能判斷之問題。 使用識別用標籤之方法時，在長尺的纜 定間隔安裝。因而，使標籤數量增加，成本 寫入至識別用標籤的文字數亦有限制， 載需要的資訊。識別用標籤係以刻印等寫入 與識別用印字相同，當經過長時間時，文字 法判斷。 當Q R碼印刷紙、條碼、磁卡、IC卡等 的外皮之識別子係具有少的寫入資訊。該連 時間且摩擦而變成無法辨識。 需要識別纜線之情況是在重新黏貼或撤 數條纜線確定目的之纜線。但是，識別用印 籤或QR碼印刷紙、條碼不明顯，又相同的 例如，參照特 0018〕）第 1 線表面施加識 ，當文字數變 纜線之長區間 程的成本上升 m以下。但是 不可能全部記 字會消失，產 線上必須以固 亦提升。 不可能全部記 文字。但是， 會消失導致無 黏貼於光纜線 長體係經過長 去作業時從多 字或識別用標 內容之顯示的 -6 - (3) (3)200422672 複數條纜線時，在確定資訊時將花費相當多時間。 但是’若切斷不同的續線時’產生以該纜線動的{口 號控制的機器之誤動作或資訊的停止，將引起重大的事故 【發明內容】 本發明之目的在於提供一種容易從多複條纜線中確實 識別目的之纜線的識別構件。發明之其他目的在於提供一 種減少施加至纜線的外力的不良影響之識別構件。 發明之第1特徵係包含以下的要素之識別構件。識別 構件係包含長尺的膠帶體。識別構件係包含複數個RFID (Radio Freguency Identification;無線頻率數識別），係 在該膠帶體的單面上介以適當間隔配列於其長邊方向。識 別構件係包含間隔件，係用以保護該RFID免於外力影響 而黏貼於上述RFID附近且具有比上述RFID大的厚度。 上述間隔件具有可黏貼於上述膠帶體的單面之長尺的 膠帶狀。上述間隔件係具有分別將上述複數個R F ID收容 於內部之複數個孔部。 上述間隔件具有可黏貼於上述膠帶體的單面之膠帶狀 。上述間隔件係挾住上述複數個之各RFID並配置於其兩 側。 上述間隔件係可黏貼於上述膠帶體的單面。上述間隔 件具備具有可收容上述RFID之孔部的環形狀。 發明之第2特徵係包含以下要素的識別構件。識別構 (4) (4)200422672 件係包含長尺的膠帶體或第1緩衝體。識別構件係包含複 數個RFID，係在上述膠帶體或第1緩衝體的單面介以適 當間隔配列於其長邊方向。識別構件係包含第2緩衝體’ 係從外側覆蓋用以吸收施加至該RFID的外力而保護的上 述RFID且黏貼於上述膠帶體或第1緩衝體。 上述第2緩衝體係具有可覆蓋複數個RFID之長尺的 膠帶狀或可覆蓋各RFID之碟形狀。 發明之第3特徵係包含以下要素的識別構件。識別構 件係包含長尺的第1膠帶體。識別構件係包含複數個 RFID，係在上述第1膠帶體的單面介以適當間隔配列於 其長邊方向。識別構件係包含緩衝體，係以將用以吸收施 加至該RFID的外力而保護的上述RFID挾於上述第1膠 帶體之間的方式重疊。識別構件係包含第2膠帶體，係從 外側覆蓋該緩衝體且黏貼於上述第1膠帶體。 發明之第4特徵係包含以下要素的識別構件。識別構 件係包含長尺的第1膠帶體。識別構件係包含複數個 RFID，係在該第1膠帶體的單面介以適當間隔配列於其 長邊方向。識別構件係包含第2膠帶體，係從外側覆蓋該 RFID且黏貼於上述第1膠帶體。識別構件係包含緩衝體 ，係黏貼於用以吸收施加至該R FID的外力而保護的第2 膠帶體之外側。 發明之第5特徵係包含以下要素的識別構件。識別構 件係包含長尺的第1膠帶體。識別構件係包含複數個 R FID，係在上述第1膠帶體的單面介以適當間隔配列於 (5) (5)200422672 其長邊方向。識別構件係包含封入緩衝物，係從外側將用 以吸收施加至該RFID的外力而保護的上述RFID封入至 上述第1膠帶體之間。識別構件係包含第2膠帶體，係從 外側覆蓋該封入緩衝體且黏貼於上述第】膠帶體。 發明之第6特徵係包含以下步驟的識別構件之製造方 法。製造方法係包含在長尺的膠帶體之單面於該膠帶體的 長邊方向介以適當間隔配列複數個RFID之步驟。識別構 件係包含將具有保護上述複數個RFID免於外力影響之厚 度大於上述RFID的間隔件黏貼於上述RFID附近。 發明之第7特徵係包含以下步驟的識別構件之製造方 法。製造方法係包含在長尺的膠帶體或第1緩衝體的單面 於該膠帶體或第1緩衝體的長邊方向介以適當間隔配列複 數個RFID之步驟。製造方法係包含以用以吸收施加於上 述RFID之外力而保護的第2緩衝體覆蓋上述RFID外側 並將上述第2緩衝體黏貼於膠帶體或第1緩衝體之步驟。 發明之第8特徵係包含以下步驟的識別構件之製造方 法。製造方法係包含在長尺的第1膠帶體單面於該第1膠 帶體的長邊方向介以適當間隔配列複數個RFID之步驟。 製造方法係包含以將用以吸收施加於上述RFID之外力而 保護的上述RFID挾住在緩衝體與上述第1膠帶體之間的 方式重疊’以第2膠帶體從外側覆蓋上述緩衝體並將上述 第2膠帶體黏貼於第1膠帶體之步驟。 發明之第9特徵係包含以下步驟的識別構件之製造方 法。製造方法係包含在長尺的第丨膠帶體單面於該第1膠 (6) (6)200422672 帶體的長邊方向介以適當間隔配列複數個RFID之步驟。 製造方法係包含以第2膠帶體從外側覆蓋上述RFID並將 上述第2膠帶體黏貼於上述第1膠帶體之步驟。製造方法 係包含將用以吸收施加於上述RF I D之外力而保護的緩衝 體黏貼於上述第2膠帶體的外側之步驟。 發明之第1 〇特徵係包含以下步驟的識別構件之製造 方法。製造方法係包含在長尺的第1膠帶體單面於該第1 膠帶體的長邊方向介以適當間隔配列複數個RFID之步驟 。製造方法係包含藉由用以吸收施加於上述RFID的外力 而保護之封入緩衝物，將上述RFID從外側封入至上述第 1膠帶體之間的步驟。製造方法係包含以上述第2膠帶體 殂外側覆蓋上述封入緩衝物，並將上述第2膠帶體黏貼於 第1膠帶體之步驟。 發明之第1 1特徵係包含以下要素的光纖纜線。光纖 纜線係包含外皮構件，係大致爲圓筒形狀。光纖纜線係包 含收納部，係在該外皮構件的內部收納抗張力體與複數條 光纖芯線。光纖纜線係包含識別構件，係縱方向配置於上 述外皮構件的內部或表面。該識別構件係包含長尺的膠帶 體。識別構件係包含複數個RFID，係在該膠帶體的單面 介以適當間隔配列於其長邊方向。識別構件係包含間隔件 ，係黏貼於用以吸收施加於該RFID的外力而保護的上述 RFID附近，且具有比上述RFID大的厚度。 上述間隔件具有可黏貼於上述膠帶體的單面之長尺的 膠帶狀。上述間隔件係具有將上述複數個各RFID收容於 -10- (7) (7)200422672 內部的複數個孔部。 上述間隔件具有可黏貼於上述膠帶體單面之膠帶狀。 上述間隔件係挾住上述複數個之各RFID並配置於其兩側 〇 上述間隔件係可黏貼於上述膠帶體的單面。上述間隔 件係具備具有可收容上述RFID之孔部的環形狀。 發明之第12特徵係包含以下要素的光纖纜線。光纖 纜線係包含外皮構件，係大致爲圓筒形狀。光纖纜線係包 含收納部，係在該外皮構件的內部收納抗張力體與複數條 光纖芯線。光纖纜線係包含識別構件，係縱方向配置於上 述外皮構件的內部或表面。上述識別構件係包含長尺的膠 帶體或第1緩衝體。識別構件係包含複數個RFID，係在 該膠帶體或第1緩衝體的單面介以適當間隔配列於其長邊 方向。識別構件係包含第2緩衝體，係從外側覆蓋用以吸 收施加於該RFID的外力而保護上述RFID，且黏貼於上 述膠帶體或第1緩衝體。 上述第2緩衝體係具有可覆蓋複數個RFID之長尺的 膠帶狀、或可覆蓋各RFID的碟形狀。 發明之第13特徵係包含以下要素的光纖纜線。光纖 纜線係包含外皮構件，係大致爲圓筒形狀。光纖纜線係包 含收納部，係在該外皮構件的內部收納抗張力體與複數條 光纖芯線。光纖纜線係包含識別構件，係縱方向配置於上 述外皮構件的內部或表面。上述識別構件係包含長尺的第 1膠帶體。識別構件係包含複數個RFID，係在該第1膠 -11 - (8) (8)200422672 帶體的單面介以適當間隔配列於其長邊方向。識別構件係 包含緩衝體，係以將用以吸收施加於該RFID的外力而保 護上述RFID挾住在上述第1膠帶體之間的方式重疊。識 別構件係包含第2膠帶體，係從外側覆蓋上述緩衝體並黏 貼於上述第1膠帶體。 發明之第14特徵係包含以下要素的光纖纜線。光纖 纜線係包含外皮構件，係大致爲圓筒形狀。光纖纜線係包 含收納部，係在該外皮構件的內部收納抗張力體與複數條 光纖芯線。光纖纜線係包含識別構件，係縱方向配置於上 述外皮構件的內部或表面。上述識別構件係包含長尺的第 1膠帶體。識別構件係包含複數個RFID，係在該第1膠 帶體的單面介以適當間隔配列於其長邊方向。識別構件係 包含第2膠帶體，係從外側覆蓋該RFID並黏貼於上述第 1膠帶體。識別構件係包含緩衝體，係黏貼於用以吸收施 加於上述RFID之外力而保護的上述第2膠帶體外側。 發明之第15特徵係包含以下要素的光纖纜線。光纖 纜線係包含外皮構件，係大致爲圓筒形狀。光纖纜線係包 含收納部，係在該外皮構件的內部收納抗張力體與複數條 光纖芯線。光纖纜線係包含識別構件，係縱方向配置於上 述外皮構件的內部或表面。上述識別構件係包含長尺的第 1膠帶體。識別構件係包含複數個RFID，係在該第1膠 帶體的單面介以適當間隔配列於其長邊方向。識別構件係 包含封入緩衝物，係從外側將用以吸收施加於該RFID的 外力而保護的上述RFID封入至上述第1膠帶體之間。識 -12- (9) (9)200422672 別構件係包含第2膠帶體，係從外側覆蓋上述封入緩衝物 ，並黏貼於上述第1膠帶體。 根據以上發明的特徵，由於在其附近以大於上述 RFID之厚度的間隔件保護RFID，因此可提升識別構件的 機械性強度。藉此，即使在識別構件施加外力，亦可以間 隔件吸收外力防止RFID的破損。 藉由在比該RFID厚的膠帶狀之間隔件的孔部包圍 RFID可確實保護RFID。 以位於RFID附近兩側的2片厚的膠帶狀之間隔件可 確實保護RFID。 以比RFID厚的環狀間隔件的孔部包圍RFID可確實 保護RFID。 根據發明的特徵，藉由至少覆蓋在RFID的單面之第 2緩衝體可吸收施加至RFID的外力。藉此，使傳達至 RFID的外力及衝擊減少，可防止RFID的破損。在使用 第1緩衝體與第2緩衝體時，可使RFID保護狀態更良好 。在使用長尺的膠帶體與第2緩衝體時對於經濟上有幫助 〇 若第2緩衝體可覆蓋RFID，則即使爲長尺的膠帶狀 ，亦可適用在碟形狀。 根據發明的特徵，藉由覆蓋在RFID的單面之第2緩 衝體可吸收施加至RFID的外力。藉此，使傳達至RFID 的外力及衝擊減少，可防止RFID的破損。使用第1緩衝 體與第2緩衝體時對於經濟上有幫助。 -13- (10) (10)200422672 根據發明的特徵，於製造線可容易製造識別構件。所 製造的識別構件係藉由覆蓋在RFID的單面之緩衝體可吸 收施加至RFID的外力。藉此，使傳達至RFID的外力及 衝擊減少，可防止RFID的破損。藉由在第1膠帶體與第 2膠帶體之間覆蓋緩衝體可爲穩定的狀態。 根據發明的特徵，於製造線可容易製造識別構件。所 製造的識別構件係藉由在第1膠帶體與第2膠帶體之間覆 蓋複數個RFID緩衝體可爲穩定的狀態。而且，在第2膠 帶體的外面覆蓋緩衝體。藉此，由於藉由上述緩衝體可吸 收施加至各RFID的外力，故使傳達至RFID的外力及衝 擊減少，可防止RFID的破損。 根據發明的特徵，於製造線可容易製造識別構件。所 製造的識別構件由於在第1膠帶體與封入緩衝物之間覆蓋 複數個RFID，藉由上述封物緩衝入可吸收施加於各RFID 的外力。藉此，使傳達至RFID的外力及衝擊減少，可防 止RFID的破損。由於藉由封入緩衝物可提升識別構件本 身的防水性，因此難以引起因爲浸水破壞RFID。 根據發明的特徵，藉由識別構件可將RFID以固定間 隔配列在光纖纜線的長尺方向。藉由該配列’若使光纖纜 線的一部分露出，則例如藉由讀/寫機器可容易識別寫入 至RFID的纜線資訊。因而，可防止光纖纜線的誤切斷， 可謀求工程費用的降低。 而且，由於將識別構件縱向配置於纜線，因此在其附 近以厚於RFID的厚度之間隔件加以保護。藉此，可提升 -14· (11) 200422672 識別構件的機械性強度，即使對識別構件施加外力， 間隔件吸收外力可防止RFID的破損。結果，即使藥 施加大的外力，亦可讀取RFID的資訊。 根據發明的特徵，即使對識別構件施加外力， 大於該RFID之膠帶狀的間隔件的孔部包圍RFID p 保護RFID。 根據發明的特徵，即使對識別構件施加外力，A RFID之兩側的2片厚的膠帶狀之間隔件可確實保護 根據發明的特徵，即使對識別構件施加外力，H 厚度大於該RFID之環狀的間隔件之孔部包圍RFID 實保護RFID。 根據發明的特徵，由於藉由識別構件可將RFID 定間隔配列在光纖纜線的長尺方向，因此可容易識Si 資訊。因而，可防止光纖纜線的誤切斷，可謀求工程 的降低。 而且，由於藉由將識別構件縱向配置在纜線，g 少覆蓋在RFID的單面之第2緩衝體可吸收施加至 的外力。藉此，使傳達至RFID的外力及衝擊減少， 止RFID的破損。結果，即使對纜線施加大的外力， 讀取RFID的資訊。在使用第1緩衝體與第2緩衝儀 可使RFID保護狀態更良好。在使用長尺的膠帶體與 緩衝體時對於經濟上有幫助。 在識別構件中，若可覆蓋第2緩衝體，則即使負 藉由 纜線 厚度 確實 位於 RFID 由以 可確 以固 纜線 費用 此至 RFID 可防 亦可 時， 第2 長尺 -15· (12) (12)200422672 的膠帶狀亦可應用碟形狀。 根據發明的特徵，由於藉由識別構件可將RFID以固 定間隔配列在光纖纜線的長尺方向，因此可容易識別纜線 資訊。因而，可防止光纖纜線的誤切斷，可謀求工程費用 的降低。 而且，由於將識別構件縱向配置在纜線，因此藉由覆 蓋在RFID單面之緩衝體可吸收施加至RFID的外力。藉 此，使傳達至RFID的外力及衝擊減少，可防止RFID的 破損。結果，即使對纜線施加大的外力，亦可讀取RFID 的資訊。藉由在第1膠帶體與第2膠帶體之間覆蓋面狀緩 衝體，可成爲穩定的狀態。 根據發明的特徵，由於藉由識別構件可將RFID以固 定間隔配列在光纖纜線的長尺方向，因此可容易識別纜線 資訊。因而，可防止光纖纜線的誤切斷，可謀求工程費用 的降低。 而且，由於將識別構件縱向配置在纜線，因此藉由在 第1膠帶體與第2膠帶體之間覆蓋複數個RFID ’可成爲 穩定的狀態。而且，由於在第2膠帶體的外面覆蓋緩衝體 ，因此藉由上述緩衝體可吸收施加至RFID的外力。藉此 ，使傳達至RFID的外力及衝擊減少’可防止RFID的破 損。結果，即使對纜線施加大的外力，亦可讀取RFID的 資訊。 根據發明的特徵’由於藉由識別構件可將RFID以固 定間隔配列在光纖纜線的長尺方向，因此可容易識別纜線 -16- (13) (13)200422672 資訊。因而，可防止光纖纜線的誤切斷，可謀求工程費用 的降低。 而且，由於將識別構件縱向配置在纜線，因此藉由在 第1膠帶體與封入緩衝物之間封入複數個各RFID，藉由 上述封入緩衝物可吸收施加至RFID的外力。藉此，使傳 達至RFID的外力及衝擊減少，可防止RFID的破損。結 果，即使對纜線施加大的外力，亦可讀取RFID的資訊。 由於藉由封入緩衝物可提升識別構件自身的防水性，因此 即使在高濕度環境下放置纜線，亦難以因浸水引起RFID 的破壞。藉此，可讀取RFID的資訊。 【實施方式】 以下，參照圖面說明本發明之實施形態。 參照第5圖，有關本實施形態的光纖纜線1係作爲收 納部的槽形之纜線。纜線1係不限定於槽形，亦可爲絞合 形或管型的纜線。在該實施形態中，以槽形的纜線進行說 明。 纜線1係包含以剖面略圓形插通於包含長尺的槽桿3 之大致中央的抗張力體5。抗張力體5係由鋼線、FRP、 高強度纖維等材料構成。纜線1係在上述槽桿3的外周面 包含複數個槽溝7。在該實施形態中，五個槽溝7係沿著 該槽桿3的長邊方向互相平行而設計。 纜線1係在五個槽溝7的內部以五片爲一單位分別收 納有作爲光纖芯線之例如 4芯的帶繞芯線（tape core -17- (14) (14)200422672 fiber) 9 (以下稱爲「4芯膠帶」）。合計收納有100芯 的光纖。4芯膠帶9係如第6圖所示，具有並列配設的四 條光纖單芯線（single core fiber) 11。在4芯膠帶9的 周圍形成有由樹脂構成的被覆層1 3，此等係一體化製造 成膠帶狀。在槽溝7內所收納的光纖芯線係不限定於上述 4芯膠帶9等的膠帶芯線，亦可爲其他形態的光纖芯線。 再者，在纜線1中，本發明之實施形態的連長體（識 別構件）15係以縱方向配置在上述的槽桿3 ( slotted rod )的外周面。連長體 15係包含RFID (Radio Frequency Identification ;無線頻率識別）23。RFID23係在長尺的 膠帶狀之構件於長邊方向上以固定間隔的間距配列。其詳 細如後述。 如以上所述，各槽溝7係收納複數個4芯膠帶9。在 槽桿3的外周面使連長體1 5配置成縱方向的狀態下，槽 桿3的外周係以樹脂膠帶材料構成的塗層（w r a p p i n g ) 1 7 橫向捲繞。該橫向塗層1 7的外側係例如以 P E ( polyethylene，聚乙烯）樹脂的外皮（sheath) 19包裝。 外皮19的包裝材料除了上述PE之外亦可使用 PVC ( polyvinyl chloride，聚氯乙烯）或無鹵阻燃材料（nonhalogen flame retardant material ) 、環保材料（ ecological material ) 〇 然後，說明本發明之實施形態的連長體1 5。 參照第1圖及第2圖，作爲連長體15之例如第1實 施形態的連長體（識別構件）21係包含複數個RFID23。 -18- (15) (15)200422672 RFID23係在長尺的第1膠帶體25的單面於其長邊方向介 以適當間隔配列，並黏接固定。該第1實施形態之 RFID23係以固定間隔的間距P、亦即以lm間距配列。第 1 膠帶體 25 係具有 PET (polyethylene terephthalate)之 材質。第1膠帶體25係具有厚度3〇em、寬度30 mm。第 1膠帶體2 5的單面係例如預先包含熱融樹脂等的接著材 層27。 爲了保護上述之RFID23免於外力，在上述RFID23 的附近黏貼有厚度厚於RFID23之間隔件29。在該第1實 施形態中，間隔件29具有可黏貼於第1膠帶體25單面之 長尺的膠帶狀。將複數個各RFID23收容於內部的複數個 孔部3 1以與RFID23的配列狀態相同的間距P例如以1 m 間距設置。 間隔件29係具有聚乙烯的材質，具有厚度〇.8mm， 寬度 30mm。孔部 31係大致以圓形具有直徑 22mm。 RFID23係直徑20mm，厚度0.35mm之碟狀。 該間隔件2 9係以在複數個孔部3 1內收納各RF I D 2 3 之方式在第1膠帶體25的單面介以接著材層27黏貼。在 間隔件29的上面具有與第1膠帶體25相同的材質、厚度 、寬度之第2膠帶體33，在第1圖中介以背面的接著材 層35黏貼。第2膠帶體33雖以構成成爲堅固的連長體 2 1之點較佳，惟不需要滿足連長體2 1的功能之點。 RFID23詳言之係如第3圖所示，以中空的大致圓盤 形狀在塑膠製的盒體3 7內內藏記憶纜線資訊的1C晶片 -19- (16) (16)200422672 39。RFID23係內藏與該1C晶片39電氣連接之天線線圈 4 1。天線線圈4 1係包含圓板狀的磁芯構件43。天線線圈 4 1係作爲在該磁芯構件43周圍纒繞成漩渦狀之線圈本體 的被覆銅線45。RFID 23係藉由來自使用電磁誘導之讀/ 寫機器所傳送的無線電波，経由天線線圈4 1可讀取且寫 入記憶在1C晶片3 9的纜線資訊。 例如，在鐵道沿線敷設有多數條光纖電纜。電纜1係 以作爲上述鐵道沿線的多數條光纖纜線使用的情況爲例進 行說明。沿著線路以2.5至5km間隔設置有機器室，多數 條纜線1係與各機器室的連接端子連接。 在連接端子之各纜線1的管理及纜線撤去時，必須進 行各纜線1的識別。該各纜線1的識別時，各纜線1係在 長尺方向以lm的固定間隔配列有RFID23。藉由該配列 ’若使纜線1的一部分露出則可發現RFID23。以使用電 磁誘導之讀/寫機器可容易獲得寫入至RFID23之纜線資 訊。以上述讀/寫機器可容易對RFID23內的1C晶片39 進行讀寫。寫入至RFID23的資訊不會因爲時間經過而消 滅’以讀/寫機器可在短時間內容易識別目的纜線1。因 而，可防止光纖纜線1的誤切斷，亦可削減製程費用。 RFID23係使用1C晶片39。該1C晶片39的周邊部 分由於缺乏機械性強度，因此在複數個rFID23單純地固 定在膠帶體的單面之連長體中，亦有因爲外力導致 RFID2：)的1C晶片39破損之慮。當連長體配置在纜線1 的內部或表面時，因爲纜線內部或外部的力導致RFID 2 3 -20· (17) (17)200422672 的1C部分破損，有無法識別纜線的可能性。 另外，實施形態之連長體21係與RFID23的厚度 0 · 3 5 m m相對，間隔件2 9的厚度爲0.8 m m。如第1圖所示 ，RFID23係以間隔件29包圍保護。因而，即使對連長體 21施加外力，間隔件 29係吸收外力。藉此，防止 RFID23的破損。 然後，說明連長體21的製造方法。省略與上述的連 長體2 1相同的部分之詳細說明。 參照第4圖，在長尺的第1膠帶25單面黏貼有接著 材層27。該第1膠帶體25的單面以加壓滾子47黏貼長 尺的膠帶狀之間隔件29。間隔件29係在長邊方向具有預 先以間距P (在該實施形態中爲1 m間距）之固定間隔可 收納RFID23之大小的孔部31。 第1膠帶體25係爲PET材質，具有厚度30//m、寬 度3 0mm。間隔件29係聚乙烯的材質，具有厚度0.8mm， 寬度30mm。上述孔部3 1係直徑22mm之大致圓形。 然後，在上述的加壓滾子47之下流（在第4圖上爲 右方）設置有RFID裝置49。從RFID供給裝置49對間 隔件29的孔部3 1內供給RFID23。RFID23係黏貼於第1 膠帶體25的單面之接著材層27。RFID23係直徑20mm， 厚度0.35mm之碟狀。複數個RFID23係分別在第1膠帶 體2 5的單面之其長邊方向以1 m間距配列。 然後，在間隔件29的上面具有與第1膠帶體25相同 的材質、厚度、寬度之第2膠帶體33介以接著材層35貼 -21 - (18) (18)200422672 合。間隔件2 9與第2膠帶體3 3以加壓滾子5 1黏貼。由 以上步驟製造連長體21。 繼而’說明第2實施形態的連長體5 3。省略與第1 實施形態之連長體2 1相同的部分之詳細說明。 參照第7圖，連長體53係第1膠帶體25與第2膠帶 體33與第1實施形態之連長體21相同。其特徵在於：2 片膠帶狀的間隔件5 5挾住RF ID 2 3而配置在其兩側之形 態。間隔件5 5係具有聚乙烯的材質，是寬度4mm、厚度 0.8mm之長尺膠帶狀。2片的間隔件55沿著第1膠帶體 25的寬度方向之兩側緣黏貼於第〗膠帶體25的接著材層 2 7 °該2片間隔件5 5之間大致中央部上介以適當間隔配 列於第1膠帶體25的長邊方向且黏著固定有RFID23。 RFID23係以固定間隔的lm間距配列。 2片的間隔件5 5的上面係在第1圖介以背面的接著 材層35黏貼有第2膠帶體33。第2膠帶體33係具有與 第1膠帶體25相同的材質、厚度 '寬度。 該第2實施形態的連長體5 3之作用係大致與上述的 連長體21相同，基本上由於與RFID23的厚度相對間隔 件55的厚度大，因此以兩側的間隔件55保護RFID2 3。 施加在連長體53的外力以間隔件55吸收，防止RFID23 的破損。 連長體53的製造方法係在長尺的第丨膠帶體25的單 面所黏貼的接著材層2 7沿著第1膠帶體2 5的寬度方向之 兩側緣黏貼有2片的長尺膠帶狀的間隔件5 5。與第1實 -22- (19) (19)200422672 施形態之第4圖相同，以加壓滾子4 7黏貼。 然後，RFID23從RFID供給裝置49以固定間隔lm 間距供給至2片的間隔件5 5間的大致中央部’並黏貼在 第1膠帶體25的單面之接著材層27。繼而，第2膠帶體 3 3介以接著材層3 5黏合在2片的間隔件5 5上面。間隔 件5 5與第2膠帶體3 3與第1實施形態之第4圖的情況相 同，以加壓滾子5 1黏貼。由上述步驟製作連長體5 3。 然後，詳細說明第3實施形態的連長體5 7。省略與 上述的第1及第2實施形態相同的部分之詳細說明。 參照第8圖，該連長體57係挾住RFID23使2片膠 帶狀之間隔件配置在其兩側之形態的點上，與第2實施形 態的連長體5 3相同。其特徵在於2片間隔件5 9與各 RFID23相對，配置在第1膠帶體25的長邊方向之兩側。 間隔件59係延伸於與第1膠帶體25的長邊方向相對而垂 直之方向（橫方向）。間隔件5 9係介以接著材層2 7黏貼 於第1膠帶體2 5的單面。間隔件5 9係具有聚乙烯的材質 ，是寬度4mm、厚度0.8mm、長度30mm的膠帶狀。 2片間隔件5 9之上面以及第1膠帶體2 5的單面係在 第1圖中介以背面的接著材層35黏貼有第2膠帶體33。 第2膠帶體33係具有與第1膠帶體25相同的材質、厚度 、寬度。 該第3實施形態的連長體5 7之作用係大致與上述的 連長體53相同。基本上與RFID23的厚度相對由於間隔 件59的厚度大，因此以兩側的間隔件59保護RFID23。 -23- (20) (20)200422672 即使對連長體5 7施加外力，2片的間隔件5 9係吸收外力 ，防止RFID23的破損。 說明連長體5 7的製造方法。使2片膠帶狀之間隔件 59的長邊方向與第1膠帶體25的橫方向一致。間隔件59 係供給至長尺的第1膠帶體25的單面之接著材層27。間 隔件5 9係在第1膠帶體2 5的長邊方向以固定間隔之1 m 間距定位在應黏貼R FID 2 3的位置之兩側。間隔件5 9係 與第1實施形態之第4圖的情況相同，以加壓滾子4 7黏 貼。 然後，從RFID供給裝置49將RFID23供給至上述2 片的間隔件59之間，在第1膠帶體25的單面以接著材層 2 7黏貼。繼而，第2膠帶體3 3係介以第2膠帶體3 3背 面之接著材層3 5黏貼於各間隔件5 9的上面以及第1膠帶 體25的單面。RFID23係與第1實施形態之第4圖的情況 相同，以加壓滾子5 1黏貼。由上述步驟製造連長體5 7。 然後，詳細說明第4實施形態的連長體6 1。省略與 上述的第1實施形態之連長體2 1相同的部分之詳細說明 〇 參照第9圖，該連長體61係第1膠帶體25及第2膠 帶體3 3與第1實施形態的連長體2 1相同。其特徵在於， 具備可收容RFID23之孔部63的環形狀之間隔件65介以 適當間隔配置並黏著固定於第1膠帶體25的長邊方向。 在該第4實施形態中，係以固定間隔之1 m間距配置，且 黏貼於第1膠帶體25的接著材層27之形態。間隔件65 • 24 - (21) (21)200422672 係具有聚乙烯的材質，厚度爲〇.8mm，孔部63的內徑爲 22mm，外徑爲30mm。複數個RFID23係於各間隔件65 的孔部63的內部分別介以接著材層2 7黏貼於第！膠帶 2 5的單面。 間隔件65的上面及第1膠帶體25的單面在第1圖中 介以背面的接著材層35黏貼有第2膠帶體33。第2膠帶 體33係具有與第1膠帶體25相同的材質、厚度、寬度。 該第4實施形態的連長體6 1之作用大致與上述的連 長體2 1相同。基本上與R F I D 2 3的厚度相對由於間隔件 65的厚度大，因此RFID23以間隔件65包圍保護。即使 對連長體6 1施加外力，亦可藉由間隔件65吸收外力，防 止RFID23的破損。 說明連長體61的製造方法。在長尺的第丨膠帶體25 的單面所黏貼的接著材層27於第1膠帶體25的長邊方向 以固定間隔的1 m間距供給環形狀的間隔件6 5。間隔件 65係以間隔件65的孔部63包圍應黏貼RFID23的位置之 方式定位。間隔件65係在第1膠帶體25上與第1實施形 態的第4圖之情況相同以加壓滾子4 7黏貼。 然後，從RFID供給裝置49使RFID23供給至上述的 間隔件65的孔部63內，黏貼於第1膠帶體25的單面之 接著材層27。繼而，藉由第2膠帶體33的背面之接著材 層35黏貼第2膠帶體33於各間隔件65的上面及第1膠 帶體2 5的單面。與第1實施形態的第4圖相同，以加壓 滾子5 1黏貼有第2膠帶體3 3、間隔件65、以及第1膠帶 -25- (22) 200422672 體25。由以上步驟製造連長體61° 然後，確認將上述弟1至弟4貫施形態的$ 、5 3、5 7、61使用在第5圖所示的光纖纜線1 性。因此，製造比較例之連長體67 ’進行以下 1¾。 參照第1 0圖，在比較例1的連長體6 7中， 體25與第2膠帶體33與RFID23以及RFID23 態係與上述第1至第4實施形態的連長體2 1、 6 1相同。連長體6 7係沒有間隔件’爲具有第1 ί 與第2膠帶體33的黏貼構造。 〔比較試驗1〕 上述第1至第4實施形態的連長體2 1、5 3 與比較例1的連長體67相對’個別進行對衝擊 即，對衝擊試驗方法係依據對衝擊試驗（依據「 2 7 ( 1 9 8 7 ) : Basic environmental testing proced 2.1 : Tests Test Ea: Shock」）進行。試驗條件 的荷重，18m/sec的速度，從RFID23的正上在 與RFID23抵接。試驗次數係以一百次爲單位進 每一百次進行動作確認，若讀取資訊，則繼續試 ’如表1所示，確認讀取資訊之最大的次數。試 設爲2 0 0 0次。 塞長體21 時的效果 的比較試 第1膠帶 的配列狀 53 、 57 、 驛帶體25 、57 、 61 試驗。亦 IEC68-2-ures Part 係以40g 1方向上 行試驗。 驗。結果 驗的上限 -26- (23) (23)200422672 表1 連長體 比較例 第1實 第2實 第3實 第4實 1 施形態 施形態 施形態 施形態 耐衝擊次數 5 00次 2 000 次 2 0 00 次 2 00 0 次 2 0 00 次 從上述表1可知，在比較例1的連長體6 7中，於進 行5 00次的衝擊之後，無法讀取RFID23的資訊。亦即， 耐衝擊次數爲5 00次。第1至第4實施形態的連長體21 、53、57、61係即使進行上限2000次亦可讀取資訊。 因而，在第1至第4實施形態的連長體2 1、5 3、5 7 、61任一連長體中，藉由間隔件65的外力之吸收，保護 RFID23 。 〔比較試驗2〕 再者，確認將上述第1至第4實施形態的連長體21 、53、57、61縱向配置在纜線的內部或表面之光纖纜線1 的效果性。以將上述第1實施形態的連長體2 1配置於縱 向之第5圖的形態之光纖纜線1爲代表製造。與第5圖的 形態相同將上述比較例1的連長體67縱向配置於纜線的 內部之光纖纜線作爲比較例2而製造。相對於此進行比較 試驗。 亦即，試驗方法係依據壓壞試驗（依據JISC682 1 ) 。試驗條件係以壓壞試驗用鋼板100mm，以RFID23之某 纜線面爲上面，對RFID23的部分施加荷重。此時，施加 -27- (24) (24)200422672 時間爲1分。施加荷重增加至5N/ mm刻度。然後，每一 次的試驗確認是否讀取來自RFID23的資訊。如表2所示 ，確認獲得讀取資訊時的最大施加荷重之試驗値。 表2 光纖纜線 使用比較例1的纜 線（比較例2 ) 使用第1實施形態 的連長體之纜線 最大耐壓（N/ mm) 5 15 如以上的表2可知，在比較例2的光纖纜線中，施加 荷重爲1 ON / mm時無法讀取資訊。在該實施形態的光纖 纜線爲20N/ mm時無法讀取資訊。因而，即使在纜線狀 態下，使用本發明的間隔件之連長體的機械特性優良。 然後，詳細說明本發明之第5實施形態的連長體69 。省略與第1實施形態的連長體2 1相同的部分之詳細說 明。 參照弟11圖至弟13圖A、第13圖B，在連長體69 中，RFID23以長尺的膠帶狀在面狀的第1緩衝體71的單 面上藉以適當間隔配列並黏著固定於其長邊方向。 RFID23係以固定間隔的間距P亦即lm間距配列。 第1緩衝體71係具有不織布的材質，厚度1mm，寬 度30mm。預先在第1緩衝體71的單面設置有接著材層 7 3。第1緩衝體7 1係混合具有防水效果的吸水性高分子 作爲聚丙烯酸塩。 • 28 - (25) 200422672 爲了保護RFID23免於外力影響，以從外側覆 RFID23的方式將面狀的第2緩衝體75黏貼於第1緩衝 7 1。上述第2緩衝體7 5係具有與上述第1緩衝體7 1相 的材質、厚度、寬度，且混合聚丙烯酸塩作爲吸水性高 子。在第2緩衝體75的單面預先黏貼有接著材層77。 第1、第2緩衝體7 1、7 5係以比配置於縱向的光 纜線1的外皮1 9柔軟的材質吸收外力之效果。因而， 於是比外皮1 9柔軟的材質’故以使用紙、不織布、棉 布等較佳。亦可使用柔軟的塑膠。緩衝材係不限於固體 亦可爲凝膠狀，亦可密封至RFID23附近之形態。第1 第2緩衝體7 1、7 5係厚度愈大可獲得愈大的功效。 包覆澱粉、纖維素、聚乙烯醇、聚丙烯酸塩等吸水 高分子，並黏著塗敷、摻入至第1、第2緩衝體71、75 用以提高吸水性者亦可。 說明該連長體69的作用。在RFID23之至少單面 纜線1的外皮1 9相比小的硬度之第1 '第2緩衝體71 75係至少覆蓋RFID23。藉由該構造’即使對連長體 施加外力，第1、第2緩衝體71、7 5作爲緩衝材作用 藉由該作用，減少外力以及衝擊傳達至RFID23，防 RFID23的破損。藉由在第1、第2緩衝體71、75混合 有防水效果的吸水性高分子’有效防止浸水至RFID23 〇 參照第14圖，說明該連長體69的製造方法。 RFID供給裝置49準備直徑20mm、厚度〇.35mm之碟 蓋 體 同 分 纖 由 性 與 69 〇 止 具 中 在 狀 -29 - (26) (26)200422672 的RFID23。在長尺的第1緩衝體71單面所黏貼的接著材 層7 3，從R FID供給裝置4 9以固定間隔之1 m間距供給 RFID23至第1緩衝體7 1的長邊方向。藉此，將RFID23 黏貼於第1緩衝體7 1的單面之接著材層7 3。然後，以第 2緩衝體75覆蓋RFID23之方式，在第1緩衝體71的單 面介以接著材層73以及77黏合。第1及第2緩衝體71 、75係以加壓滾子79黏貼，製造連長體69。 然後，詳細說明第6實施形態的連長體8 1。省略與 第1以及第5實施形態的連長體2 1、69相同部分之詳細 說明。 參照第15A圖及第15B圖，在連長體81中，RFID23 在長尺的第1膠帶體25的單面之長邊方向以固定間隔之 1 m間距予以配列且黏著固定。上述的第1膠帶體2 5爲 PET材質、厚度爲30//m、寬度爲30mm。在第1膠帶體 25的單面預先設置有接著材層27。 再者，爲保護RFID23免於外力影響，使用具有與第 5實施形態相同的材質、厚度、寬度且混合吸水性高分子 之膠帶狀的第2緩衝體75。第2緩衝體75係從外側覆蓋 RFID23，並黏貼於第1膠帶體25。 說明該連長體81的作用。在RFID23之至少單面硬 度小於纜線的外皮19之第2緩衝體7 5係至少覆蓋 RFID23。藉由該構造，即使對連長體81施加外力，以上 述第2緩衝體75作爲緩衝材之功用，可減少外力及衝擊 傳達至RFID23，防止RFID23的破損。由於第2緩衝體 -30- (27) (27)200422672 75混合吸水性高分子，因此防止浸水於RFID23中。 說明該連長體81的製造方法。在第14圖所示的第5 實施形態之連長體69的製造裝置中，將長尺的第〗緩衝 體71置換爲第1膠帶體25。該製造方法由於與第5實施 形態相同，因此省略詳細說明。 參照第16圖、第17A圖、以及第17B圖，在連長體 83中，RFID23在長尺的膠帶狀之第1緩衝體71的單面 於長邊方向上以固定間隔之1 m間距配列且黏著固定。 上述的第1緩衝體7 1與連長體69的情況相同，爲不 織布的材質，具有厚度lmm，寬度30mm。在第1緩衝體 7 1的單面預先設置有接著材層7 3。在第1緩衝體7 1混合 聚丙烯酸塩作爲吸水性高分子。 再者’爲了保護RFID23免受外力影響，以使碟形狀 的第2緩衝體85從外側覆蓋RFID23之方式黏貼於第1 緩衝體71。第2緩衝體8 5係不織布的材質，具有厚度 1mm，直徑25mm。在第2緩衝體85的單面預先設置有接 著材層7 7。第2緩衝體8 5係混合聚丙烯酸塩作爲吸水性 高分子。 該連長體83的作用基本上與第5實施形態的連長體 69相同。其特徵性作用··係碟形狀的第2緩衝體85使施 加至RFID23的外力以及衝擊減少，防止rFID23的破損 ，亦可防止浸水於RFID23中。 參照第18圖，說明該連長體83的製造方法。在長尺 的第1緩衝體7 1之單面所黏貼的接著材層7 3從R FID供 -31 - (28) 200422672 給裝置49使RFID23以固定間隔之1 m間距 第1緩衝體71。RFID23係黏貼於第1緩S 之接著材層73。然後，緩衝體供給裝置87 形狀的第2緩衝體8 5。第2緩衝體8 5係介 材層77黏貼於RFID23的上面。藉由加壓名 緩衝體85覆蓋RFID23之方式並介以接著 黏合於第1緩衝體7 1的單面。如上，製作3 然後，說明第8實施形態的連長體8 9。 實施形態的連長體2 1、8 3相同的部分之詳 〇 參照第19圖A及第19圖B，在連長® 尺的第1膠帶25的單面之長邊方向以固定 距配列並接著固定有RFID23。第1膠帶體 的材質，具有厚度30//m，寬度30mm。在J 的單面預先設置有接著材層27。 再者，爲保護上述RFID23免於外力影 覆蓋RFID2 3之方式將碟形狀的第2緩衝體 膠帶體25。第2緩衝體85爲不織布的材 1mm、直徑25mm。在第2緩衝體85的單面 著材層7 7。第2緩衝體8 5係混合聚丙烯酸 高分子。 該連長體89的作用基本上與連長體69 性作用：係碟形狀的第2緩衝體8 5使施加 外力以及衝擊減少，防止RFID23的破損， 供給至上述的 ί體71的單面 係從此供給碟 以背面的接著 良子7 9使第2 材層 73及77 I長體83。 與第1及第7 細說明係省略 墜89上，在長 間隔的1 m間 25係爲PET 春1膠帶體25 響，以從外側 85貼合於第1 質，具有厚度 預先設置有接 塩作爲吸水性 相同。其特徵 至RFID23的 亦可防止浸水 -32- (29) (29)200422672 於 RFID23 中。 說明該連長體89的製造方法。在第ι8圖所示的第7 實施形態之連長體83的製造裝置中，將長尺的第1緩衝 體71置換爲第1膠帶體25。製造方法由於與第7實施形 態相同，因此省略詳細說明。 然後’說明第9實施形態的連長體9 1。省略與第1 及第5實施形態的連長體2 ；!、69相同的部分之詳細說明 〇 參照第20圖A、第20圖B，在連長體91中，於該 第9實施形態中，RFID 2 3在長尺的第1膠帶體25的單面 之長邊方向以固定間隔之1 m的間距配列並黏著固定。上 述之第1膠帶體25爲PET材質，具有厚度30//m，寬度 30 mm。在第1膠帶體25的單面預先設置有接著材層27 〇 再者，爲保護RFID免受外力影響，以膠帶形狀使面 狀的第2緩衝體93挾住RFID23的上面之方式並介以接 著材層77重疊。第2緩衝體93係不織布的材質，具有厚 度1mm，寬度25mm。在第2緩衝體93的背面預先設置 有接著材層77。在第2緩衝體93混合聚丙烯酸塩作爲吸 水性高分子。 以從第2緩衝體93的外側覆蓋之方式，並介以背面 的接著材層27使長尺的第2膠帶體33貼合於第1膠帶體 25。第2膠帶體33係材質、厚度、寬度與第1膠帶體25 大致相同。 -33- (30) (30)200422672 該連長體9 1的作用基本上係與第5實施形態的連長 體69相同。其特徵作用係使第2面狀緩衝體93施加至 RFID23之外力及衝擊減少，防止RFID23的破損，防止 浸水於RFID23中。 參照第2 1圖，說明該連長體9 1的製造方法。從 RFID供給裝置49第1膠帶體25的長邊方向以固定間隔 的lm間距供給RFID23至附著於長尺的第1膠帶體25的 單面之接著材層27。藉此，RFID23係黏著於第1膠帶體 25的單面之接著材層27。然後，’第2緩衝體93係以挾住 RFID23的上面之方式重疊。第2緩衝體93藉由加壓滾子 79並介以接著材層77黏貼。 以從第2緩衝體93的外側覆蓋之方式，並介以背面 的接著材層35使第2膠帶體33黏貼於第1膠帶體25。 藉此，以加壓滾子95黏貼第2膠帶體33。以上，製造出 連長體91。 然後，說明第10實施形態的連長體97。省略與第1 及第9實施形態的連長體2 1、9 1相同的部分之詳細說明 〇 參照第 22圖 A、第22圖 B，在連長體97上， RFID23於長邊方向以固定間隔之lm間距配列並黏著固 定於長尺的第1膠帶體25之單面。第1膠帶體25爲PET 材質，具有厚度30//m，寬度30mm。在第1膠帶體25的 單面預先設置有接著材層27。 以從RFID23的外側覆蓋之方式介以背面的接著材層 •34- (31) (31)200422672 35黏貼長尺的第2膠帶體33於第〗膠帶體25。第2膠帶 體33之材質、厚度、寬度係大致與第1膠帶體25相同。 再者，爲保護上述的RFID23免受外力影響，以膠帶 形狀使面狀的第2緩衝體9 3介以接著材層7 7黏貼於第2 膠帶體33的外側。第2緩衝體93爲不織布材質，具有厚 度1mm，寬度25mm。第2緩衝體93的背面預先設置有 接著材層77。第2緩衝體93混合聚丙烯酸鹽作爲吸水性 高分子。 該連長體97的作用基本上係與第5實施形態的連長 體6 9相同。其特徵性作用係第2緩衝體9 3使施加至 RFID23的外力及衝擊減少，防止RFID23的破損，防止 浸水至RFID23中。 參照第23圖，說明連長體97的製造方法。RFID2 3 從RFID供給裝置49於上述第1膠帶體25的長邊方向上 以固定間隔的間距供給至長尺的第1膠帶體2 5之單面所 黏接的接著材層27。藉此，RFID23係黏貼於第1膠帶體 25的單面之接著材層27。然後，以從上述的rfid23之 外側覆蓋之方式，介以背面的接著材層3 5黏貼第2膠帶 體33於第1膠帶體25。藉此，第2膠帶體33以加壓滾 子79黏貼。 第2緩衝體93係重疊於第2膠帶體33的上面，藉由 加壓滾子95並介以接著材層77黏貼。，以上，製造出連 長體97。 然後，說明第1 1實施形態之連長體99。省略與第1 -35- (32) (32)200422672 及第5之實施形態的連長體2 1、69相同的部分之詳細說 明。 參照第24A圖及第24B圖，在連長體99’使RFID23 在該第1 1實施形態中於長邊方向以固定間隔的1 m間距 配列並黏著固定在長尺的第1膠帶體25的單面。第1膠 帶體25爲PET的材質，具有厚度30/im，寬度30mm。 在第1膠帶體25的單面預先設置有接著材層27° 再者，爲保護RFID23免於外力之影響’使用用以封 入RFID23之封入緩衝物，例如由凝膠狀的物體所構成的 凝膠狀物101。凝膠狀物101係從RFID23的外側封入至 RF ID 2 3與第1膠帶體2 5之間。封入緩衝物係取代凝膠狀 物1 〇 1使用吸水性高分子的粉末亦可。 以從凝膠狀物1 〇 1的外側覆蓋之方式，介以背面的接 著材層77黏貼長尺的第2膠帶體33於第1膠帶體25。 第2膠帶體33之材質、厚度、寬度大致與第1膠帶體25 相同。 該連長體99的作用基本上與第5實施形態的連長體 69相同。其特徵性作用係使凝膠狀物1 0 1或吸水性高分 子的粉末施加在 RFID23之外力及衝擊減少，防止 RFID23的破損，且防止浸水至RFID23中。 參照第25圖，說明連長體99的製造方法。從RFID 供給裝置49於第1膠帶體25的長邊方向以固定間隔之 lm間距供給RFID23至長尺的第1膠帶體25之單面所附 著的接著材層27上。藉此，使RFID23黏貼於第1膠帶 -36· (33) 200422672 體2 5的單面之接著材層2 7。然後，以從凝膠狀物1 0 1的 外側覆蓋之方式，介以背面的接著材層77黏貼第2膠帶 體33於第1膠帶體25。第2膠帶體33係以加壓滾子79 黏貼。以上，製造出連長體99。 然後，將上述的第5至第1 1實施形態之連長體69、 81、83、89、91、97、99使用於第5圖所示的光纖纜線1 。爲了確認其效果性，進行以下比較。200422672 Π) 发明. Description of the invention [Technical field to which the invention belongs] The present invention relates to an identification part of a wireless identification system having an RFID (Radio Frequency Identification) with a cable that can easily identify the purpose of the plurality of cables laid And manufacturing method thereof, and optical fiber cable using identification part. [Prior Art] For example, a plurality of optical fiber cables are laid in a groove. Take 2. There are machine rooms at intervals of 5 to 5 km, and most of the above cables are connected to the connection terminals of each machine room. The management of each cable of the connection terminal mentioned above and the removal of the cable must be performed to identify each cable. The conventional identification method is a method in which identification printing is applied to the outer surface of a cable, or an identification label is attached to a terminal portion of each cable. The printing for identification is to display the cable information such as the manufacturer name, year of manufacture, cable name, length, etc. on the surface of the cable with ink, thermal transfer, laser, etc. In the case of identification labels, for example, the cable information of the above-mentioned items is engraved on a thin metal plate and affixed to each cable, or is suspended by a metal wire (for example, JP-A-6-60750 (paragraph [0012 ] To [0013], refer to Figure 1.) Other cable identification methods are to attach the QR code printing paper printed on the two-dimensional QR code of the optical cable's layout related information to the outer skin of the optical cable. During maintenance, etc. Scan the QR code printing paper with a barcode reader and read the recorded information at the laying site. The QR code printing paper replaces the barcode -5- (2) 200422672, magnetic card, and 1C card also read the information of the optical cable (open 200 Bu 2 1 73 0 (paragraphs [0012] to [fig.]) However, in the conventional cable identification method, when the cable is printed, it is printed on the long side of the cable. Therefore, It is impossible to confirm that the roads buried in the trench or underground will not be exited. Except for the long section to remove the cover of the trench or the sand to make work. Therefore, the entire length of the identification printing is expected to be 1, because the number of characters that can be printed is about lm. And therefore contains the needed Information. The problem that Wen Sheng cannot judge when the identification printing rubs over a long period of time. When using the identification label method, install it at a long distance between cables. Therefore, the number of labels is increased, and the cost is written into the identification label. There is also a limit on the number of characters, containing the required information. The identification label is written with markings and the same as the identification printing. When a long time passes, the text method judges. When QR code is printed on paper, barcodes, magnetic cards, IC cards, etc The identification system of the outer skin has less written information. The time and friction become unrecognizable. The case where the cable needs to be identified is when the cable is re-pasted or removed for the purpose of determining the cable. However, the identification is made with a stamp or The QR code printing paper and bar code are not obvious, and the same, for example, refer to the special 0018]) The identification of the first line surface, when the number of characters changes, the cost of the long distance of the cable increases by m or less. The production line must be solid and also lifted. It is impossible to write all the characters. However, it will disappear and cause non-adhesion to the optical cable long system. -6-(3) (3) 200422672 When a plurality of cables are displayed, it will take a considerable amount of time to determine the information. However, if a different extension cable is cut, the cable will be generated. A malfunction caused by a slogan controlled by a wire or a suspension of information will cause a serious accident. [Abstract] The object of the present invention is to provide an identification member for easily identifying the intended cable from a plurality of cables. Invention Another object is to provide an identification member that reduces the adverse effects of an external force applied to a cable. The first feature of the invention is an identification member including the following elements. The identification member includes a long tape body. The identification member includes a plurality of RFID (Radio Freguency Identification) is arranged on the single side of the tape body at appropriate intervals in the long side direction. The identification member includes a spacer for protecting the RFID from external forces and sticking to the vicinity of the RFID and having a thickness larger than the RFID. The spacer has a long tape shape that can be adhered to one side of the tape body. The spacer is provided with a plurality of hole portions for accommodating the plurality of R F IDs inside. The spacer has a tape shape that can be adhered to one side of the tape body. The spacer is configured to hold the plurality of RFIDs and to be disposed on both sides thereof. The spacer is adhered to one side of the tape body. The spacer has a ring shape having a hole portion capable of accommodating the RFID. A second feature of the invention is an identification member including the following elements. Identification structure (4) (4) 200422672 The piece consists of a long tape body or a first buffer body. The identification member includes a plurality of RFIDs, and is arranged on one side of the tape body or the first buffer body at a proper interval in the longitudinal direction. The identification member includes a second buffer body. The above-mentioned RFID is covered with an external force applied to the RFID card and protected from outside, and is adhered to the tape body or the first buffer body. The second buffer system has a tape-like shape that can cover a plurality of RFIDs or a dish shape that can cover each RFID. A third feature of the invention is an identification member including the following elements. The identification member includes a long tape body 1. The identification member includes a plurality of RFIDs, and is arranged on one side of the first tape body at an appropriate interval in the longitudinal direction. The identification member includes a buffer, and the RFID is protected by absorbing the external force applied to the RFID, and the RFID is stacked between the first tapes. The identification member includes a second tape body, and the buffer body is covered from the outside and adhered to the first tape body. A fourth feature of the invention is an identification member including the following elements. The identification member includes a long tape body 1. The identification member includes a plurality of RFIDs, and is arranged on one side of the first tape body at an appropriate interval in the longitudinal direction. The identification member includes a second tape body, which covers the RFID from the outside and is adhered to the first tape body. The identification member includes a buffer body and is adhered to the outer side of the second tape body for protecting and absorbing external force applied to the R FID. A fifth feature of the invention is an identification member including the following elements. The identification member includes a long tape body 1. The identification member includes a plurality of R FIDs, and is arranged on one side of the first tape body at an appropriate interval in (5) (5) 200422672 in the long side direction. The identification member includes a sealing buffer, and the above-mentioned RFID protected by absorbing an external force applied to the RFID is sealed from the outside between the first tape body. The identification member includes a second tape body, and the sealing buffer body is covered from the outside and adhered to the first tape body. A sixth feature of the invention is a method for manufacturing an identification member including the following steps. The manufacturing method includes a step of arranging a plurality of RFIDs on one side of a long tape body with a proper interval in the long side direction of the tape body. The identification member includes pasting a spacer having a thickness greater than that of the RFID to protect the plurality of RFIDs from external forces, and the vicinity of the RFID. A seventh feature of the invention is a method for manufacturing an identification member including the following steps. The manufacturing method includes a step of arranging a plurality of RFIDs on a single side of a long tape body or a first buffer body with an appropriate interval in a long side direction of the tape body or the first buffer body. The manufacturing method includes a step of covering the outside of the RFID with a second buffer body protected by absorbing external force applied to the RFID, and attaching the second buffer body to a tape body or a first buffer body. An eighth feature of the invention is a method for manufacturing an identification member including the following steps. The manufacturing method includes a step of arranging a plurality of RFIDs on one side of a long tape of the first tape body in a long side direction of the first tape body at appropriate intervals. The manufacturing method includes overlapping the RFID tag which is protected by absorbing a force applied to the RFID and is held between the buffer body and the first tape body. The second tape body covers the buffer body from the outside and The step of sticking the second tape body to the first tape body. A ninth feature of the invention is a method for manufacturing an identification member including the following steps. The manufacturing method includes the steps of arranging a plurality of RFIDs on one side of the long tape body on the single side of the first tape (6) (6) 200422672 in the long side direction of the tape body at appropriate intervals. The manufacturing method includes a step of covering the RFID with a second tape body from the outside and adhering the second tape body to the first tape body. The manufacturing method includes a step of attaching a buffer body for protecting and absorbing a force applied to the RF ID to the outside of the second tape body. The tenth feature of the invention is a method for manufacturing an identification member including the following steps. The manufacturing method includes a step of arranging a plurality of RFIDs on one side of a long tape of the first tape body in a long side direction of the first tape body at appropriate intervals. The manufacturing method includes a step of encapsulating the RFID from the outside to the first tape body by a sealing buffer protected by absorbing an external force applied to the RFID. The manufacturing method includes the steps of covering the sealing buffer with the outside of the second tape body 殂, and adhering the second tape body to the first tape body. A first feature of the invention is an optical fiber cable including the following elements. The optical fiber cable includes a sheath member and has a substantially cylindrical shape. The optical fiber cable includes a accommodating portion for accommodating a tension member and a plurality of optical fiber core wires inside the sheath member. The optical fiber cable includes an identification member, and is arranged inside or on the surface of the sheath member in the longitudinal direction. The identification member includes a long tape body. The identification member includes a plurality of RFIDs, which are arranged on one side of the tape body at appropriate intervals in the longitudinal direction. The identification member includes a spacer, and is adhered to the vicinity of the RFID for protection by absorbing external force applied to the RFID, and has a thickness larger than that of the RFID. The spacer has a long tape shape that can be adhered to one side of the tape body. The spacer is provided with a plurality of holes for accommodating the plurality of RFIDs inside -10- (7) (7) 200422672. The spacer has a tape shape that can be adhered to one side of the tape body. The spacer is configured to hold the plurality of RFIDs and is disposed on both sides of the RFID. The spacer is adhered to one side of the tape body. The spacer has a ring shape having a hole portion capable of accommodating the RFID. A twelfth feature of the invention is an optical fiber cable including the following elements. The optical fiber cable includes a sheath member and has a substantially cylindrical shape. The optical fiber cable includes a accommodating portion for accommodating a tension member and a plurality of optical fiber core wires inside the sheath member. The optical fiber cable includes an identification member, and is arranged inside or on the surface of the sheath member in the longitudinal direction. The identification member includes a long tape or a first buffer. The identification member includes a plurality of RFIDs, and is arranged on one side of the tape body or the first buffer body in the direction of the long side of the tape body at an appropriate interval. The identification member includes a second buffer, which is covered from the outside to absorb the external force applied to the RFID to protect the RFID, and is adhered to the tape body or the first buffer. The second buffer system has a long tape shape that can cover a plurality of RFIDs, or a dish shape that can cover each RFID. A thirteenth feature of the invention is an optical fiber cable including the following elements. The optical fiber cable includes a sheath member and has a substantially cylindrical shape. The optical fiber cable includes a accommodating portion for accommodating a tension member and a plurality of optical fiber core wires inside the sheath member. The optical fiber cable includes an identification member, and is arranged inside or on the surface of the sheath member in the longitudinal direction. The identification member includes a long tape body. The identification member system includes a plurality of RFIDs, which are arranged on the single side of the first adhesive tape at a proper interval in the long side direction. The identification member includes a buffer body and overlaps the first tape body so as to protect the RFID tag from absorbing the external force applied to the RFID tag. The identification member includes a second tape body and covers the buffer body from the outside and is adhered to the first tape body. A fourteenth feature of the invention is an optical fiber cable including the following elements. The optical fiber cable includes a sheath member and has a substantially cylindrical shape. The optical fiber cable includes a accommodating portion for accommodating a tension member and a plurality of optical fiber core wires inside the sheath member. The optical fiber cable includes an identification member, and is arranged inside or on the surface of the sheath member in the longitudinal direction. The identification member includes a long tape body. The identification member includes a plurality of RFIDs, and is arranged on one side of the first tape body at an appropriate interval in the longitudinal direction. The identification member includes a second tape body, and covers the RFID from the outside and adheres to the first tape body. The identification member includes a buffer body and is adhered to the outside of the second tape body for protection by absorbing external force applied to the RFID. A fifteenth feature of the invention is an optical fiber cable including the following elements. The optical fiber cable includes a sheath member and has a substantially cylindrical shape. The optical fiber cable includes a accommodating portion for accommodating a tension member and a plurality of optical fiber core wires inside the sheath member. The optical fiber cable includes an identification member, and is arranged inside or on the surface of the sheath member in the longitudinal direction. The identification member includes a long tape body. The identification member includes a plurality of RFIDs, and is arranged on one side of the first tape body at an appropriate interval in the longitudinal direction. The identification member includes an enclosing buffer, and encloses the above-mentioned RFID protected by absorbing an external force applied to the RFID between the first tape body from the outside. Identification -12- (9) (9) 200422672 Other components include a second tape body, which is covered with the sealing buffer from the outside, and is adhered to the first tape body. According to the feature of the above invention, since the RFID is protected with a spacer having a thickness larger than the thickness of the RFID in the vicinity, the mechanical strength of the identification member can be improved. Thereby, even if an external force is applied to the identification member, the spacer can absorb the external force and prevent the RFID from being damaged. By enclosing the RFID in the hole portion of the tape-shaped spacer which is thicker than the RFID, the RFID can be reliably protected. The two thick tape-shaped spacers located on both sides near the RFID can reliably protect the RFID. Surrounding the RFID with the hole portion of the annular spacer which is thicker than the RFID can reliably protect the RFID. According to the feature of the invention, the second buffer body covering at least one side of the RFID can absorb the external force applied to the RFID. This reduces the external force and impact transmitted to the RFID, and prevents the RFID from being damaged. When the first buffer body and the second buffer body are used, the RFID protection status can be made better. It is economically helpful to use a long tape body and a second buffer body. 〇 If the second buffer body can cover RFID, it can be applied in the shape of a dish even with a long tape shape. According to the feature of the invention, the second buffer body covering one side of the RFID can absorb the external force applied to the RFID. This reduces the external force and impact transmitted to the RFID, and prevents the RFID from being damaged. It is economically helpful to use the first buffer and the second buffer. -13- (10) (10) 200422672 According to the feature of the invention, the identification member can be easily manufactured on the manufacturing line. The manufactured identification member can absorb the external force applied to the RFID by a buffer covering one side of the RFID. This reduces the external force and impact transmitted to the RFID, and prevents damage to the RFID. By covering the buffer body between the first tape body and the second tape body, a stable state can be achieved. According to the feature of the invention, the identification member can be easily manufactured on the manufacturing line. The manufactured identification member can be stabilized by covering a plurality of RFID buffers between the first tape body and the second tape body. A buffer body is covered on the outer surface of the second rubber body. Accordingly, since the external force applied to each RFID can be absorbed by the buffer body, the external force and impact transmitted to the RFID can be reduced, and damage to the RFID can be prevented. According to the feature of the invention, the identification member can be easily manufactured on the manufacturing line. The manufactured identification member covers a plurality of RFIDs between the first tape body and the sealing buffer, and the external force applied to each RFID can be absorbed by the sealing by buffering. This reduces the external force and impact transmitted to the RFID and prevents the RFID from being damaged. Since the waterproofness of the identification member itself can be improved by enclosing the buffer, it is difficult to cause the RFID to be damaged by water immersion. According to the feature of the present invention, the identification means can arrange the RFIDs at a fixed interval in the long-length direction of the optical fiber cable. If a part of the optical fiber cable is exposed by this arrangement, for example, the cable information written to the RFID can be easily identified by a reader / writer. Therefore, it is possible to prevent erroneous cutting of the optical fiber cable, and it is possible to reduce a construction cost. Furthermore, since the identification member is arranged longitudinally on the cable, it is protected by a spacer thicker than the thickness of the RFID tag in the vicinity thereof. This can improve the mechanical strength of the identification member -14 · (11) 200422672. Even if an external force is applied to the identification member, the spacer absorbs the external force to prevent the RFID from being damaged. As a result, RFID information can be read even if the medicine exerts a large external force. According to the feature of the invention, even if an external force is applied to the identification member, the hole portion of the tape-shaped spacer larger than the RFID surrounds the RFID p to protect the RFID. According to the feature of the invention, even if an external force is applied to the identification member, the two thick tape-shaped spacers on both sides of the A RFID can reliably protect the feature of the invention. The hole of the spacer surrounds the RFID to protect the RFID. According to the feature of the invention, since the RFID can be arranged at regular intervals in the length direction of the optical fiber cable by the identification member, Si information can be easily recognized. Therefore, it is possible to prevent erroneous cutting of the optical fiber cable, and to reduce engineering. In addition, since the identification member is arranged longitudinally on the cable, the second buffer body that covers less on one side of the RFID can absorb the external force applied to. This reduces the external force and impact transmitted to the RFID and prevents the RFID from being damaged. As a result, even if a large external force is applied to the cable, the RFID information is read. Using the first buffer and the second buffer can improve the RFID protection status. It is economically helpful when using long tapes and cushions. In the identification member, if the second buffer can be covered, even if the thickness of the cable is actually located in the RFID, the cost of fixing the cable can be assured so that the RFID can be prevented. The second long rule is -15 · ( 12) (12) 200422672 The tape shape can also be applied to the dish shape. According to the feature of the invention, since the RFID can be arranged at a fixed interval in the length direction of the optical fiber cable by the identification means, the cable information can be easily identified. Therefore, erroneous cutting of the optical fiber cable can be prevented, and a reduction in construction cost can be achieved. Moreover, since the identification member is arranged longitudinally on the cable, the external force applied to the RFID can be absorbed by the buffer body covering the RFID single side. This reduces the external force and impact transmitted to the RFID and prevents damage to the RFID. As a result, RFID information can be read even if a large external force is applied to the cable. By covering the planar buffer body between the first tape body and the second tape body, a stable state can be achieved. According to the feature of the invention, since the RFID can be arranged at a fixed interval in the length direction of the optical fiber cable by the identification means, the cable information can be easily identified. Therefore, erroneous cutting of the optical fiber cable can be prevented, and a reduction in construction cost can be achieved. In addition, since the identification member is arranged vertically on the cable, it is possible to stabilize the state by covering a plurality of RFID's between the first tape body and the second tape body. Furthermore, since the buffer body is covered on the outer surface of the second tape body, the external force applied to the RFID can be absorbed by the buffer body. This reduces the external force and impact transmitted to the RFID 'and prevents damage to the RFID. As a result, RFID information can be read even if a large external force is applied to the cable. According to the feature of the invention, since the RFID can be arranged at a fixed interval in the length direction of the optical fiber cable by the identification member, the cable can be easily identified -16- (13) (13) 200422672 information. Therefore, erroneous cutting of the optical fiber cable can be prevented, and a reduction in construction cost can be achieved. In addition, since the identification member is arranged longitudinally on the cable, the plurality of RFIDs are sealed between the first tape body and the sealing buffer, and the external force applied to the RFID can be absorbed by the sealing buffer. Thereby, the external force and impact transmitted to the RFID can be reduced, and the RFID can be prevented from being damaged. As a result, RFID information can be read even if a large external force is applied to the cable. Since the waterproofness of the identification member can be improved by enclosing the buffer, even if the cable is placed in a high-humidity environment, it is difficult to damage the RFID due to water intrusion. With this, RFID information can be read. [Embodiment] Hereinafter, an embodiment of the present invention will be described with reference to the drawings. Referring to Fig. 5, an optical fiber cable 1 according to this embodiment is a grooved cable serving as a receiving portion. The cable 1 is not limited to a trough shape, and may be a twisted or tube type cable. In this embodiment, a grooved cable is used for explanation. The cable 1 includes a tensile body 5 inserted in a substantially circular cross-section through the substantially center of the slotted rod 3 including a long ruler. The tensile member 5 is made of a material such as steel wire, FRP, and high-strength fiber. The cable 1 includes a plurality of grooves 7 on its outer peripheral surface. In this embodiment, the five grooves 7 are designed to be parallel to each other along the longitudinal direction of the groove rod 3. The cable 1 contains five cores (for example, 4-core tape-wound cores (tape core -17- (14) (14) 200422672 fiber) 9) in the five slots 7 as a unit. Called "4-core tape"). A total of 100 fibers are housed. As shown in Fig. 6, the 4-core adhesive tape 9 has four single core fibers 11 arranged in parallel. A coating layer 13 made of a resin is formed around the 4-core tape 9 and these are integrally manufactured into a tape shape. The optical fiber core wire accommodated in the groove 7 is not limited to the above-mentioned four-core tape 9 and other tape core wires, and may be other types of optical fiber core wires. Furthermore, in the cable 1, the continuous body (identifying member) 15 according to the embodiment of the present invention is arranged on the outer peripheral surface of the slotted rod 3 in the longitudinal direction. The connected body 15 includes an RFID (Radio Frequency Identification) 23. The RFID23 is arranged on a long tape-shaped member at a fixed interval in the longitudinal direction. The details are described later. As described above, each groove 7 stores a plurality of 4-core tapes 9. In a state where the elongated body 15 is arranged in the longitudinal direction on the outer peripheral surface of the grooved rod 3, the outer periphery of the grooved rod 3 is coated with a resin tape material (w r a p p i n g) 1 7 and wound laterally. The outer side of this lateral coating layer 17 is packaged with, for example, a sheath 19 of PE (polyethylene) resin. In addition to the above-mentioned PE, the packaging material of the sheath 19 can also use PVC (polyvinyl chloride), nonhalogen flame retardant material (ecological material), and environmentally friendly material. Then, the embodiment of the present invention will be described.的 连长 体 1 5. Referring to FIGS. 1 and 2, the connected body (identification member) 21 as the connected body 15 in the first embodiment includes a plurality of RFIDs 23, for example. -18- (15) (15) 200422672 RFID23 is arranged on one side of the long tape 1 of the first tape body 25 at a proper interval in the long side direction, and is fixed by bonding. The RFID23s of the first embodiment are arranged at a fixed pitch P, that is, at an lm pitch. The first tape body 25 is made of PET (polyethylene terephthalate). The first tape body 25 has a thickness of 30 μm and a width of 30 mm. One side of the first tape body 25 includes, for example, an adhesive material layer 27 such as a hot-melt resin in advance. In order to protect the RFID23 from external forces, a spacer 29 thicker than the RFID23 is pasted near the RFID23. In this first embodiment, the spacer 29 has a long tape shape that can be adhered to one side of the first tape body 25. The plurality of hole portions 31 in which the plurality of RFIDs 23 are housed are arranged at the same pitch P as that of the arrangement state of the RFIDs 23, for example, at a pitch of 1 m. The spacer 29 is made of polyethylene and has a thickness of 0.1. 8mm, width 30mm. The hole portion 31 has a diameter of 22 mm in a substantially circular shape. RFID23 series has a diameter of 20mm and a thickness of 0. 35mm dish. The spacer 2 9 is adhered on one side of the first tape body 25 through an adhesive material layer 27 so that each RF I D 2 3 is housed in the plurality of hole portions 31. The upper surface of the spacer 29 is provided with a second tape body 33 having the same material, thickness and width as those of the first tape body 25, and the first tape body 33 is adhered via an adhesive material layer 35 on the back side. Although the second tape body 33 is preferably configured to be a solid long body 21, it is not necessary to satisfy the function of the long body 21. In detail, as shown in FIG. 3, the RFID23 is a 1C chip with memory cable information stored in a plastic box 37 in a hollow, roughly disc shape. -19- (16) (16) 200422672 39. The RFID23 is equipped with an antenna coil 41 which is electrically connected to the 1C chip 39. The antenna coil 41 includes a disk-shaped core member 43. The antenna coil 41 is a coated copper wire 45 as a coil body wound around the magnetic core member 43 in a spiral shape. The RFID 23 uses radio waves transmitted from a read / write device using electromagnetic induction. The antenna coil 41 can read and write the cable information stored in the 1C chip 39. For example, many optical fiber cables are laid along the railway. The cable 1 is described as an example of the case where it is used as a plurality of optical fiber cables along the railway. Follow the line to 2. Machine rooms are installed at intervals of 5 to 5 km, and most cables 1 are connected to the connection terminals of each machine room. When managing the cables 1 and removing the cables, the cables 1 must be identified. At the time of identification of each of the cables 1, each of the cables 1 is arranged with RFID23 at a regular interval of 1 m in the long direction. By this arrangement, if a part of the cable 1 is exposed, the RFID 23 can be found. It is easy to obtain the cable information written to RFID23 by using a magnetically induced read / write machine. The read / write device can easily read and write the 1C chip 39 in the RFID 23. The information written to the RFID 23 is not erased due to the passage of time. 'The read / write device can easily identify the destination cable 1 in a short time. Therefore, it is possible to prevent erroneous cutting of the optical fiber cable 1, and to reduce manufacturing costs. RFID23 uses 1C chip 39. Since the peripheral portion of the 1C chip 39 lacks mechanical strength, there is a concern that the rCID 39 is simply fixed to the continuous body of one side of the tape body, and the 1C chip 39 due to external force may be damaged. When the long body is arranged inside or on the cable 1, the RFID 1 2 3 -20 · (17) (17) 200422672 is broken due to the internal or external force of the cable, and the cable may not be identified . In addition, the continuous body 21 of the embodiment is opposite to the thickness of the RFID23 0 · 3 5 m m, and the thickness of the spacer 29 is 0. 8 m m. As shown in FIG. 1, the RFID 23 is surrounded and protected by a spacer 29. Therefore, even if an external force is applied to the continuous body 21, the spacer 29 absorbs the external force. This prevents breakage of the RFID 23. Next, a method for manufacturing the continuous body 21 will be described. The detailed description of the same parts as the above-mentioned connected body 21 is omitted. Referring to Fig. 4, an adhesive layer 27 is adhered to one side of the long first tape 25. One side of the first tape body 25 is adhered to a long tape-shaped spacer 29 by a pressure roller 47. The spacer 29 has holes 31 having a size that can hold RFID 23 at a fixed interval in advance in the longitudinal direction with a pitch P (1 m pitch in this embodiment). The first tape body 25 is made of PET and has a thickness of 30 // m and a width of 30 mm. The spacer 29 is made of polyethylene and has a thickness of 0. 8mm, width 30mm. The hole portion 31 is a substantially circular shape having a diameter of 22 mm. Then, an RFID device 49 is provided downstream of the pressurizing roller 47 (rightward in FIG. 4). The RFID 23 is supplied from the RFID supply device 49 into the hole portion 31 of the spacer 29. The RFID 23 is adhered to the adhesive layer 27 on one side of the first tape body 25. RFID23 series has a diameter of 20mm and a thickness of 0. 35mm dish. The plurality of RFID23s are arranged at a pitch of 1 m on the long side direction of one side of the first tape body 25, respectively. Then, the second tape body 33 having the same material, thickness, and width as the first tape body 25 is provided on the spacer 29, and the second tape body 33 is pasted through the adhesive layer 35 -21-(18) (18) 200422672. The spacer 2 9 and the second tape body 3 3 are adhered by a pressure roller 5 1. The continuous body 21 is manufactured by the above steps. Next, the continuous body 53 of the second embodiment will be described. The detailed description of the same parts as the long body 21 of the first embodiment is omitted. Referring to Fig. 7, the continuous body 53 is the first tape body 25 and the second tape body 33 are the same as the continuous body 21 of the first embodiment. It is characterized in that two pieces of tape-shaped spacers 5 5 hold RF ID 2 3 and are arranged on both sides thereof. The spacer 5 5 is made of polyethylene and has a width of 4 mm and a thickness of 0. 8mm long tape shape. The two spacers 55 are adhered to the adhesive layer 25 of the first tape body 25 along both side edges of the first tape body 25 in the width direction. The two spacers 5 and 5 are approximately centered between each other. The RFID 23 is adhered and fixed at intervals in the longitudinal direction of the first tape body 25. RFID23 is arranged at a fixed interval of lm pitch. The upper surface of the two spacers 55 is attached to the second tape body 33 on the upper surface of the first image via the adhesive layer 35 on the back surface. The second tape body 33 has the same material and thickness as the first tape body 25. The function of the elongated body 5 3 of the second embodiment is substantially the same as that of the aforementioned elongated body 21. Basically, the thickness of the spacer 55 is larger than the thickness of the RFID 23, so the RFID 2 is protected by the spacers 55 on both sides. . The external force applied to the elongated body 53 is absorbed by the spacer 55 to prevent the RFID 23 from being damaged. The manufacturing method of the continuous body 53 is to adhere two pieces of long tape to the adhesive material layer 2 7 adhered on one side of the long tape body 25 and the two tape edges along the width direction of the first tape body 25. Tape-like spacer 5 5. It is the same as the fourth figure of the first embodiment -22- (19) (19) 200422672, and it is adhered with a pressure roller 4 7. Then, the RFID 23 is supplied from the RFID supply device 49 to the substantially central portion between the two spacers 5 and 5 at a fixed interval lm pitch, and adhered to the adhesive layer 27 on one side of the first tape body 25. Then, the second tape body 3 3 is adhered to the two spacers 5 5 through the adhesive layer 3 5. The spacers 5 5 and the second tape body 33 are adhered with a pressure roller 51 in the same manner as in the case of Fig. 4 of the first embodiment. From the above steps, a long body 5 3 is produced. Next, the connected body 57 of the third embodiment will be described in detail. The detailed description of the same parts as the first and second embodiments described above is omitted. Referring to Fig. 8, the elongated body 57 is the same as the elongated body 53 of the second embodiment in a point where the RFID23 is held so that two pieces of tape-shaped spacers are arranged on both sides. It is characterized in that two spacers 59 are opposed to each RFID 23 and are arranged on both sides in the longitudinal direction of the first tape body 25. The spacer 59 extends in a direction (lateral direction) perpendicular to the longitudinal direction of the first tape body 25. The spacer 5 9 is adhered to one side of the first tape body 25 through an adhesive layer 27. The spacers 5 and 9 are made of polyethylene and have a width of 4 mm and a thickness of 0. 8mm, 30mm in length. The upper surface of the two spacers 59 and the one side of the first tape body 25 are attached to the second tape body 33 via the adhesive layer 35 on the back side in the first figure. The second tape body 33 has the same material, thickness, and width as those of the first tape body 25. The function of the connected body 57 of the third embodiment is substantially the same as that of the connected body 53 described above. Basically, the thickness of the RFID23 is relatively large. Therefore, the RFID59 is protected by the spacers 59 on both sides. -23- (20) (20) 200422672 Even if an external force is applied to the long body 57, the two spacers 5 and 9 absorb external force to prevent the RFID23 from being damaged. A method for manufacturing the continuous body 5 7 will be described. The longitudinal direction of the two tape-shaped spacers 59 is aligned with the lateral direction of the first tape body 25. The spacer 59 is an adhesive layer 27 supplied to one side of the first tape body 25 having a long length. The spacers 5 9 are positioned on both sides of the position where the R FID 2 3 should be pasted at a fixed interval of 1 m in the longitudinal direction of the first tape body 25. The spacer 5 9 is the same as in the case of Fig. 4 of the first embodiment, and is adhered with a pressure roller 4 7. Then, the RFID 23 is supplied from the RFID supply device 49 between the two spacers 59 described above, and is adhered on one side of the first tape body 25 with an adhesive layer 27. Next, the second tape body 3 3 is adhered to the upper surface of each of the spacers 59 and one side of the first tape body 25 via an adhesive layer 35 on the back surface of the second tape body 3 3. The RFID23 is adhered with a pressure roller 51 as in the case of Fig. 4 of the first embodiment. The continuous body 5 7 is manufactured by the above steps. Next, the continuous body 61 of the fourth embodiment will be described in detail. The detailed description of the same parts as the continuous body 21 of the first embodiment is omitted. With reference to FIG. 9, the continuous body 61 is the first tape body 25 and the second tape body 33 and the third tape body of the first embodiment. The long body 2 1 is the same. It is characterized in that a ring-shaped spacer 65 having a hole portion 63 capable of accommodating the RFID 23 is arranged at an appropriate interval and adhered and fixed to the longitudinal direction of the first tape body 25. In the fourth embodiment, it is arranged at a fixed interval of 1 m and is adhered to the adhesive layer 27 of the first tape body 25. The spacer 65 • 24-(21) (21) 200422672 is made of polyethylene and has a thickness of 0. 8 mm, the inner diameter of the hole portion 63 is 22 mm, and the outer diameter is 30 mm. The plurality of RFID23 is attached to the inside of the hole portion 63 of each spacer 65 through the adhesive layer 2 7 respectively! Tape 2 5 on one side. The upper surface of the spacer 65 and one surface of the first tape body 25 are adhered to the second tape body 33 through the adhesive layer 35 on the back surface in the first figure. The second tape body 33 has the same material, thickness, and width as those of the first tape body 25. The operation of the elongated body 61 of the fourth embodiment is substantially the same as that of the aforementioned elongated body 21. Basically, the thickness of R F I D 2 3 is relatively large. Therefore, since the thickness of the spacer 65 is large, the RFID 23 is surrounded and protected by the spacer 65. Even if an external force is applied to the continuous body 61, the external force can be absorbed by the spacer 65 to prevent the RFID 23 from being damaged. A method of manufacturing the continuous body 61 will be described. The adhesive layer 27 adhered to one side of the long tape body 25 is provided with a ring-shaped spacer 65 at a regular interval of 1 m in the longitudinal direction of the first tape body 25. The spacer 65 is positioned so that the hole portion 63 of the spacer 65 surrounds the position where the RFID 23 should be stuck. The spacer 65 is attached to the first tape body 25 by the pressure rollers 4 7 in the same manner as in the case of Fig. 4 of the first embodiment. Then, the RFID 23 is supplied from the RFID supply device 49 into the above-mentioned hole portion 63 of the spacer 65 and adhered to the adhesive layer 27 on one side of the first tape body 25. Then, the second tape body 33 is adhered to the upper surface of each spacer 65 and one side of the first tape body 25 by the adhesive layer 35 on the back surface of the second tape body 33. The second tape body 3 3, the spacer 65, and the first tape -25- (22) 200422672 body 25 are affixed with a pressure roller 5 1 as in the fourth figure of the first embodiment. The continuous body 61 ° is manufactured by the above steps. Then, it is confirmed that the $, 5, 3, 5, 7, and 61 in the form of the aforementioned brothers 1 to 4 are used in the optical fiber cable 1 shown in FIG. 5. Therefore, the continuous body 67 'of the comparative example was manufactured as follows. Referring to FIG. 10, in the connected body 6 7 of Comparative Example 1, the body 25 and the second tape body 33 and the RFID 23 and the RFID 23 state system are connected to the connected body 2 of the first to fourth embodiments 2 1, 6 1 the same. The continuous body 6 7 series has no spacers' and has an adhesive structure having a first tape 2 and a second tape body 33. [Comparative test 1] The continuous bodies 2 1, 5 3 of the above-mentioned first to fourth embodiments are opposed to the continuous body 67 of Comparative Example 1 individually, and the impact test method is based on the impact test (based on `` 2 7 (1 9 8 7): Basic environmental testing proced 2. 1: Tests Test Ea: Shock "). The load of the test conditions, the speed of 18 m / sec, was in contact with the RFID 23 from directly above the RFID 23. The number of tests is performed in units of one hundred times. The operation confirmation is performed every one hundred times. If the information is read, the test is continued. As shown in Table 1, the maximum number of times to read the information is confirmed. Trial set to 2 0 0 0 times. Comparison test of the effect of plugging the long body 21 The arrangement of the first tape 53, 57 and the post body 25, 57 and 61 were tested. Also IEC68-2-ures Part is tested in 40g 1 direction. Check. Upper limit of result test -26- (23) (23) 200422672 Table 1 Comparative example of continuous body 1st, 2nd, 3rd, 4th, 1st, 1st, 2nd, 3rd, 4th Times 2 00 times 2 000 times 2 000 times As can be seen from the above Table 1, in the connected body 67 of Comparative Example 1, after the shock of 5,000 times, the information of RFID 23 cannot be read. That is, the number of times of impact resistance is 5,000 times. The connected bodies 21, 53, 57, and 61 of the first to fourth embodiments can read information even if they are performed up to 2,000 times. Therefore, in any of the elongated bodies 2 1, 5 3, 5 7, and 61 of the first to fourth embodiments, the RFID 23 is protected by the absorption of the external force of the spacer 65. [Comparative Test 2] Furthermore, the effectiveness of the optical fiber cable 1 in which the connected bodies 21, 53, 57, 57 and 61 of the first to fourth embodiments were arranged longitudinally inside or on the surface of the cable was confirmed. The optical fiber cable 1 in the form in which the connected body 21 of the first embodiment is arranged in the longitudinal direction in FIG. 5 is representatively manufactured. The optical fiber cable in which the elongated body 67 of the comparative example 1 described above was longitudinally disposed inside the cable was manufactured as a comparative example 2 in the same manner as that shown in FIG. 5. In contrast, a comparative test is performed. That is, the test method is based on a crush test (based on JISC682 1). The test conditions were a 100 mm steel plate for a crush test, a certain cable surface of RFID23 as the upper surface, and a load was applied to the RFID23 portion. At this point, -27- (24) (24) 200422672 is applied for 1 minute. The applied load is increased to 5N / mm scale. Then, each test confirms whether or not the information from RFID23 is read. As shown in Table 2, confirm the test 荷 of the maximum applied load when reading the information. Table 2 The cable of Comparative Example 1 is used as the optical fiber cable (Comparative Example 2) The maximum withstand voltage (N / mm) of the cable using the long body of the first embodiment 5 15 As can be seen from Table 2 above, in Comparative Example 2 The optical fiber cable cannot read information when the applied load is 1 ON / mm. Information cannot be read when the optical fiber cable of this embodiment is 20 N / mm. Therefore, even in a cable state, the mechanical properties of the continuous body using the spacer of the present invention are excellent. Next, the connected body 69 of the fifth embodiment of the present invention will be described in detail. The detailed description of the same parts as the connected body 21 of the first embodiment is omitted. Referring to FIG. 11 to FIG. 13 to FIG. 13 and FIG. 13B, in the continuous body 69, the RFID 23 is arranged with a long tape on one side of the planar first buffer body 71 at an appropriate interval, and is fixedly attached to Its long side direction. The RFID23 is arranged at a fixed pitch P, that is, an lm pitch. The first buffer body 71 is made of a non-woven material, and has a thickness of 1 mm and a width of 30 mm. An adhesive layer 7 3 is provided on one side of the first buffer body 71 in advance. The first buffer body 71 is a water-absorbent polymer mixed with polyacrylic acid. • 28-(25) 200422672 In order to protect the RFID23 from external forces, the planar second buffer body 75 is adhered to the first buffer 71 by covering the RFID23 from the outside. The second buffer body 75 has a material, thickness, and width similar to those of the first buffer body 71, and is mixed with polyacrylic acid as a water-absorbing polymer. An adhesive material layer 77 is pasted on one side of the second buffer body 75 in advance. The first and second buffer bodies 7 1 and 7 5 absorb the external force with a material that is softer than the sheath 19 of the optical cable 1 arranged in the longitudinal direction. Therefore, it is preferable to use paper, nonwoven fabric, cotton, or the like because it is a material that is softer than the sheath 19. Soft plastics can also be used. The buffer material is not limited to a solid, and may be a gel or sealed to the vicinity of the RFID23. The greater the thickness of the first and second buffer bodies 7 1 and 7 5, the greater the effect can be obtained. Those coated with water-absorbing polymers such as starch, cellulose, polyvinyl alcohol, and polyacrylic acid, and adhesively coated and incorporated in the first and second buffer bodies 71 and 75 to improve water absorption may be used. The function of the long body 69 will be described. On at least one side of the RFID 23, the outer sheath 19 of the cable 1 has a hardness of at least 1 'and the second buffer body 71 75 covering at least the RFID 23. With this structure, even if an external force is applied to the continuous body, the first and second buffer bodies 71, 75 function as a cushioning material. By this action, the external force and the impact are transmitted to the RFID23 to prevent the RFID23 from being damaged. A water-absorbent polymer ′ having a waterproof effect is mixed with the first and second buffer bodies 71 and 75 to effectively prevent water intrusion into the RFID 23. Referring to FIG. 14, a method for manufacturing the continuous body 69 will be described. The RFID supply device 49 has a diameter of 20 mm and a thickness of 0.1 mm. The cover of the 35mm dish has the same fiber distribution as the RFID23 of -29-(26) (26) 200422672. The adhesive layer 7 3 adhered to one side of the first buffer body 71 having a long length is supplied with RFID23 to the longitudinal direction of the first buffer body 71 from the R FID supply device 49 at a fixed interval of 1 m. As a result, the RFID 23 is adhered to the adhesive layer 73 on one side of the first buffer body 71. Then, the second buffer body 75 covers the RFID 23, and the adhesive layers 73 and 77 are bonded to one side of the first buffer body 71 through the adhesive layers 73 and 77, respectively. The first and second buffer bodies 71 and 75 are adhered with a pressure roller 79 to produce a continuous body 69. Next, the continuous body 81 of the sixth embodiment will be described in detail. Detailed descriptions of the same parts as the long bodies 21 and 69 of the first and fifth embodiments are omitted. Referring to FIGS. 15A and 15B, in the continuous body 81, the RFID 23 is arranged at a fixed interval of 1 m in the long side direction of one side of the long first tape body 25 and is adhesively fixed. The first tape body 25 described above is made of PET, has a thickness of 30 // m, and a width of 30 mm. An adhesive layer 27 is provided on one side of the first tape body 25 in advance. Furthermore, in order to protect the RFID 23 from external forces, a tape-shaped second buffer body 75 having the same material, thickness, and width as that of the fifth embodiment and mixed with a water-absorbing polymer is used. The second buffer body 75 covers the RFID 23 from the outside and is adhered to the first tape body 25. The function of the long body 81 will be described. The second buffer body 75 on at least one side of the RFID 23 having a hardness less than that of the sheath 19 of the cable covers at least the RFID 23. With this structure, even if an external force is applied to the continuous body 81, the function of the second buffer body 75 as a buffer material described above can reduce the transmission of external force and impact to the RFID 23 and prevent the RFID 23 from being damaged. Since the second buffer body -30- (27) (27) 200422672 75 is mixed with a water-absorbing polymer, it is prevented from being immersed in the RFID23. A method for manufacturing the continuous body 81 will be described. In the manufacturing apparatus for the continuous elongated body 69 of the fifth embodiment shown in Fig. 14, the long tapered cushion body 71 is replaced with the first tape body 25. Since this manufacturing method is the same as the fifth embodiment, detailed description is omitted. Referring to FIG. 16, FIG. 17A, and FIG. 17B, in the continuous body 83, the RFID 23 is arranged at a fixed interval of 1 m in the long side direction on one side of the long tape-shaped first buffer body 71. And adhered and fixed. The first buffer body 71 described above is the same as that of the elongated body 69, and is made of a non-woven material, having a thickness of 1 mm and a width of 30 mm. An adhesive layer 73 is provided on one side of the first buffer body 71 in advance. Polyacrylic acid hydrazone was mixed with the first buffer body 71 as a water-absorbing polymer. Furthermore, in order to protect the RFID 23 from external forces, the second buffer body 85 having a dish shape is adhered to the first buffer body 71 so as to cover the RFID 23 from the outside. The material of the second buffer body 8 5 is a non-woven fabric having a thickness of 1 mm and a diameter of 25 mm. An adhesive material layer 7 7 is provided on one side of the second buffer body 85 in advance. The second buffer body 8 5 is a polyacrylic acid mixed with water as a water-absorbing polymer. The operation of the elongated body 83 is basically the same as that of the elongated body 69 of the fifth embodiment. Characteristic effect ... The second buffer body 85 in the shape of a dish reduces external force and impact applied to the RFID23, prevents the rFID23 from being damaged, and prevents the RFID23 from being immersed in water. A method of manufacturing the continuous body 83 will be described with reference to FIG. 18. The adhesive layer 7 3 adhered to one side of the long first buffer body 71 is supplied from R FID -31-(28) 200422672 to the device 49 so that the RFID23 is spaced at a fixed interval of 1 m from the first buffer body 71. The RFID 23 is adhered to the adhesive layer 73 of the first buffer S. Then, the buffer body supply device 87 has a second buffer body 85. The second buffer body 8 5 series dielectric layer 77 is adhered to the upper surface of the RFID 23. The RFID23 is covered with the pressurized name by the buffer body 85 and is then adhered to one side of the first buffer body 71. As described above, 3 is produced. Next, the connected body 89 of the eighth embodiment will be described. Details of the same parts of the continuous body 2 1 and 8 3 of the embodiment. With reference to FIG. 19A and FIG. 19B, the long sides of the first tape 25 of the continuous length ruler are aligned at a fixed distance and aligned. RFID23 is then fixed. The material of the first tape body has a thickness of 30 // m and a width of 30 mm. An adhesive layer 27 is provided on one side of J in advance. In order to protect the RFID 23 from external forces and cover the RFID 23, a disc-shaped second buffer body 25 is used. The second buffer body 85 is made of a non-woven material 1 mm and has a diameter of 25 mm. A material layer 7 7 is deposited on one side of the second buffer body 85. The second buffer body 8 5 is a mixed polyacrylic acid polymer. The function of the elongated body 89 is basically the same as that of the elongated body 69: the disc-shaped second buffer body 85 reduces external forces and impacts, prevents damage to the RFID 23, and is supplied to the single-sided system of the above-mentioned body 71. From this, the second plate 73 and the 77 I long body 83 are formed on the back of the plate, followed by Ryoko 7 9. The 1st and 7th detailed explanation is to omit the drop 89, and the 25 series is a PET spring 1 tape body 25 at a distance of 1 m. It is attached to the first quality from the outside 85 and has a thickness in advance. The same as water absorption. Its features up to RFID23 also prevent water intrusion. -32- (29) (29) 200422672 in RFID23. A method for manufacturing the continuous body 89 will be described. In the manufacturing apparatus for the continuous elongated body 83 of the seventh embodiment shown in FIG. 8, the long first buffer body 71 is replaced with the first tape body 25. Since the manufacturing method is the same as that of the seventh embodiment, detailed description is omitted. Next, the continuous body 91 of the ninth embodiment will be described. The detailed description of the same parts as those in the first and fifth embodiments is omitted;! And 69 are detailed. With reference to FIG. 20A and FIG. 20B, among the body 91, in the ninth embodiment The RFID 2 3 is arranged in a long distance direction of one side of the first tape body 25 having a long length at a fixed interval of 1 m and is adhesively fixed. The first tape body 25 is made of PET, and has a thickness of 30 // m and a width of 30 mm. An adhesive layer 27 is provided in advance on one side of the first tape body 25. Furthermore, in order to protect the RFID from an external force, a tape-like second buffer body 93 is held on the upper surface of the RFID 23 and is interposed therebetween Next, the material layer 77 is overlapped. The second cushion body 93 is made of a non-woven material and has a thickness of 1 mm and a width of 25 mm. An adhesive layer 77 is provided on the back surface of the second buffer body 93 in advance. Polyacrylic acid hydrazone was mixed with the second buffer body 93 as a water-absorbing polymer. The second tape body 33 having a long length is bonded to the first tape body 25 so as to be covered from the outside of the second buffer body 93 through the adhesive layer 27 on the back side. The material, thickness, and width of the second tape body 33 are substantially the same as those of the first tape body 25. -33- (30) (30) 200422672 The operation of the body 91 is basically the same as that of the body 69 of the fifth embodiment. Its characteristic function is to reduce the external force and impact of the second planar buffer body 93 on the RFID 23, prevent the RFID 23 from being damaged, and prevent the RFID 23 from being immersed in the water. A method for manufacturing the continuous body 91 is described with reference to FIG. 21. From the long side of the first tape body 25 of the RFID supply device 49, RFID 23 is supplied at a fixed interval of lm pitch to the adhesive layer 27 on one side of the first tape body 25 attached to the long tape. As a result, the RFID 23 is an adhesive layer 27 adhered to one side of the first tape body 25. Then, the 'second buffer body 93 is overlapped so as to hold the upper surface of the RFID23. The second buffer body 93 is adhered by a pressure roller 79 through an adhesive material layer 77. The second tape body 33 is adhered to the first tape body 25 so as to be covered from the outside of the second buffer body 93 through the adhesive layer 35 on the back side. Thereby, the second tape body 33 is adhered by the pressure roller 95. As described above, the continuous body 91 is manufactured. Next, the long body 97 of the tenth embodiment will be described. The detailed description of the same parts as the connected body 2 1 and 9 1 of the first and ninth embodiments is omitted. Referring to FIGS. 22A and 22B, RFID 23 is fixed to the long side of the connected body 97 in the longitudinal direction. The lm intervals are aligned and fixed to one side of the first tape body 25 having a long length. The first tape body 25 is made of PET, and has a thickness of 30 // m and a width of 30 mm. An adhesive layer 27 is provided on one side of the first tape body 25 in advance. The adhesive layer on the back side is covered from the outside of the RFID23. • 34- (31) (31) 200422672 35 The second tape body 33 is adhered to the tape body 25. The material, thickness and width of the second tape body 33 are substantially the same as those of the first tape body 25. Furthermore, in order to protect the above-mentioned RFID 23 from external forces, the planar second buffer body 9 3 is adhered to the outside of the second tape body 33 with an adhesive tape shape through an adhesive material layer 7 7. The second buffer body 93 is made of a non-woven material and has a thickness of 1 mm and a width of 25 mm. An adhesive layer 77 is provided on the back surface of the second buffer body 93 in advance. The second buffer body 93 is mixed with a polyacrylate as a water-absorbing polymer. The operation of the long body 97 is basically the same as that of the long body 69 of the fifth embodiment. Its characteristic action is that the second buffer body 93 reduces the external force and impact applied to the RFID 23, prevents the RFID 23 from being damaged, and prevents water from entering the RFID 23. A method for manufacturing the continuous body 97 will be described with reference to FIG. 23. The RFID 2 3 is supplied from the RFID supply device 49 to the adhesive material layer 27 adhered to one side of the long first tape body 25 at a fixed interval in the longitudinal direction of the first tape body 25. As a result, the RFID 23 is adhered to the adhesive layer 27 on one side of the first tape body 25. Then, the second tape body 33 is adhered to the first tape body 25 via the adhesive layer 35 on the back side so as to cover from the outside of the RFID23. Thereby, the second tape body 33 is adhered by the pressure roller 79. The second buffer body 93 is superposed on the upper surface of the second tape body 33, and is adhered by a pressure roller 95 through an adhesive material layer 77. Above, a continuous body 97 was manufactured. Next, the continuous body 99 of the eleventh embodiment will be described. The detailed description of the same parts as the connected bodies 21 and 69 of the first to thirty-fifth (32), (32) 200422672 and fifth embodiment is omitted. Referring to FIG. 24A and FIG. 24B, the RFID23 is aligned on the long body 99 'in the first embodiment at a fixed interval of 1 m in the long side direction, and the first tape body 25 is fixedly attached to the long body 99'. One-sided. The first adhesive tape body 25 is made of PET, and has a thickness of 30 / im and a width of 30 mm. An adhesive layer 27 ° is provided on one side of the first tape body 25 in advance. Furthermore, in order to protect the RFID 23 from external forces, a sealing buffer for sealing the RFID 23 is used, such as a gel made of a gel-like object.胶状 101。 The gel 101. The gel 101 is sealed from the outside of the RFID 23 between the RF ID 23 and the first tape body 25. Instead of the gel-like substance 101, the sealing buffer system may use a powder of a water-absorbing polymer. The second tape body 33 and the long tape body 25 are adhered to each other through the adhesive material layer 77 on the back surface so as to be covered from the outside of the gel-like body 101. The material, thickness, and width of the second tape body 33 are substantially the same as those of the first tape body 25. The operation of the elongated body 99 is basically the same as that of the elongated body 69 of the fifth embodiment. Its characteristic effect is to reduce the force and impact of the gel 101 or water-absorptive polymer powder applied to the RFID23, prevent the damage of the RFID23, and prevent water intrusion into the RFID23. A method for manufacturing the continuous body 99 will be described with reference to FIG. 25. From the RFID supply device 49, the RFID 23 is fed to the adhesive layer 27 attached to one side of the long tape of the first tape body 25 at a regular interval of 1 m from the long side of the first tape body 25. As a result, the RFID 23 is adhered to the first adhesive tape -36 · (33) 200422672 on one side of the adhesive layer 27 of the body 25. Then, the second tape body 33 is adhered to the first tape body 25 via the adhesive layer 77 on the back side so as to cover from the outside of the gel-like body 101. The second tape body 33 is adhered by a pressure roller 79. As described above, the continuous body 99 is manufactured. Then, the continuous bodies 69, 81, 83, 89, 91, 97, 99 of the fifth to eleventh embodiments described above are used for the optical fiber cable 1 shown in FIG. 5. In order to confirm the effectiveness, the following comparison was performed.

〔比較試驗3〕 比較第5至第1 1實施形態所使用的緩衝體與光纖纜 線1之外皮1 9的硬度。結果’如表3所示。 表3 PET膠帶 包裝（低密度 聚乙烯） 不織物 凝膠狀物 硬度（JISA) 100 90 10 0[Comparative test 3] The hardness of the buffer body used in the fifth to eleventh embodiments and the sheath 19 of the optical fiber cable 1 was compared. The result 'is shown in Table 3. Table 3 PET tape Packaging (low-density polyethylene) Non-woven gel Gel hardness (JISA) 100 90 10 0

如表3所示，各材料的硬度係從硬者依序爲PET ( 100 ) >低密度聚乙烯（90 ) >不織布（) >凝膠狀物 (0 )。硬度試驗係依據JISK63 0 1進行。凝膠狀物係使用 與JI S K 6 3 0 1試驗同體積分的試料、測定° 〔比較試驗4〕 依據第5圖的光纖纜線，進行比較：使用第5至第 -37- (34) (34)200422672 1 1實施形態的連長體69、81、83、89、91、97、99之纜 線；使用上述之比較例1的連長體6 7之纜線（上述的比 較例2之纜線）；以及在纜線長邊方向以1 m間距的間隔 將RFID23的單體埋入在外皮19中的纜線（比較例3 )之 試驗。 試驗方法係依據壓壞試驗（依據JI S C 6 8 2 1 )。試驗 條件與比較試驗2相同。結果，如表4所示，確認可獲得 讚取資訊時之最大的施加荷重之試驗値。 表4 光纖 纜線 埋設RHD 單體之纜線 (比較例3) 使用比較例1 的纜線 (比較例2) 使用第5 實施形態 的連長體 之纜線 使用第6 實施形態 的連長體 之纜線 使用第7 實施形態 的連長體 之纜線 最大耐壓 5 5 20 15 20 (N/mm) 光纖纜線 使用第8實 使用第9實 使用第10 使用第11 施形態的連 施形態的連 實施形態 實施形態 長體之纜線 長體之纜線 的連長體 的連長體 之纜線 之纜線 最大耐壓 15 15 15 25 (N/mm) 從以上表4可知，使用第5至第1 1實施形態的連長 -38- (35) (35)200422672 體（包含緩衝體者）之纜線，比使用RFID23的單體埋設 至纜線中之纜線或比較例1的纜線，係使RFID23毀損且 施加無法讀取資訊爲止的荷重大，且機械性優良。換言之 ，埋設在連長體中的面狀緩衝體7 5、8 5或凝膠狀物1 〇 1 等的緩衝體由於比纜線1的外皮1 9柔軟，故使傳達至 RFID23的外力減少。 〔比較試驗5〕 比較第1 1實施形態之連長體99、在第Π實施形態 取代凝膠狀物1 〇 1使用吸水性高分子（聚丙烯酸塩）之連 長體、比較例1之連長體67、以及RFID23的單體之防水 性的防水性試驗。試驗方法係依據IEC5 2 9，試驗特性爲 IP的等級。 IP ( Internation Protection)的各等級係如下述。 IP 65級係與噴流水相對的構造。根據該構造，使用內徑 6.3 mm的噴嘴，即使從3m的距離將29.4kPa的水注入某 方向1 5分鐘，水亦沒有進入。IP 6 6級係與波浪相對的構 造。根據該構造，使用內徑1 2.5 m m的噴嘴’即使從3 m 的距離將98kPa的水注入某方向1分鐘，水亦沒有進入。 IP67級係浸漬入水中之相對的保護構造。根據該構造’ 即使沒入至水深1 m三十分鐘，水亦沒有進入。 -39- (36) 200422672 表5 連長體 RFID 單體 比較例1 的 RFID 之連長體 內封第I 1 實施形態的 凝膠狀物質 之RFID連 長體 取代第1 1實 施形態的凝膠 狀物內封吸水 性高分子之 RFID連長體 防水等級 IP65 級 IP65 級 IP67 級 IP66 級As shown in Table 3, the hardness of each material is PET (100) > low density polyethylene (90) > non-woven fabric () > gel (0) in order from hard. The hardness test is performed in accordance with JISK63 01. For the gel-like substance, use the same sample volume and measure as the JI SK 6 3 01 test. [Comparative test 4] For comparison, use the optical fiber cable shown in Figure 5: Use the 5th to -37- (34) (34) 200422672 1 1 The cable of the long body 69, 81, 83, 89, 91, 97, 99 of the embodiment; the cable of the long body 67 of the comparative example 1 described above (comparative example 2 above) Cable); and a cable (Comparative Example 3) in which the RFID23 monomer was embedded in the sheath 19 at intervals of 1 m in the longitudinal direction of the cable. The test method is based on a crush test (according to JI S C 6 8 2 1). The test conditions were the same as in Comparative Test 2. As a result, as shown in Table 4, it was confirmed that the maximum test load when the information was obtained was obtained. Table 4 Cables with RHD monomers embedded in optical fiber cables (Comparative Example 3) Cables of Comparative Example 1 (Comparative Example 2) Cables using the long body of the fifth embodiment are used in the sixth embodiment For the cable, use the longest cable of the seventh embodiment. The maximum withstand voltage 5 5 20 15 20 (N / mm) For the optical fiber cable, use the 8th and 9th and 10th and 11th. Form of the embodiment of the embodiment Form of the long body of the cable Long body of the cable Long body of the cable of the long body of the cable Maximum pressure 15 15 15 25 (N / mm) From Table 4 above, we know that The cable length of the 5th to 11th embodiment -38- (35) (35) 200422672 body (including the buffer body) cable is more than the cable embedded in the cable using RFID23 alone or Comparative Example 1 The cable has a high load until RFID23 is damaged and information cannot be read, and it has excellent mechanical properties. In other words, since the buffers such as the planar buffers 75, 85, and the gel-like body 101 embedded in the continuous body are softer than the sheath 19 of the cable 1, the external force transmitted to the RFID 23 is reduced. [Comparative test 5] The continuous body 99 of the first embodiment is compared with the gel body 101 in the second embodiment, and the continuous body of a water-absorbing polymer (polyacrylic acid) is used in comparison with the continuous body of Comparative Example 1. Waterproofness test of the waterproofness of the long body 67 and the RFID23 monomer. The test method is based on IEC5 2 9 and the test characteristics are IP grade. Each level of IP (Internation Protection) is as follows. The IP 65 grade is a structure opposed to jet water. According to this structure, using a nozzle with an inner diameter of 6.3 mm, even if 29.4 kPa of water is injected into a certain direction for 15 minutes from a distance of 3 m, water does not enter. The structure of IP 6 6 is opposite to the wave. According to this structure, even if 98 kPa of water is injected into a certain direction for 1 minute from a distance of 3 m using a nozzle ′ having an inner diameter of 1 2.5 m m, water does not enter. IP67 grade is a relative protective structure immersed in water. According to this structure, even if it was submerged to a depth of 1 m for thirty minutes, water did not enter. -39- (36) 200422672 Table 5 The continuous body of the RFID body of the RFID body of Comparative Example 1 The internal body of the RFID body of the RFID body of the first embodiment 1 is replaced by the gel body of the first embodiment of the gel body. Waterproof polymer with inner body sealed with water-resistant RFID with long body IP65 rating IP65 rating IP67 rating IP66 rating

從上述表5可知，第1 1實施形態的連長體99之防水 等級比RFID23的單體或比較例1的連長體高且防水性優 良。特別是，作爲封入RFID23之封入緩衝物，凝膠狀物 1 〇 1比吸水性高分子的粉末防水性優良。因而，藉由緩衝 物使連長體本身的防水性提升。藉此，將具備封入緩衝物 的連長體配置在縱方向之纜線即使置放在高溫環境下，亦 難以引起浸水之RFID的破壞。藉此，成爲可讀取RFID 的資訊的纜線。 本發明係不限定於上述之實施形態，藉由適當變更， 亦可獲得其他實施態樣。 〔產業上利用的可能性〕 發明的識別構件係對於纜線的識別甚爲有用。特別是 識別構件對於埋設於地底的纜線之識別甚爲有用。 【圖式簡單說明】 -40- (37) (37)200422672 第1圖係本發明第1實施形態例之連長體的部分斜視 圖。 第2圖係第1圖的連長體之全體的槪略斜視圖。 第3圖係在第1圖所使用的RFID之槪略斜視圖。 第4圖係第1圖之連長體的製造步驟之槪略說明圖。 第5圖係使用第2圖的連長體之光纖纜線的剖面圖。 第6圖係作爲收納於第5圖的光纖纜線內的光纖心線 之例如4芯膠帶的剖面圖。 第7圖係本發明之第2實施形態的連長體的部分斜視 圖。 第8圖係本發明之第3實施形態的連長體的部分斜視 第9圖係本發明之第4實施形態的連長體的部分斜視 圖。 第1 0圖係比較例1的連長體之部分斜視圖。 第1 1圖係本發明之第5實施形態的連長體的部分斜 視圖。 第12圖係第11圖之連長體的全體槪略之斜視圖。 第13A圖係第11圖之連長體的長邊方向之剖面圖。 第13B圖係第13A圖的箭頭ΧΙΙΙΒ-ΧΙΠΒ線的剖面圖 〇 第14圖係第11圖的連長體之製造步驟的槪略說明圖 〇 第1 5 A圖、第1 5 B圖係顯示本發明的第6實施形態 -41 - (38) (38)200422672 之連長體。第15A圖係連長體的長邊方向之剖面圖。第 15B圖係第15A圖的箭號XVB-XVB線的剖面圖。 第1 6圖係本發明之第7實施形態的連長體的部分斜 視圖。 第17A圖係連長體的長邊方向之剖面圖。第17B圖 係第17A圖的箭號XVIIB-XVIIB線的剖面圖。 第18圖係第16圖的連長體之製造步驟的槪略說明圖 〇 第1 9 A圖、第1 9 B圖係顯示本發明的第8實施形態 之連長體。第19A圖係連長體的長邊方向之剖面圖。第 19B圖係第19A圖的箭號XIXB-XIXB線的剖面圖。 第20A圖、第20B圖係顯示本發明的第9實施形態 之連長體。第20A圖係連長體的長邊方向之剖面圖。第 20B圖係第20A圖的箭號XXB-XXB線的剖面圖。 第21圖係第20A圖、第20B圖的連長體之製造步驟 的槪略說明圖。 第22A圖、第22B圖係顯示本發明的第1〇實施形態 之連長體。第22A圖係連長體的長邊方向之剖面圖。第 22B圖係第22A圖的箭號XXIIB-XXIIB線的剖面圖。 第23圖係第22A圖、第22B圖的連長體之製造步驟 的槪略說明圖。 第24A圖、第24B圖係顯示本發明的第1 i實施形態 之連長體。第24A圖係連長體的長邊方向之剖面圖。第 24B圖係第22A圖的箭號XXIVB-XXIVB線的剖面圖。 -42- (39) (39)200422672 第25圖係第24A圖、第24B圖的連長體之製造步驟 的槪略說明圖。 主要元件對照表 1 :光纖纜線 3 :槽桿 5 :抗張力體 7 :槽溝 9 : 4芯膠帶 1 1 :光纖單芯線 13 :覆蓋體 1 7 :塗層 15、21、53、57、61、67、69、81、83、89、99: il 長體 1 9 :外皮As can be seen from Table 5 above, the waterproof body 99 of the first embodiment has a waterproof rating higher than that of the RFID23 single body or the multiple body of Comparative Example 1 and is excellent in water resistance. In particular, as a sealing buffer for sealing the RFID23, the gel 101 is more water-resistant than the powder of the water-absorbing polymer. Therefore, the waterproofness of the long body itself is improved by the buffer. This makes it difficult to cause damage to the RFID immersed in water even if the cable having the longitudinal body provided with the enclosed buffer is placed in a high-temperature environment. This becomes a cable that can read RFID information. The present invention is not limited to the above-mentioned embodiments, and other embodiments can be obtained by appropriate changes. [Possibility of Industrial Utilization] The identification member system of the invention is very useful for the identification of cables. In particular, the identification member is very useful for identifying cables buried in the ground. [Brief description of the drawings] -40- (37) (37) 200422672 Fig. 1 is a partial oblique view of a continuous body of the first embodiment of the present invention. Fig. 2 is a schematic perspective view of the entire long body of Fig. 1. Fig. 3 is a schematic perspective view of the RFID used in Fig. 1. FIG. 4 is a schematic explanatory diagram of the manufacturing steps of the connected body of FIG. 1. FIG. Fig. 5 is a cross-sectional view of the optical fiber cable using the extended body shown in Fig. 2; Fig. 6 is a cross-sectional view of, for example, a 4-core tape as an optical fiber core wire contained in the optical fiber cable of Fig. 5; Fig. 7 is a partial oblique view of a connected body according to a second embodiment of the present invention. Fig. 8 is a partial oblique view of a long body of a third embodiment of the present invention. Fig. 9 is a partial oblique view of a long body of a fourth embodiment of the present invention. FIG. 10 is a perspective view of a part of the connected body of Comparative Example 1. FIG. Fig. 11 is a partial perspective view of a concatenated body according to a fifth embodiment of the present invention. FIG. 12 is an oblique view of the entire long body of FIG. 11. FIG. 13A is a cross-sectional view in the longitudinal direction of the continuous body in FIG. 11. Fig. 13B is a cross-sectional view taken along the arrow XIIB-XIIB line of Fig. 13A. Fig. 14 is a diagram illustrating the manufacturing steps of the concatenated body of Fig. 11. Fig. 15A and Fig. 1B show The sixth embodiment of the present invention is -41-(38) (38) 200422672 connected body. Fig. 15A is a cross-sectional view of the long side of the continuous body. Fig. 15B is a sectional view taken along the line XVB-XVB of Fig. 15A. Fig. 16 is a partial perspective view of a long body of a seventh embodiment of the present invention. Fig. 17A is a cross-sectional view in the longitudinal direction of the continuous body. Fig. 17B is a sectional view taken along line XVIIB-XVIIB of Fig. 17A. Fig. 18 is a simplified explanatory diagram of the manufacturing process of the connected body shown in Fig. 16 Fig. 19A and 19B are connected bodies showing the eighth embodiment of the present invention. Fig. 19A is a cross-sectional view of the long side of the continuous body. Figure 19B is a cross-sectional view taken along the line XIXB-XIXB of Figure 19A. Figures 20A and 20B show a continuous body according to a ninth embodiment of the present invention. Fig. 20A is a cross-sectional view of the long side of the continuous body. Figure 20B is a sectional view taken along the line XXB-XXB of Figure 20A. Fig. 21 is a schematic explanatory diagram of the manufacturing process of the connected body shown in Figs. 20A and 20B. Figures 22A and 22B show the continuous body of the tenth embodiment of the present invention. Fig. 22A is a cross-sectional view in the longitudinal direction of the continuous body. FIG. 22B is a cross-sectional view taken along the line XXIIB-XXIIB of FIG. 22A. Fig. 23 is a schematic explanatory view of the steps of manufacturing a connected body in Figs. 22A and 22B. Fig. 24A and Fig. 24B show the continuous body according to the first i embodiment of the present invention. Fig. 24A is a cross-sectional view of the long side of the continuous body. Figure 24B is a sectional view taken along the line XXIVB-XXIVB in Figure 22A. -42- (39) (39) 200422672 Figure 25 is a diagrammatic illustration of the manufacturing steps of the conjoined body in Figures 24A and 24B. Main component comparison table 1: Optical fiber cable 3: Slot rod 5: Tension-resistant body 7: Slot 9: 4-core tape 1 1: Optical fiber single-core wire 13: Cover body 17: Coating 15, 21, 53, 57, 57 and 61 , 67, 69, 81, 83, 89, 99: il long body 1 9: outer skin

23 ： RFID 25 :第1膠帶體 27、 35、 73、 77:接著材層 29、 55、 59、 65:間隔件 3 1、6 3 :孔部 33 :第2膠帶體 37 :盒體 39 : 1C晶片 4 1 :天線線圈 -43- (40) (40)200422672 4 3 :磁心構件 4 5 :被覆銅線 4 7、5 1、7 9 :加壓滾子 49 : RFID供給裝置 71 :第1緩衝體 75、85、93:第2緩衝體 8 7 :緩衝體供給裝置 1 〇 1 :凝膠狀物 -44-23: RFID 25: first tape body 27, 35, 73, 77: adhesive layer 29, 55, 59, 65: spacer 3 1, 6 3: hole 33: second tape body 37: box 39: 1C chip 4 1: Antenna coil -43- (40) (40) 200422672 4 3: Magnetic core member 4 5: Coated copper wire 4 7, 5 1, 7 9: Pressure roller 49: RFID supply device 71: No. 1 Buffers 75, 85, 93: Second buffer 87: Buffer supply device 1 〇1: Gel-44-

Claims (1)

200422672 (1) 拾、申請專利範圍 1·一種識別構件，其特徵在於具備有： 長尺的膠帶體； 複數個 RFID ( Radio Freguency Identification;無線頻 率數識別），係在該膠帶體的單面上介以適當間隔配列於 其長邊方向；以及 間隔件，係用以保護該RFID免於外力影響而黏貼於 上述RFID附近且具有比上述RFID大的厚度。 2 ·如申請專利範圍第丨項之識別構件，其中，上述間 隔件具有可黏貼於上述膠帶體的單面之長尺的膠帶狀，上 述間隔件係具有分別將上述複數個RFID收容於內部之複 數個孔部。 3 .如申請專利範圍第1項之識別構件，其中，上述間 隔件具有可黏貼於上述膠帶體的單面之膠帶狀，上述間隔 件係挾住上述複數個之各RFID並配置於其兩側。 4 ·如申請專利範圍第1項之識別構件，其中，上述間 隔件係可黏貼於上述膠帶體的單面，上述間隔件具備具有 可收容上述RFID之孔部的環形狀。 5.—種識別構件，其特徵在於具備有： 長尺的膠帶體或第1緩衝體； 複數個RFID，係在上述膠帶體或第1緩衝體的單面 #以適當間隔配列於其長邊方向；以及 第2緩衝體，係從外側覆蓋用以吸收施加至該RFID 的外力而保護的上述RFID且黏貼於上述膠帶體或第1緩 -45- (2) (2)200422672 衝體。 6 ·如申請專利範圍第5項之識別構件，其中，上述第 2緩衝體係具有可覆蓋複數個RFID之長尺的膠帶狀或可 覆蓋各RFID之碟形狀。 7 · —種識別構件，其特徵在於具備有： 長尺的第1膠帶體； 複數個RFID，係在上述第1膠帶體的單面介以適當 間隔配列於其長邊方向； 緩衝體，係以將用以吸收施加至該RFID的外力而保 護的上述RFID挾於上述第1膠帶體之間的方式重疊；以 及 第2膠帶體，係從外側覆蓋該緩衝體且黏貼於上述第 1膠帶體。 8 . —種識別構件，其特徵在於具備有： 長尺的第1膠帶體； 複數個RFID，係在該第1膠帶體的單面介以適當間 隔配列於其長邊方向； 第2膠帶體，係從外側覆蓋該RFID且黏貼於上述第 1膠帶體；以及 緩衝體，係黏貼於用以吸收施加至該RFID的外力而 保護的第2膠帶體之外側。 9 . 一種識別構件，其特徵在於具備有： 長尺的第1膠帶體； 複數個RFID，係在上述第1膠帶體的單面介以適當 -46- (3) (3)200422672 間隔配列於其長邊方向； 封入緩衝物，係從外側將用以吸收施加至該R FID的 外力而保護的上述RFID封入至上述第1膠帶體之間；以 及 第2膠帶體，係從外側覆蓋該封入緩衝體且黏貼於上 述第1膠帶體。 I 〇 · —種識別構件的製造方法，其特徵在於： 在長尺的膠帶體之單面於該膠帶體的長邊方向介以適 當間隔配列複數個RFID， 將具有保護上述複數個RFID免於外力影響之厚度大 於上述RFID的間隔件黏貼於上述rfid附近。 II · 一種識別構件的製造方法，其特徵在於： 在長尺的膠帶體或第1緩衝體的單面於該膠帶體或第 1緩衝體的長邊方向介以適當間隔配列複數個RFID， 以用以吸收施加於上述RFID之外力而保護的第2緩 衝體覆蓋上述RF ID外側並將上述第2緩衝體黏貼於膠帶 體或第1緩衝體。 1 2 · —種識別構件的製造方法，其特徵在於： 在長尺的第1膠帶體單面於該第1膠帶體的長邊方向 介以適當間隔配列複數個RFID， 以將用以吸收施加於上述RFID之外力而保護的上述 RFID挾住在緩衝體與上述第1膠帶體之間的方式重疊， 以第2膠帶體從外側覆蓋上述緩衝體並將上述第2膠帶體 黏貼於第1膠帶體。 •47- (4) 200422672 1 3 · —種識別構件的製造方法，其特徵在於： 在長尺的第1膠帶體單面於該第1膠帶體的長邊方向 介以適當間隔配列複數個RFID， 以第2膠帶體從外側覆蓋上述RFID並將上述第2膠 帶體黏貼於上述第1膠帶體’ 將用以吸收施加於上述RFID之外力而保護的緩衝體 黏貼於上述第2膠帶體的外側。200422672 (1) Scope of patent application 1. A recognition member, which is characterized by having: a long tape body; a plurality of RFID (Radio Freguency Identification) radio frequency identifications, attached to one side of the tape body Arranged in the long-side direction at appropriate intervals; and spacers are used to protect the RFID from external forces and stick to the vicinity of the RFID and have a thickness larger than the RFID. 2 · As the identification member of the scope of application for patent, wherein the spacer has a long tape shape that can be adhered to one side of the tape body, the spacer has a plurality of RFIDs respectively housed in the interior. A plurality of holes. 3. The identification member according to item 1 of the scope of patent application, wherein the spacer has a tape shape that can be adhered to one side of the tape body, and the spacer is configured to hold the plurality of RFIDs and to be disposed on both sides . 4. The identification member according to item 1 of the patent application scope, wherein the spacer is adhered to one side of the tape body, and the spacer has a ring shape having a hole portion capable of accommodating the RFID. 5. An identification member, comprising: a long tape body or a first buffer body; a plurality of RFIDs arranged on one side of the tape body or the first buffer body # at appropriate intervals on the long sides thereof Direction; and a second buffer body, which covers the above-mentioned RFID protected by absorbing external force applied to the RFID from the outside and is adhered to the above-mentioned tape body or first buffer -45- (2) (2) 200422672 punch. 6. The identification member according to item 5 of the patent application scope, wherein the second buffer system has a tape-like shape that can cover a plurality of RFIDs or a dish shape that can cover each RFID. 7. An identification member, comprising: a first tape body with a long length; a plurality of RFIDs arranged on one side of the first tape body at a suitable interval in the long-side direction; a buffer body, The RFID tapes protected by absorbing external force applied to the RFID are stacked between the first tape bodies; and the second tape body covers the buffer body from outside and is adhered to the first tape body. . 8. An identification member, comprising: a first tape body having a long length; a plurality of RFIDs arranged on one side of the first tape body at an appropriate interval in a longitudinal direction thereof; and a second tape body , The RFID tape is covered from the outside and adhered to the first tape body; and the buffer body is adhered to the outer side of the second tape body to be protected by absorbing external force applied to the RFID. 9. An identification member, comprising: a first tape body having a long length; a plurality of RFIDs arranged on one side of the first tape body at an appropriate interval of -46- (3) (3) 200422672 at an interval Its long side direction; a sealing buffer, which seals the RFID which is protected by absorbing an external force applied to the R FID from the outside, between the first tape body; and a second tape body, which covers the seal from the outside The buffer body is adhered to the first tape body. I 〇 · A method for manufacturing an identification member, characterized in that: a plurality of RFIDs are arranged on one side of a long tape body in a direction of a long side of the tape body at an appropriate interval, and the plurality of RFIDs are protected from The thickness of the spacer affected by the external force is larger than that of the RFID sticking near the RFID. II. A method for manufacturing an identification member, comprising: arranging a plurality of RFIDs at appropriate intervals on one side of a long tape body or a first buffer body with a proper interval between the long sides of the tape body or the first buffer body; The second buffer body protected by absorbing external force applied to the RFID covers the outside of the RF ID and adheres the second buffer body to a tape body or a first buffer body. 1 2 · A method of manufacturing an identification member, comprising: arranging a plurality of RFIDs at appropriate intervals on one side of a long tape of a first tape body in a long side direction of the first tape body to absorb and apply The RFID tag protected by the external force of the RFID is overlapped so as to live between the buffer body and the first tape body, and the second tape body covers the buffer body from the outside and adheres the second tape body to the first tape body. • 47- (4) 200422672 1 3-A method for manufacturing an identification member, characterized in that: a plurality of RFIDs are arranged on one side of a long tape tape body on one side of the first tape body with a proper interval therebetween at appropriate intervals. The second tape body is used to cover the RFID from the outside, and the second tape body is adhered to the first tape body. A buffer body for protecting the external force applied to the RFID is protected and adhered to the outer side of the second tape body. . 1 4 . 一種識別構件的製造方法，其特徵在於： 在長尺的第1膠帶體單面於該第1膠帶體的長邊方向 介以適當間隔配列複數個RFID， 藉由用以吸收施加於上述RFID的外力而保護之封入 緩衝物，將上述RFID從外側封入至上述第1膠帶體之間 以上述第2膠帶體殂外側覆蓋上述封入緩衝物，並將 上述第2膠帶體黏貼於第1膠帶體。1 4. A method for manufacturing an identification member, comprising: arranging a plurality of RFIDs at appropriate intervals on a long side of a first tape body on one side of the first tape body in a direction of a long side of the first tape body; An enclosing buffer protected by the external force of the RFID, encapsulating the RFID from the outside to the first tape body, covering the enclosing buffer with the outside of the second tape body, and adhering the second tape body to the first Tape body. 15.—種光纖纜線，其特徵在於具備有： 外皮構件，係大致爲圓筒形狀； 收納部，係在該外皮構件的內部收納抗張力體與複數 條光纖芯線；以及 識別構件，係縱方向配置於上述外皮構件的內部或表 面， 該識別構件係包含有： 長尺的膠帶體； 複數個RFID，係在該膠帶體的單面介以適當間隔配 •48- (5) (5)200422672 列於其長邊方向；以及 間隔件，係黏貼於用以吸收施加於該RFID的外力而 保護的上述RFID附近，且具有比上述RFID大的厚度。 1 6 .如申請專利範圍第1 5項之光纖纜線，其中，上述 間隔件具有可黏貼於上述膠帶體的單面之長尺的膠帶狀， 上述間隔件係具有將上述複數個各RFID收容於內部 的複數個孔部。 1 7 ·如申請專利範圍第1 5項之光纖纜線，其中，上述 間隔件具有可黏貼於上述膠帶體單面之膠帶狀， 上述間隔件係挾住上述複數個之各RFID並配置於其 兩側。 1 8 .如申請專利範圍第1 5項之光纖纜線，其中，上述 間隔件係可黏貼於上述膠帶體的單面， 上述間隔件係具備具有可收容上述RFID之孔部的 環形狀。 19·一種光纖纜線，其特徵在於具備有： 外皮構件，係大致爲圓筒形狀； 收納部，係在該外皮構件的內部收納抗張力體與複數 條光纖芯線；以及 識別構件，係縱方向配置於上述外皮構件的內部或表 面， 上述識別構件係包含有： 長尺的膠帶體或第1緩衝體； 複數個RFID，係在該膠帶體或第1緩衝體的單面介 -49- (6) (6)200422672 以適當間隔配列於其長邊方向；以及 第2緩衝體，係從外側覆蓋用以吸收施加於該RFID 的外力而保護上述RFID，且黏貼於上述膠帶體或第1緩 衝體。 20·如申請專利範圍第19項之光纖纜線，其中，上述 第2緩衝體係具有可覆蓋複數個RFID之長尺的膠帶狀、 或可覆蓋各RFID的碟形狀。 21.—種光纖纜線，其特徵在於具備有： 外皮構件，係大致爲圓筒形狀； 收納部，係在該外皮構件的內部收納抗張力體與複數 條光纖芯線；以及 識別構件，係縱方向配置於上述外皮構件的內部或表 面， 上述識別構件係包含有： 長尺的第1膠帶體； 複數個RFID，係在該第1膠帶體的單面介以適當間 隔配列於其長邊方向； 緩衝體，係以將用以吸收施加於該RFID的外力而保 護上述RFID挾住在上述第1膠帶體之間的方式重疊；以 及 第2膠帶體，係從外側覆蓋上述緩衝體並黏貼於上述 第1膠帶體。 22·—種光纖纜線，其特徵在於具備有： 外皮構件，係大致爲圓筒形狀； •50- (7) (7)200422672 收納部，係在該外皮構件的內部收納抗張力體與複數 條光纖芯線； 識別構件，係縱方向配置於上述外皮構件的內部或表 面， 上述識別構件係包含有： 長尺的第1膠帶體； 複數個RFID，係在該第1膠帶體的單面介以適當間 隔配列於其長邊方向；以及 第2膠帶體，係從外側覆蓋該RFID並黏貼於上述第 1膠帶體；以及 緩衝體，係黏貼於用以吸收施加於上述RFID之外力 而保護的上述第2膠帶體外側。 2 3 . —種光纖纜線，其特徵在於具備有： 外皮構件，係大致爲圓筒形狀； 收納部，係在該外皮構件的內部收納抗張力體與複數 條光纖芯線；以及 識別構件，係縱方向配置於上述外皮構件的內部或表 面， 上述識別構件係包含有： 長尺的第1膠帶體； 複數個RFID，係在該第1膠帶體的單面介以適當間 隔配列於其長邊方向； 封入緩衝物，係從外側將用以吸收施加於該RFID的 外力而保護的上述RFID封入至上述第1膠帶體之間；以 (8)200422672 及 第2膠帶體，係從外側覆蓋上述封入緩衝物，並黏貼 於上述第1膠帶體。15. An optical fiber cable, comprising: a sheath member, which has a substantially cylindrical shape; a storage portion, which contains a tension member and a plurality of optical fiber core wires inside the sheath member; and an identification member, which is in a longitudinal direction The identification member is arranged on the inside or the surface of the outer skin member, and the identification member includes: a long tape body; a plurality of RFIDs, which are arranged at appropriate intervals on one side of the tape body; 48- (5) (5) 200422672 It is listed in the long-side direction; and the spacer is adhered to the vicinity of the RFID to be protected by absorbing an external force applied to the RFID, and has a thickness larger than that of the RFID. 16. The optical fiber cable according to item 15 of the scope of patent application, wherein the spacer has a long tape shape that can be adhered to one side of the tape body, and the spacer has a plurality of RFID housings. Inside a plurality of holes. 17 · If the optical fiber cable according to item 15 of the scope of patent application, the spacer has a tape shape that can be adhered to one side of the tape body, and the spacer is configured to hold the plurality of RFIDs and arrange the RFID On both sides. 18. The optical fiber cable according to item 15 of the scope of patent application, wherein the spacer is adhered to one side of the tape body, and the spacer is provided with a ring shape having a hole portion capable of accommodating the RFID. 19. An optical fiber cable, comprising: a sheath member having a substantially cylindrical shape; a accommodating portion containing a tension member and a plurality of optical fiber core wires inside the sheath member; and an identification member arranged in a longitudinal direction On the inside or the surface of the outer skin member, the identification member includes: a long tape body or a first buffer body; a plurality of RFIDs attached to the single-sided interface of the tape body or the first buffer body -49- (6 ) (6) 200422672 Arranged in the long-side direction at appropriate intervals; and the second buffer is covered from the outside to absorb the external force applied to the RFID to protect the RFID, and is adhered to the tape or the first buffer . 20. The optical fiber cable according to item 19 of the patent application scope, wherein the second buffer system has a tape-like shape that can cover a plurality of RFIDs, or a dish shape that can cover each RFID. 21. An optical fiber cable, comprising: a sheath member, which is generally cylindrical; a storage portion, which contains a tension member and a plurality of optical fiber core wires inside the sheath member; and an identification member, which is in a longitudinal direction The identification member is disposed on the inside or the surface of the outer skin member, and the identification member includes: a first tape body with a long rule; a plurality of RFIDs arranged on a single side of the first tape body in a long side direction at an appropriate interval; The buffer body is superimposed so as to absorb the external force applied to the RFID to protect the RFID dwelling between the first tape body; and the second tape body covers the buffer body from the outside and adheres to the above The first tape body. 22 · —An optical fiber cable, comprising: a sheath member, which is generally cylindrical; • 50- (7) (7) 200422672 a storage section, which is configured to contain a tension member and a plurality of pieces inside the sheath member Optical fiber core wire; an identification member, which is longitudinally disposed inside or on the surface of the sheath member, the identification member includes: a first tape body with a long length; a plurality of RFIDs, connected on one side of the first tape body Arranged at appropriate intervals in the long-side direction; and a second tape body covering the RFID from the outside and sticking to the first tape body; and a buffer body sticking to the above for protecting and absorbing the external force applied to the RFID Outside of the second tape body. 2 3. An optical fiber cable, comprising: a sheath member, which is substantially cylindrical; a storage section, which contains a tension member and a plurality of optical fiber core wires inside the sheath member; and an identification member, which is longitudinal The identification member is disposed inside or on the surface of the outer skin member, and the identification member includes: a first tape body having a long length; and a plurality of RFIDs arranged on one side of the first tape body at an appropriate interval in a long side direction. ; The sealing buffer is used to seal the above-mentioned RFID protected by absorbing external force applied to the RFID between the first tape body; (8) 200422672 and the second tape body are used to cover the above-mentioned seal from the outside The buffer is adhered to the first tape body. -52--52-
TW93103216A 2003-02-12 2004-02-11 RFID-equipped identification member and method of producing the same, and optical fiber cable using identification member TWI234017B (en)

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JP2003033812A JP2004266886A (en) 2003-02-12 2003-02-12 String length body equipped with rfid, manufacturing method thereof, and optical fiber cable using the same

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