TWI335343B - - Google Patents

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Publication number
TWI335343B
TWI335343B TW93101623A TW93101623A TWI335343B TW I335343 B TWI335343 B TW I335343B TW 93101623 A TW93101623 A TW 93101623A TW 93101623 A TW93101623 A TW 93101623A TW I335343 B TWI335343 B TW I335343B
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TW
Taiwan
Prior art keywords
resin
film
water
heat
printing
Prior art date
Application number
TW93101623A
Other languages
Chinese (zh)
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TW200508289A (en
Inventor
Masaaki Yamanaka
Hiroshi Koike
Kazuyuki Kimura
Seiichiro Iida
Original Assignee
Yupo Corp
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Publication of TW200508289A publication Critical patent/TW200508289A/en
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Publication of TWI335343B publication Critical patent/TWI335343B/zh

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    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02WCLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO WASTEWATER TREATMENT OR WASTE MANAGEMENT
    • Y02W90/00Enabling technologies or technologies with a potential or indirect contribution to greenhouse gas [GHG] emissions mitigation
    • Y02W90/10Bio-packaging, e.g. packing containers made from renewable resources or bio-plastics

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Description

1335343 玖、發明說明: 【發明所屬之技術領域】 本發明係關於一種樹脂延伸薄膜及使用其而得到之製 品’該樹脂延伸薄膜係於藉差壓成形、中空成形、射出成 形、發泡成形、延伸吹出成形或壓縮成形而製造之熱塑性 树月曰谷器,與容器成形同時地貼黏之模内成形用標籤或以 熱密封所製作之各種包裝袋等,設有可利用於其等各種包 袭袋等之水系熱密封性樹脂塗布層(E)。 【先前技術】 自以往即進行開發耐水性,對藥品性、耐久性等供給於 必須用途之模内成形用標籤。例如,在由延伸或無延伸之 聚晞烴樹脂所構成之透明薄膜或調配無機微細粉末或有機 填充劑之延伸或無延伸的聚烯烴樹脂所構成的白色薄膜 (合成紙)等之片面’在薄膜製造之過程中使各種熱密封性樹 脂層共押出者(特開平2_84319號公報)、職貼合或積層已 被雕花加工之熱密封性樹脂膜者、❹各種塗布設備而將 熱密封性樹脂塗布於表面者(特開平2_122914號公報)等已 被開發且一部分被商品化。 此等習知模内成形用標籤係於模内成形時為使封閉在居 !容器與:藏之間的空氣逃逸,在製造過程中於熱密封核 月曰層面雕化加工,或預先將被雕花加工之薄膜貼合或相 曰’或塗布時設有梯形之圖案為必須。又,用以使此等空 =逸之圖案無法形成於表面時,於標籤本身開啟細孔而 氣逃逸之Μ(㈣平2·娜峨讀)6被提出。作, 90848.doc I335343 即使以任一種方法,製造步驟會變複雜,無法避免生產性 之降低、不良品產生數之增加,製造成本的上昇之問題。 又,在模内成形用標籤之製造步驟中,藉共押出,設置 熱密封性樹脂層的習知方法中,就所使用之熱密封性樹脂 的耐熱性、腐蝕性、熔融時之黏度特性亦有本身可使用之 樹脂受限制的問題。 進一步,以各種塗布設備進行塗覆之習知法時,若欲於 預先進行雕化加工等之基材薄膜表面塗布熱密封性樹脂層 (特開平5·249895號公報)、基材薄膜之溶劑吸收性低,塗布 ,之大部分當乾燥時會集中㈣著在基材薄膜之雕花凹 Ρ於塗布表面很難使雕花形狀再現之問題仍存在。使用 無吸水性之薄膜時,藉凹版印刷塗布機以高黏度之狀態塗 Τ熱炫型樹脂或溶㈣熱密封樹脂的塗料,而將彫刻親格 室之梯形圖案附著於基材表面之方法亦被採用。但,即使 在2情形,以高點度之塗布亦為必須,故生產性降低造成 這成本的上汁、或、使用有機溶劑引起火災或環境污染 的問題仍存在。 〃 本發明係以解決此等習知技術之問題點為課題。亦即, 本發明係當熱密封性樹脂塗布層設於基材薄膜表面時,不 須於塗布層表面設有特定之圖案,或設有貫通細孔。亦提 供-種可擴展-構成熱密封性樹脂層之材料的選擇性,緩 和有關塗布及加工設備之限W ’以具錢異生產性與模内 標籤性能之樹脂延伸薄膜。進一步,提供具有優異功能之 模内成形用標籤、或、貼黏其標籤之模㈣形容器。 90848.doc 1335343 之層其平均粒!且大於基材薄膜表面之平均開口徑者。 又塗布熱後封性樹脂後之乾燥結束時,塗布層之塗膜 表面且以刀散液粒子形態來形成,熱密封性樹脂之相轉移 溫度宜為5G〜14G°C。進-步,水f、熱密封性樹脂塗布劑之 塗布係亦可以生產線步驟内及/或生產線步驟外之任一者 (亦或兩者)來實施。 ^有本發明之水系熱密封性樹脂塗布層(E)的基材薄膜 係,、要可滿足上述之條件,亦可具有積層於其他樹脂膜或 ,、他材料之構造者。尤其設有水系熱密封性樹脂塗布層(E) t基材薄膜成為最外層,宜為與其他樹脂膜積層之積層構 ^因此"又有本發明之水系熱密封性樹脂塗布層(E)作為 最外層之樹脂延伸薄膜,係基材薄膜可為單層構造’亦可 為多層構造,只要於水系熱密封性樹脂塗布層(£)之相反面 被P刷及/或印子製飾者,又,水系熱密封性樹脂塗布層(E) 面被印刷及/或文字裝飾者滿足上述之條件,均可包含於本 發明之範圍内。 ' 又亦包3使用上述樹脂延伸薄膜之模内成形用標籤及 貼黏該私籤之模内成形容器。模内成形容器係宜藉差壓成 成$射出成形、發泡成形、延伸吹出成形或壓 縮成形而製造出者’宜由選自高密度聚乙婦、低密度聚乙 稀、聚丙婦、聚醋、聚苯乙埽、聚氯化乙稀及聚碳酸醋之 群中所構成之材料。 本發明之樹脂延伸薄膜係具有液體吸收性優之基材薄膜 與水系熱密封性樹脂塗布層者,顯示優異之模内標鐵適用 90848.doc 1335343 性者。本發明之樹脂狂抽域 ㈣W㈣可以少於f知之塗布量進行 頁用以使習知進行之空氣逃逸的雕花等表面Λ 工,可有效率地製造。播出士欢 σ ι、構成本發明之樹脂延 封性樹脂塗布層係可以廣範 、’、、、私 項乾旳材科構成,又,有關 加工設備的限制亦較以往大幅地緩和。 【實施方式】 ^以下’詳細說明㈣—設有本發明水^密封性樹脂 塗布層⑹的樹脂延伸薄膜。又,在本說明書中使用「〜 所示的數值範圍,择音少人Γ 係思才日含有3己載於「〜」前後之數值作為 下限值及上限值的範圍。1335343 发明Invention Description: [Technical Field] The present invention relates to a resin stretch film which is obtained by differential pressure forming, hollow molding, injection molding, foam molding, and a product obtained using the same. A thermoplastic tree sapling which is produced by stretching or compression molding, and a label for in-mold forming which is adhered at the same time as the container is formed, or various packaging bags produced by heat sealing, etc., and various packages which can be used for the same A water-based heat-sealable resin coating layer (E) such as a bag. [Prior Art] A label for in-mold molding that is required for the development of water resistance and is required for pharmaceutical use and durability. For example, a one-sided surface of a white film (synthetic paper) composed of a transparent film composed of an extended or non-stretched polyanthracene resin or a polyolefin resin in which an inorganic fine powder or an organic filler is extended or not stretched is In the process of producing a film, a heat-sealable resin is obtained by co-extruding various heat-sealable resin layers (Japanese Unexamined Patent Publication No. Hei No. Hei. No. Hei. A person who has been applied to the surface (Japanese Laid-Open Patent Publication No. Hei. No. Hei. No. Hei. No. Hei. No. 2-122914) has been developed and partially commercialized. The conventional in-mold forming label is formed by in-mold forming so that the air enclosed between the container and the container escapes, is carved in the heat-sealed core layer during the manufacturing process, or is processed in advance by the engraving. It is necessary to provide a trapezoidal pattern when the film is bonded or phased. Moreover, when the pattern of such an empty space is not formed on the surface, the label itself is opened by opening the pores and the gas escapes ((4) Ping 2·Na峨 reading) 6 is proposed. 90848.doc I335343 Even in either case, the manufacturing steps become complicated, and it is impossible to avoid a decrease in productivity, an increase in the number of defective products, and an increase in manufacturing cost. Further, in the manufacturing process of the in-mold forming label, in the conventional method of providing the heat-sealable resin layer by the total extrusion, the heat-sealing resin used has heat resistance, corrosivity, and viscosity at the time of melting. There are problems with the resin that can be used by itself. Further, in the conventional method of coating with various coating apparatuses, a heat-sealable resin layer is applied to the surface of the base film which has been subjected to engraving or the like in advance (Japanese Unexamined Patent Publication No. Hei. The absorption is low, and most of the coating is concentrated when dry. (4) The problem that the engraved concave of the base film on the coated surface is difficult to reproduce the shape of the engraving still exists. When a non-absorbent film is used, the coating of the hot resin or the heat-sealing resin is applied in a high-viscosity state by a gravure coater, and the trapezoidal pattern of the engraved parent compartment is attached to the surface of the substrate. Adopted. However, even in the case of 2, coating with a high degree is necessary, so that the problem of the lowering of the productivity, the use of the above-mentioned cost, or the use of an organic solvent to cause a fire or environmental pollution still exists. The present invention is directed to solving the problems of the prior art. In other words, in the present invention, when the heat-sealable resin coating layer is provided on the surface of the substrate film, it is not necessary to provide a specific pattern on the surface of the coating layer or to provide a through-hole. It is also possible to provide an expandable-selectable material constituting the heat-sealable resin layer, and to alleviate the limitations of the coating and processing equipment, and to extend the resin to a resin-extended film having a property of inferior productivity and in-mold labeling. Further, a label for in-mold forming having an excellent function or a mold having a label attached thereto is provided. 90848.doc 1335343 layer of its average grain! And greater than the average opening diameter of the surface of the substrate film. Further, when the drying of the heat-sealing resin is applied, the surface of the coating film of the coating layer is formed in the form of a squeezing liquid particle, and the phase transition temperature of the heat-sealable resin is preferably 5 G to 14 G °C. The step-wise, water-f, heat-sealable resin coating agent coating system can also be carried out in either the production line step and/or the production line step (or both). The base film of the water-based heat-sealable resin coating layer (E) of the present invention may satisfy the above-described conditions, and may have a structure laminated on another resin film or a material thereof. In particular, the water-based heat-sealable resin coating layer (E) is provided, and the base film is the outermost layer, and it is preferable to form a laminate with another resin film. Therefore, the water-based heat-sealable resin coating layer (E) of the present invention is further provided. As the outermost resin stretched film, the base film may be a single layer structure' or a multilayer structure, as long as it is brushed and/or printed on the opposite side of the water-based heat-sealable resin coating layer (£), Further, the surface of the water-based heat-sealable resin coating layer (E) which is printed and/or decorated with the characters satisfies the above conditions and can be included in the scope of the present invention. The package 3 is also used for the in-mold forming label of the above-mentioned resin stretch film and the in-mold forming container to which the private label is attached. The in-mold forming container is preferably manufactured by differential injection into injection molding, foam molding, stretch blow molding or compression molding. It is preferably selected from high-density polyethylene, low-density polyethylene, polypropylene, poly A material consisting of vinegar, polystyrene, polychlorinated ethylene and polycarbonate. The resin-stretched film of the present invention has a liquid-absorbent base film and a water-based heat-sealable resin-coated layer, and exhibits excellent in-mold standard iron for use in the application of 90848.doc 1335343. The resin maddening zone (4) of the present invention (4) W (4) can be produced in an amount of less than the amount of coating which is known to be used for surface etching such as engraving of air which is conventionally carried out, and can be efficiently produced. The release of the resin σ ι, which constitutes the resin encapsulating resin coating layer of the present invention, can be made up of a wide range of ',, and private dry coffin materials, and the restrictions on processing equipment are greatly reduced. [Embodiment] The following is a detailed description of (4) - a resin stretched film provided with the water-sealing resin coating layer (6) of the present invention. In addition, in the present specification, the numerical range shown in "~" is used, and the number of the selected ones before and after the "~" is included as the lower limit and the upper limit.

[熱塑性樹脂(A)J /史有本發明之水系熱密封性樹脂塗布層(E)的基材薄膜 係含有熱塑性樹脂。㈣於基材薄膜之熱塑性樹脂⑷可舉 例:結晶性丙烯系樹脂、或高密度聚乙烯、中密度聚乙烯、 低在度小乙稀等之結晶性乙稀系樹脂、聚甲基小戊稀等之 結晶性聚烯烴系樹脂、耐隆_6、耐隆·6,6、耐隆〇耐隆 -M2等之聚醯胺系樹脂、聚對苯二甲酸乙二酯或其共聚合 物♦萘一甲酸乙二、脂肪族聚醋等之熱塑性聚醋系樹 脂、聚碳酸醋、雜態型聚笨乙稀、異態型聚本乙婦、聚苯 石瓜醚等之熱塑性樹脂。亦可此等2種以上混合而使用。 此等之中,從耐藥品性或生產成本等之觀點,宜使用結 晶性聚烯烴系樹脂,更宜使用結晶性丙烯系樹脂。 結晶性丙烯系樹脂宜使用丙烯單獨聚合之同態型聚合物 或異態型聚合物。又,亦可使用乙稀、1-丁烯、1-己烯、1- 90848.doc 1335343 庚烯、4-甲基小戊稀等之2.稀煙與丙稀共聚合、且具有各 式各樣的立體規則性之以丙歸為主成分的共聚合物。共聚 合物可為2元系,亦可為3元“上之多元系,可為隨機共 聚合物亦可為嵌段共聚合物。 在基材薄膜之熱塑性樹脂(A)的含量一般為2〇〜8〇重量 %,宜為25〜75重量% [無機微細粉末(B)及有機填充谢】 可使用於構成本發明樹脂延伸薄膜之基材薄膜的無機微 、,田私末(B)係可例不.重f碳酸約、輕質碳酸弼、燒成泥士、 滑石、氧化鈦、碳酸鎖、氧化鋅、氧㈣、石夕藻土、氧化石夕 4之無機微細粉末、於無機微細粉末之核的周圍具有紹氧化 物或氫氧化物之複合無機微細粉末、中空玻璃珠等。其中若 使用重質碳酸鈣、燒成泥+、 許多空孔而佳。 》澡土,為廉價及延伸時形成 在基材薄膜中之無機微細粉末⑻的含量宜為2〇〜如重量 —更且為25〜75重1 %。若無機微細粉末(b)之含量超過 ’有延㈣難之傾向。若小㈣重量%,無法得到所 希望之表面開口率’有液體吸收係數之改善不充分的傾向。 可使用於構成本發旨延伸薄膜的基材薄膜之有 充劑’為了空孔形成之目的,宜融點或玻轉移點較上述妖 還高而從非相溶性_選擇而使用。具體二係: 歹不水對本一甲酸乙二酷、聚對苯二甲酸丁二輯 胺、聚碳酸酯、聚萘二甲酸 忒醯 乃至甲基丙稀酸黯之聚人物戈::,本乙婦、丙烯酸酿 曰之♦合物或共聚合物,蜜胺樹脂、聚乙 90848.doc 1335343 烯硫醚、聚醯亞胺、聚乙基醚酮、聚苯硫醚、環狀烯烴之 早獨聚合物及環狀烯烴與乙烯等之共聚合物(c〇c)等。使用 結晶性聚烯烴系樹脂作為上述熱塑性樹脂(A)時,尤其宜選 擇自聚對苯二甲酸乙二自旨、聚對苯二甲酸丁 聚碳酸醋、聚蔡二甲酸乙二醋、聚苯乙稀、環狀稀煙之胺單 獨聚合物及環狀烯烴與乙烯等之共聚合物(c〇c)等而使用。 在基材薄膜中之有機填充劑的含量宜為〇〜5〇重量%,更 且為0〜40重量%。 使用於本發明之無機微細粉末的平均粒徑或有機镇充劑 的平均分散粒徑宜為(M〜2G μπι,更宜為Q 5〜15 _的範圍。 若考慮熱塑性樹月旨⑷之混合容純,宜使用〇1 _以上 者。粒徑小於0.1μιη時,延伸所造成之空孔形成會變困難, 無法得到具有所希望表面之延伸膜的傾向。又,若平均粒 徑超過20㈣,延伸性會降低而成形時之延伸斷 — 變多之傾向。 —工扎有 使用於本發明之無機微細粉末的平均粒徑其— 子計測裝置、例如雷射繞射式粒子計測裝置(株式會杜日曰機 裝置、商品名:microtrack)以累積測定達5〇%之 積50%粒子徑)來求取。 二1糸 藉嫁融混練與分散’分散於熱塑性樹脂中之有機 的粒子徑係藉樹脂延伸薄膜截面之電子顯微鏡觀察測定至 少10個粒子而求取以作為其粒子徑的平均值。 :用於本發明之無機微細粉末或有機填充劑係可從上述 之中選擇1種而單獨使用,亦可 上边 k擇2種以上而組合使用。 90S48.doc -12- 1335343 基胺之鹽酸鹽、硫酸鹽與甲基丙烯醯胺、丙烯醯胺之共聚 合物。 該聚合物之分子量係若以1 m〇l/升濃度之氯化鈉水溶液 中的25C之極限黏度表示,一般為〇. 05〜3,更宜為0.1〜0.7, 尤宜為0.1〜0.45的範圍。若以凝膠滲透色層分析所測定之重 量平均分子量來表示’一般約為5,〇〇〇〜950,000,更宜為 10,000〜500,000 ’ 最宜為 1〇 〇〇〇〜8〇 〇〇〇的範圍。 又’由使用於無機微細粉末(B)之處理的水溶性陰離子系 界面活性劑所構成的表面處理劑(D)係於分子内具有陰離 子性官能基。 其具體例可舉例.具有碳數4〜4 0之範圍的煙基的崎酸鹽 (d3)、具有碳數4〜40之範圍的烴基之磷酸酯鹽或碳數4〜4〇 範圍之高級醇的磷酸單或二酯之鹽(d4)。具有碳數4〜3〇範圍 的fe基之烧基甜菜驗或烧基續甜菜驗(d5)等,為得到本發明 之效果,可適當選擇。在(d3)〜(d4)中.之「鹽」係表示鋰鹽、 鈉鹽、鉀鹽、鈣鹽、鎂鹽、1〜4級銨鹽、i〜4級鱗鹽,作為 鹽較佳者係經鹽、鈉鹽、鉀鹽、4級銨鹽、更佳係鈉鹽或卸 鹽。 具有(d3)之碳數4〜40之範圍的烴基的磺酸鹽係含有一具 有碳數4〜40、較佳係8〜20範圍之直鏈或分枝亦或環狀構造 之烴基的磺酸鹽、磺烷碳酸鹽,具體上可舉例:碳數4〜4〇、 較佳係8〜20範圍的烷基苯磺酸鹽、萘續酸鹽、具有碳數 4〜30、較佳係8〜20範圍之直鏈或分枝或環狀構造之烷基萘 磺酸鹽、含有一具有碳數1〜30較佳係8〜2〇範圍之直鏈或分 90848.doc •16- 1335343 枝構造的烷基之二苯基醚或聯苯基之磺酸鹽;碳數丨〜%, 較佳係8〜20範圍之烷基硫酸酯的鹽;磺烷碳酸酯之鹽;碳 數8〜3 0,較佳係碳數10〜20範圍之烷基醇的烷烯氧化物加成 物之磺酸鹽等。 此等之具體例係烷磺酸鹽或芳香族磺酸鹽亦即辛烷磺酸 鹽、十二烧磺酸鹽、十六烷磺酸鹽、十八烷磺酸鹽、卜或 2-十二烷基苯磺酸鹽、丨·或2_十六烷苯磺酸鹽、丨·或2•十八 烧笨%酸鹽、十二院萘續酸鹽之各種異性體、萘續酸福 馬林縮合物的鹽、辛基聯苯基磺酸鹽之各種異性體、十二 烷基二苯基醚磺酸鹽、十二烷基木質素磺酸鹽;烷基硫酸 酉曰鹽亦即十二烧基硫酸鹽、十六烧基硫酸鹽;績烧碳酸鹽 亦即%琥珀酸鹽之二烷基酯,烷基具有碳數卜⑽較佳係 4〜20範圍之直鏈或分枝或環狀構造者,更具體地係可舉 例.%琥珀酸二(2-乙基己基)之鹽、Ν_甲基_Ν_(2•磺乙基) 烷基醯胺之鹽(烷基係碳數丨〜“,較佳係12〜18),例如以Ν_ 甲基月桂與油酸為來源之醯胺化合物,碳數1〜3 〇 ,較佳係 10〜18之碳酸的2-磺乙基酯鹽、月桂硫酸三乙醇胺、月桂基 硫酸銨、聚氧乙烯月桂基硫酸鹽、聚氧乙烯基鯨臘基硫酸 鹽,奴數8〜3 0、較佳係10〜2〇範圍之烷基醇的烯烴氧化物加 成物之硫酸酯鹽,亦即,月桂基醇之環氧乙烷加成物之硫 酸酯鹽、鯨臘醇的環氧乙烷加成物之硫酸酯鹽、硬脂醇的 環氧乙烧加成物之硫酸醋鹽等。 具有(d4)之碳數4〜40、較佳係8〜2〇範圍之直鏈或分枝亦 或裱狀構造之烴基的磷酸單或二酯鹽或磷酸三酯之具體 90848.doc -17- 1335343 例,係可舉出:磷酸十二烷基之二鈉鹽或二鉀鹽、碟酸十 六院基之二鈉鹽、填酸雙十二烧基之二鈉鹽或二鉀鹽、磷 酸雙十六烷基之鈉鹽或鉀鹽、十二烷基醇之氧化乙烯加成 物的填酸三酯等。 具有(d5)之碳數4〜30,較佳係10〜20範圍之烴基的烷基甜 菜鹼或烷基磺甜菜鹼之具體例,可舉例:月桂基二甲基甜 菜鹼、硬脂基二甲基甜菜鹼、十二烷基二甲基(3_磺丙烯) 叙内鹽、氣y、腺基二甲基(3 -續丙基)敍内鹽、硬脂基二甲基(3 _ 〜丙基)叙内鹽、2-辛基-N-叛基曱基-N-經乙基tr米唾琳甜菜 驗、2-月桂基-N-羧甲基-N-羥乙基甜菜鹼等。 此寻之中’較佳係具有碳數4~40之範圍的烴基之項酸鹽 (d3),更佳係選自具有碳數1〇〜2〇之範圍的烷磺酸鹽、具有 碳數10〜20之範圍的烧基之芳香族石黃酸鹽、具有碳數1〇〜2〇 之範圍的烷基之烷基醇之烷撐基氧化物加成物的硫酸酯 鹽。 [水系熱密封性樹脂塗布層(E)] 本發明之水系熱密封性樹脂塗布層(£)係可用於例如當 熱塑性樹脂之壓空成形或射出成形時預先於模具内裝載標 籤而成形,同時於貼粘標籤之模内成形中,藉由與在模具 内之熔融樹脂的接觸,受其熱立即熔解而成形,同時均勻 地接著於樹脂容器之塗布層。此時,可適當選擇適於模内 成形用標籤之水性熱密封性樹脂而使用。又,亦用於使用 各種熱密封機而與其他薄膜材料接著之塗布層此時亦可 從進行接著之薄膜表面性質等適當選擇水性熱密封性樹 90848.doc -18- 1335343 脂。 使用於水系熱密封性樹脂塗布層(E)之樹脂,係就模内成 形、或具有適於熱密封之熱密封性的樹脂分散液而言,佳, 具有熱密封性之樹脂分散液係可舉例:所乳化聚合者,或 懸濁聚合者,或,以押出機等機械粉碎而分散於水溶劑中 者等。 使用於本發明之水系熱密封性樹脂塗布層(E)的熱密封 性樹脂,係可使用丙烯酸系聚合物、醋酸乙烯酯聚合物、 苯乙烯系聚合物,氯化乙烯系聚合物、氯化亞乙烯系聚合 物、聚乙烯、聚胺基甲酸酯、聚酯、環氧樹脂、石油樹脂、 松香酯、矽酮樹脂、醇酸樹脂、聚丁二烯、丁二稀共聚合 物、聚丁烯、丁基橡膠、聚丙稀、聚氯丁二烯、聚異丁二 稀等之分散液。 此等之中宜為丙烯酸系聚合物、醋酸乙烯酯聚合物、笨 乙烯系聚合物,其中宜為乙烯/丙稀酸共聚合物、己烤/甲基 丙婦酸共聚合物、乙烯/丙稀酸g旨共聚合物、丙烯酸醋聚^ 物、乙埽/醋酸乙稀醋共聚合物、苯乙稀/丁二稀共聚合物之 水系分散液。 熱密封性樹脂之乾燥塗布量係、可依所使用之基材薄膜的 液體吸收係數適當選擇,但一般宜為〇 〇5〜3〇g/m2,更宜為 0.1 〜20 g/m2 ’ 最宜為 0.2〜1〇 g/m2。 乾燥塗布1不足0.05 g/m_,模内成形或熱密封時無法 發揮與容器或其他薄膜之充分接著強度。若乾燥塗布量起 過3〇 g/m2 ’接著強度雖很充分,但在模内成形用標籤與容 90848.doc 1335343 器之間空氣會進入而標籤部分膨脹的現象(起泡)易發生。 若塗布量變多,以1次的塗布係無法塗完,而必須複數次 之重疊塗布,生產成本亦變高等之問題會產生。 熱密封性樹脂之分散液的平均粒子徑係宜大於基材薄膜 表面之平均開口徑。又,熱密封性樹脂塗布乾燥後,以粒 子形態點存在於基材薄膜表面。因此’必須以熱密封樹脂 之相轉移溫度(從固相狀態轉移至液相狀態之溫度,亦稱為 造膜溫度)以下之溫度進行乾燥。熱密封性樹脂之相轉移溫 度就模内成形適用性宜為50〜140。(:,更宜為55〜13(rc的範 圍。以超過140°C之溫度乾燥時,粒子形態不會殘留,而以 平滑的狀態被覆基材薄膜表面,故在模内成形中會產生起 泡,印刷時或標籤加工時造成結塊等之問題易發生。又, 若熱密封層之相轉移溫度不足5(rc,標籤保管時熱密封層 會完全附著’或結塊之傾向仍存在。 進v塗布乾燥後熱达、封性樹脂在基材薄膜表面被覆 30%以上,宜為4〇〜9〇%,更宜為5〇〜8〇%時傾向模内成形。 不足30%時,模内成形之際與成形容器之密著性有降低 的傾向。 用於杈内成形用標籤之水系熱密封性樹脂塗布層(E)的 體例係可舉例.平均粒徑為i 2叫且相轉移溫度為9〇 C之乙烯/甲基丙烯酸共聚合物分散液。 使用於水系熱密封性樹脂塗布層⑻之分散液中,係宜添 加用以提昇與基材薄膜之密著性的各種枯結劑樹脂、或用 ,防止加工軚籤時之結塊的抗結塊劑、及用以提高印刷時 90848.doc • 20 - 1335343 之給排紙適用性的滑劑或抗帶電劑等。 進一步依需要可適宜添加分散劑、增黏劑、消泡劑、防 腐劑、紫外線吸收劑、紫外線安定劑、抗氧化劑、界面活 性劑、水性染料、著色顏料等。 [無機微細粉末之表面處理方法] 在本發明中,宜至少使用1種類的表面處理劑(D)而進行 無機微細粉末(B)的表面處理。表面處理方法係可適應公知 之各種方法’無特別限制。 此口裝置或混合時之溫度,時間亦可依所使用之表面處 =劑成分的性狀或物性而適當選擇,有關所使用之各個混 合機的L/D(軸長/軸徑)或攪拌翼的形狀、剪切速度、比能 量、滯留時間、處理時間、處理溫度#,亦可符合使用成 分之性狀而適當選擇。 制=機微細粉末(B)之表面處理方法的例’當以濕式粉碎所 I每時,相對於粒徑為10〜5〇 μπι之碳酸轉粒子1〇〇 重量份,必需量的表面處理劑⑼之存在下,在水性溶劑中 濕式料㈣成所希望的粒徑之方法。具體上係與碳酸妈/ 合齊丨(具體上為水)之重量比為7〇/3〇〜3〇/7〇,宜為 40/60的|巳圍之方式於碳酸鈣中加入水,其中每碳酸 約1〇〇重量份添加0_01〜10重量份,宜為〇1〜5重量份,藉常 用t法濕式粉碎表面處理劑(D)。進-步,準備—預先使上 述範圍之景沾主_ J. 一上 、表面處理劑溶解而成的水性溶劑,使該水性 U與碳酸m合’依常用方法進行濕式粉碎。濕式粉碎 式亦可為連續式,宜使用一利用砂研磨、阿托萊德、 90848.doc -21 - 1335343 球磨機等之粉碎裝置的研磨機等。如此藉濕式粉碎’可得 到平均粒控為ο,υο μπι,宜為〇 5〜15 μιη的碳酸角。 然後,乾燥濕式粉碎品,但乾燥前設有分級步驟,而可 除去350網目之粗粉。乾燥係可藉熱風乾燥等公知之方法進 订,但宜藉介質流動乾燥進行者。介質流動乾燥係於乾燥 塔内以熱風(8〇〜15〇。〇在流動化狀態之介質粒子群(流動層) 中:給毁液狀物質,所供給之衆液狀物質係在活潑流動化 之"質粒子表面呈臈狀附著同時並於流動乾燥内分散,藉 熱風之乾燥作用,使各種物質乾燥之方法。如此之介質流 動^燥係可使用(股)奈良機械製作所製之介質流動乾燥裝 置「media siurry dryer」等而容易地進行。若使用此介質流 動乾燥’乾燥與凝集粒子之敲碎(1次粒子化之除去)可同時 進行,故佳。藉同方法,可得到粗量極少之碳酸^但, 介質流動乾燥後,關定的方法進行粒子之粉碎與分級亦 有放另外,不用介質流動乾燥而藉一般之熱風乾燥乾燥 濕式粉碎品時,所得到之塊體宜進一步以所希望之方法進 灯粒子之粉碎與分級。藉此方法所得到之濕式粉碎品的乾 :塊體易崩落,因可报容易地得到碳酸鈣微粒子,不須特 意設有粉碎乾燥塊體的步驟。 所此做法所彳于到之無機微細粉末可進一步以別的表 面處理劑進行處理。[The thermoplastic resin (A) J / the base film of the water-based heat-sealable resin coating layer (E) of the present invention contains a thermoplastic resin. (4) The thermoplastic resin (4) of the base film may, for example, be a crystalline propylene resin, or a high density polyethylene, a medium density polyethylene, a crystalline ethylene resin having a low degree of ethylene or the like, or a polymethyl pentane. Such as crystalline polyolefin resin, Nylon _6, Nylon 6,6, lysine-resistant M2, etc., polyethylene terephthalate resin, polyethylene terephthalate or its copolymer ♦ A thermoplastic resin such as a thermoplastic polyester resin such as ethylene naphthoic acid ethylene glycol or an aliphatic polyester vinegar, a polycarbonate, a polystyrene, a heteropolyethylene, or a polybenzoate. These two or more types may be used in combination. Among these, a crystalline polyolefin resin is preferably used from the viewpoint of chemical resistance, production cost, and the like, and a crystalline propylene resin is more preferably used. As the crystalline propylene-based resin, a homomorphic polymer or a heteromorphic polymer in which propylene is polymerized alone is preferably used. Further, it is also possible to use ethylene, 1-butene, 1-hexene, 1-90848.doc 1335343 heptene, 4-methyl pentaerythrine, etc., to dilute the smoke and propylene, and have various forms. A variety of stereoregularity of the co-polymer with a primary component. The copolymer may be a ternary system or a ternary "monomeric system", which may be a random copolymer or a block copolymer. The content of the thermoplastic resin (A) in the substrate film is generally 2 〇〜8〇% by weight, preferably 25 to 75% by weight [Inorganic Fine Powder (B) and Organic Filling] The inorganic micro, and the genus (B) which can be used for the substrate film constituting the resin stretched film of the present invention can be used. It can be used as an inorganic fine powder of heavy carbonic acid, light strontium carbonate, calcined slag, talc, titanium oxide, carbonic acid lock, zinc oxide, oxygen (tetra), shishizao soil, and oxidized stone Xi 4 The composite inorganic fine powder of the oxide or hydroxide is surrounded by the core of the fine powder, hollow glass beads, etc. Among them, heavy calcium carbonate, calcined mud +, many pores are preferably used. And the content of the inorganic fine powder (8) formed in the base film at the time of stretching is preferably 2 Torr - such as weight - more preferably 25 to 75 by 1%. If the content of the inorganic fine powder (b) exceeds 'the extension (four) is difficult Tendency. If it is small (four) wt%, the desired surface aperture ratio cannot be obtained. The improvement of the bulk absorption coefficient is insufficient. The charge of the base film used to form the stretched film of the present invention can be made for the purpose of pore formation, and the melting point or the glass transition point is higher than the above-mentioned demon. Compatibility _Selected and used. Specific two series: 歹 水 对 对 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本 本Character Ge::, this woman, acrylic acid ♦ compound or copolymer, melamine resin, poly 90848.doc 1335343 olefin sulfide, polyimine, polyethyl ether ketone, polyphenylene sulfide And a copolymer of a cyclic olefin, a copolymer of a cyclic olefin and ethylene, etc. (c〇c), etc. When a crystalline polyolefin resin is used as the thermoplastic resin (A), it is particularly preferable to select a poly(p-phenylene). Ethylene diformate, polybutylene terephthalate, polydiethylene glycol diacetate, polystyrene, cyclic dilute amine amine polymer and copolymer of cyclic olefin and ethylene (c〇c), etc. The content of the organic filler in the substrate film is preferably 〇~ 5 重量% by weight, more preferably 0 to 40% by weight. The average particle diameter of the inorganic fine powder used in the present invention or the average dispersed particle diameter of the organic sinter agent is preferably (M 2 G μπι, more preferably Q 5 〜 The range of 15 _. Considering the pure volume of the thermoplastic tree (4), it is preferable to use 〇1 _ or more. When the particle size is less than 0.1 μm, the formation of voids caused by the extension becomes difficult, and the desired surface cannot be obtained. Further, if the average particle diameter exceeds 20 (four), the elongation is lowered and the elongation at the time of molding is increased - the tendency is increased. - The average particle diameter of the inorganic fine powder used in the present invention is measured. The device, for example, a laser diffraction type particle measuring device (product type: Dutrack machine device, trade name: microtrack) is obtained by cumulatively measuring 50% of the particle diameter of the product. The organic particle diameter dispersed in the thermoplastic resin is determined by electron microscopic observation of the cross section of the resin-extended film by electron microscopic observation of the cross section of the resin-extended film to obtain an average value of the particle diameters. The inorganic fine powder or the organic filler to be used in the present invention may be used singly or in combination of two or more kinds thereof. 90S48.doc -12- 1335343 The hydrochloride of the amine, the copolymer of sulfate and methacrylamide, acrylamide. The molecular weight of the polymer is expressed as the ultimate viscosity of 25C in an aqueous solution of sodium chloride at a concentration of 1 m〇l/liter, and is generally 0.05 to 3, more preferably 0.1 to 0.7, and particularly preferably 0.1 to 0.45. range. If the weight average molecular weight measured by gel permeation chromatography is expressed as 'generally about 5, 〇〇〇~950,000, more preferably 10,000 to 500,000', most preferably 1 〇〇〇〇 to 8 〇〇〇〇. range. Further, the surface treatment agent (D) composed of a water-soluble anionic surfactant used for the treatment of the inorganic fine powder (B) has an anionic functional group in the molecule. Specific examples thereof include a nicotinate (d3) having a nicotine group having a carbon number of 4 to 40, a phosphate salt having a hydrocarbon group having a carbon number of 4 to 40, or a high carbon number ranging from 4 to 4 Å. a mono- or di-ester phosphate salt of an alcohol (d4). The Fe-based beet test or the burn-beet beet test (d5) having a carbon number of 4 to 3 Å or the like can be appropriately selected in order to obtain the effects of the present invention. The "salt" in (d3) to (d4) means a lithium salt, a sodium salt, a potassium salt, a calcium salt, a magnesium salt, a 1 to 4 ammonium salt, and an i to 4 grade scale salt, as a preferred salt. It is a salt, a sodium salt, a potassium salt, a 4-grade ammonium salt, a more preferred sodium salt or a salt-free salt. The sulfonate having a hydrocarbon group in the range of 4 to 40 carbon atoms of (d3) contains a sulfonate having a linear or branched or cyclic hydrocarbon group having a carbon number of 4 to 40, preferably 8 to 20 The acid salt or the sulfonate carbonate is specifically exemplified by an alkylbenzenesulfonate having a carbon number of 4 to 4 Torr, preferably 8 to 20, a naphthoate, having a carbon number of 4 to 30, preferably a system. a linear naphthalene sulfonate having a linear or branched or cyclic structure in the range of 8 to 20, containing a linear chain having a carbon number of 1 to 30, preferably 8 to 2 Å, or 90848.doc • 16-1335343 a diphenyl ether of a branched structure or a sulfonate of a biphenyl group; a salt of an alkylsulfate having a carbon number of 丨% to 8%, preferably 8 to 20; a salt of a sulfonate carbonate; a carbon number of 8 ~30, preferably a sulfonate of an alkene oxide adduct of an alkyl alcohol having a carbon number of 10 to 20, or the like. Specific examples of such are alkane sulfonates or aromatic sulfonates, i.e., octane sulfonate, dodecasulfonate, hexadecane sulfonate, octadecane sulfonate, or 2-ten Dialkylbenzene sulfonate, ruthenium or 2-hexadecane benzene sulfonate, ruthenium or bismuth octadecanoate, various alkaloids of 12th hospital naphthalate, naphthalene acid fumar a salt of a forest condensate, various anisotropy of octyl biphenyl sulfonate, dodecyl diphenyl ether sulfonate, dodecyl lignin sulfonate; Dialkyl sulfate, hexadecyl sulfate; dialkyl carbonate, which is a dialkyl ester of % succinate, alkyl has a carbon number (10), preferably a linear or branched range of 4 to 20 or The cyclic structure, more specifically, may be exemplified by a salt of bis(2-ethylhexyl) succinate, a salt of Ν_methyl_Ν_(2•sulfoethyl)alkylguanamine (alkyl carbon) a number of 丨~", preferably 12~18), for example, a guanamine compound derived from Ν_methyllauro and oleic acid, a 2-sulfoethyl group having a carbon number of 1 to 3 Å, preferably 10 to 18 carbonic acid. Ester salt, triethanolamine sulfate, lauryl sulfur Ammonium, polyoxyethylene lauryl sulfate, polyoxyethylene whale base sulfate, sulfonate salt of olefin oxide adduct of alkyl alcohol in the range of 8 to 30, preferably 10 to 2, , that is, a sulfate salt of an ethylene oxide adduct of lauryl alcohol, a sulfate salt of an ethylene oxide adduct of cetyl alcohol, and a sulfuric acid vinegar of an ethylene oxide adduct of stearyl alcohol Salt or the like. Specific or semi-diester salt or phosphotriester of a hydrocarbyl group having a linear or branched or oxime-like structure having a carbon number of 4 to 40, preferably 8 to 2, (de4). Doc -17- 1335343, for example, a disodium salt or a dipotassium salt of dodecyl phosphate, a disodium salt of a dish of a hexadecyl group, a disodium salt of a dioctadecyl acid or a second a potassium salt, a sodium or potassium salt of dihexadecyl phosphate, an acid anhydride triester of an ethylene oxide adduct of dodecyl alcohol, etc., having a carbon number of 4 to 30 (d5), preferably 10 to 10 Specific examples of the alkyl chain betaine or alkylsulfobetaine having a hydrocarbon group of 20 are exemplified by lauryl dimethyl betaine, stearyl dimethyl betaine, and dodecyl dimethyl (3 sulfonate). Propylene) Inner salt, gas y, glycumyl dimethyl (3-propyl) sylide, stearyl dimethyl (3 _ propyl) sylide, 2-octyl-N-refenyl -N- by ethyl tr rice salin beet test, 2-lauryl-N-carboxymethyl-N-hydroxyethyl betaine, etc. This is a preferred range of carbon with a range of 4 to 40 More preferably, the hydrocarbyl acid salt (d3) is selected from the group consisting of an alkane sulfonate having a carbon number of 1 〇 to 2 Å, and an aromatic rhein having a carbonyl group having a carbon number of 10 to 20, Sulfate salt of an alkylene oxide addition product of an alkyl alcohol having an alkyl group in the range of 1 to 2 Å. [Water-based heat-sealable resin coating layer (E)] Water-based heat-sealable resin of the present invention The coating layer (£) can be used, for example, to form a label in advance in a mold when the thermoplastic resin is subjected to pressure forming or injection molding, and at the same time in the in-mold forming of the labeling label, by the molten resin in the mold. The contact is formed by being melted immediately by the heat while uniformly adhering to the coating layer of the resin container. In this case, an aqueous heat-sealable resin suitable for the in-mold forming label can be appropriately selected and used. Further, it is also used for coating layers which are followed by other heat-sealing machines and other film materials. At this time, the aqueous heat-sealing tree 90848.doc -18-1335343 can be appropriately selected from the subsequent film surface properties. The resin used for the water-based heat-sealable resin coating layer (E) is preferably a resin dispersion liquid which is formed by in-mold molding or has a heat-sealing property suitable for heat sealing, and has a heat-sealable resin dispersion liquid. For example, the emulsion polymerizer or the suspension polymerizer, or those which are mechanically pulverized by an extruder or the like and dispersed in a water solvent. The heat-sealing resin used in the water-based heat-sealable resin coating layer (E) of the present invention may be an acrylic polymer, a vinyl acetate polymer, a styrene polymer, a vinyl chloride polymer, or a chlorination. Vinylene polymer, polyethylene, polyurethane, polyester, epoxy resin, petroleum resin, rosin ester, fluorenone resin, alkyd resin, polybutadiene, butyl diene copolymer, poly A dispersion of butene, butyl rubber, polypropylene, polychloroprene, polyisobutylene or the like. Among these, it is preferably an acrylic polymer, a vinyl acetate polymer, or a stupid vinyl polymer, and preferably an ethylene/acrylic acid copolymer, a hexane/methyl propylene glycol copolymer, ethylene/propylene. A dilute acid g-based copolymer, an acrylic acrylate polymer, an acetonitrile/acetic acid ethyl acetate eupolymer, and an aqueous dispersion of a styrene/butadiene dipolymer. The dry coating amount of the heat-sealable resin may be appropriately selected depending on the liquid absorption coefficient of the substrate film to be used, but it is generally preferably 〇〇5 to 3 〇g/m2, more preferably 0.1 to 20 g/m2' It should be 0.2~1〇g/m2. Dry coating 1 is less than 0.05 g/m_, and sufficient adhesion strength to a container or other film cannot be exerted when in-mold forming or heat sealing. If the dry coating amount is 3 〇 g/m2', the strength is sufficient, but the phenomenon that air is introduced between the in-mold forming label and the container and the label portion is expanded (bubble) is liable to occur. If the amount of coating is increased, the coating system cannot be applied once, and it is necessary to apply the coating in multiple times, and the production cost is also high. The average particle diameter of the dispersion of the heat-sealable resin is preferably larger than the average opening diameter of the surface of the substrate film. Further, after the heat-sealing resin is applied and dried, it is present in the form of particles on the surface of the base film. Therefore, it is necessary to dry at a temperature lower than the phase transition temperature of the heat-sealing resin (the temperature at which the solid phase state is transferred to the liquid phase state, also referred to as the film forming temperature). The phase transfer temperature of the heat-sealable resin is preferably 50 to 140 in terms of in-mold forming. (:, more preferably 55 to 13 (the range of rc. When drying at a temperature exceeding 140 ° C, the particle form does not remain, and the surface of the base film is covered in a smooth state, so it occurs in the in-mold forming. Problems such as agglomeration, agglomeration, etc. during printing or label processing are liable to occur. Further, if the phase transition temperature of the heat seal layer is less than 5 (rc, the heat seal layer may completely adhere to or remain agglomerated during label storage). After the coating and drying, the resin is coated on the surface of the substrate film by 30% or more, preferably 4 to 9 % by weight, more preferably 5 to 8 % by weight, and less than 30%. In the case of in-mold forming, the adhesion to the molded container tends to be lowered. Examples of the water-based heat-sealable resin coating layer (E) used for the label for the interior molding can be exemplified. The average particle diameter is i 2 and the phase is An ethylene/methacrylic acid copolymer dispersion having a transfer temperature of 9 〇 C. In the dispersion of the water-based heat-sealable resin coating layer (8), it is preferable to add various adhesions for improving the adhesion to the substrate film. Agglomerating resin, or anti-caking agent for preventing agglomeration when processing a sputum And a lubricant or an anti-static agent for improving the suitability of paper discharge when printing 90848.doc • 20 - 1335343. Further, a dispersant, a tackifier, an antifoaming agent, a preservative, an ultraviolet ray may be appropriately added as needed. Absorbent, ultraviolet stabilizer, antioxidant, surfactant, water-based dye, coloring pigment, etc. [Surface treatment method of inorganic fine powder] In the present invention, it is preferred to use at least one type of surface treatment agent (D) for inorganic treatment. The surface treatment of the fine powder (B). The surface treatment method can be adapted to various methods known to be 'unspecially limited. The temperature and time of the device or the mixing may be depending on the surface or the physical properties of the agent component. Appropriately selected, the L/D (shaft length/shaft diameter) of each mixer used, the shape of the agitating wing, the shear rate, the specific energy, the residence time, the treatment time, the treatment temperature #, and the composition It is appropriately selected from the properties. Example of the surface treatment method of the machine fine powder (B) 'When the wet pulverization is performed I, the carbonic acid conversion particles are 10 Å to 5 〇 μπι per particle diameter. The method of forming a desired particle size of the wet material (4) in an aqueous solvent in the presence of a required amount of the surface treating agent (9), specifically, the weight ratio of the carbonic acid/salt (specifically water) It is 7 〇/3 〇~3 〇/7 〇, preferably 40/60 巳 之 于 于 于 于 于 于 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸 碳酸1 to 5 parts by weight, by the usual t-wet pulverization of the surface treatment agent (D). Step-by-step, preparation - pre-empting the above-mentioned range of the main _ J. One, the surface treatment agent is dissolved in an aqueous solvent, Wet pulverization of the aqueous U and carbonic acid is carried out according to the usual method. The wet pulverization type may also be continuous, and it is preferable to use a sand grinding, Atolide, 90848.doc -21 - 1335343 ball mill, etc. Grinding machine of the device, etc. Thus, by wet pulverization, it is possible to obtain an average particle size of ο, υο μπι, which is preferably a carbonate angle of 〜 5 to 15 μηη. Then, the wet pulverized product is dried, but a classification step is provided before drying, and the 350 mesh coarse powder can be removed. The drying system can be carried out by a known method such as hot air drying, but it is preferred to carry out the drying by the medium. The medium flow drying is carried out in a drying tower with hot air (8 〇 15 15 〇. 〇 in a fluidized state of the media particle group (flow layer): for the liquid-like substance, the liquid substance supplied is in a lively fluidization The method of "the surface of the particle is attached to the surface of the particle and dispersed in the flow drying, and the drying of the hot air is used to dry various substances. Such a medium flow can be used to flow the medium made by Nara Machinery Co., Ltd. The drying device "media siurry dryer" or the like can be easily carried out. If the medium is flow-dried, the drying and the agglutination of the particles (the removal of the primary particles can be carried out simultaneously), so that it is preferable to obtain a coarse amount by the same method. Very little carbonic acid ^ However, after the medium is dry and fluidized, the method of pulverizing and grading the particles is also carried out. When the medium is not dried by the flow of the medium and dried by the usual hot air to dry the wet pulverized product, the obtained block should be further The pulverization and classification of the lamp particles are carried out in a desired manner. The dry pulverized product obtained by this method is dry: the block is liable to collapse, since the calcium carbonate can be easily obtained Particles, not intended to be provided with the step of pulverizing dried Laid-block. This is the approach to the left foot to the inorganic fine powder may be further processed to other surface treatment agents.

表面處理劑(D)的使用量係依設有本發明水系熱密封性 樹脂塗布層⑻的樹脂延伸薄膜之用途而異,但,一般相對 於無機微細粉末_重量份為〇〇1,重量份,宜為US 90848.doc -22- 1335343 係5〜50 ml/(m2.ms1/:)。液體吸收係數為不足5严 時,水性塗布劑塗布時之吸水速度會不充分,塗布液之黏 度上昇很少而無法得到所希望之塗布量及塗膜之表面形 態。 在本發明書中所謂「液體吸收係數」係意指依JAPAN TAPPINO.51-87的BLISTOW吸水試驗來測定,從吸水開始 20秒〜40毫秒中之吸水曲線以最小二乘法得到直線,從其斜 率所求得到之值。液體吸收係數係可依記載於後述試驗例 之具體順序等來測定。 又,基材薄膜最外層之表面開口率(表面空孔率)宜為7〇/〇 以上,更宜為10〜30%。若表面開口率不足7%,有無法得到 充分的液體吸收性。反之,若超過3〇%,基材表面之強度 會降低,模内成形,貼黏於容器時,被從基材表面層簡單 地剝離’實用上有問題。 本說明書中之「表面開口率」與「平均開口率」係表示 在以電子顯微鏡觀察一設有本發明水系熱密封性樹脂塗布 層(E)之前的基材薄膜表面時的觀察區域中,空孔占有之面 積比率與在觀察領域中之20個空孔短邊長度的平均值。具 體上,從基材溥膜試料切取任意之一部分,貼黏於觀察試 料台,其觀察面蒸鍍金乃至金-鉑等而使用電子顯微鏡(例如 日立製作所(股)製之掃描型顯微鏡S-2400)而以易觀察之任 意倍率(例如擴大至500倍〜3000倍)觀察表面之空孔而求 付。進一步,攝影所觀察之區域成照片等,使空孔於修整 膜進行修整而以圖像解析裝置(Nirec〇(股)製:型式[uzex 90848.doc -25- 1335343 HD)畫像處理塗滿之圖’亦可使空孔之面積率作為基材薄 臈表面之開口率…同時從所觀察之電子顯微鏡照片計 測表面開口之空孔2_的短邊長1其平均值作為平均開 口徑。又,空孔之短邊長謂圖1所示方向之長度。 本發月之日延伸薄膜係以水系熱密封性樹脂塗布層⑻ 作為最外層,於其反面係藉一般各種之印刷方式及/或印字 方式進行印刷及/或印字而使用,但,亦可依照用途而積層 於熱塑性樹脂膜、積層紙、紙聚紙、不織布、布而使用。 有關積層膜構造係亦可各別延伸每個層之後進行積層而製 造,亦可積層後集中而延伸製造。亦可印刷於此等之積層 膜表面及背面而使用。亦可適當組合此等的方法。 進一步,本發明之樹脂延伸薄膜係即使在設有水系熱密 封性樹脂塗布層⑻之面亦可進行印刷及/或印字而使用,藉 由在設有水系熱密封性樹脂塗布層(E)之面進行印刷及/或 印字’如PEm、PP瓶、LD_PE瓶般,可於貼枯透明性高之 =器的面附加各種資訊,或提高裝飾性而提高容器的附加 價值❶如此之印刷及/或印字可使用公知之方法例如膠板 印刷、凸版印刷、照相凹版印刷、柔版印刷、網版印刷、 電子肊相印刷、喷墨印刷、熔融熱轉印印刷、昇華熱轉印 印刷等。本發明之樹脂延伸薄膜,係即使為印刷於水系熱 进封性樹脂塗布層(E)者,起泡性、標籤密著性優,經由貼 粘払籤之透明中空容器而施於熱密封性樹脂塗布層(E)面 之印刷可充分地瞭解。 u又有本發明之水系熱密封性樹脂塗布層(e)的樹脂延伸 90848.doc -26 - ^35343 ~膜宜至少朝-軸方向延伸者’亦可為朝2轴方向延伸者。 例如 3有無機微細粉末0〜40重量% ,較佳係3〜33重量 伤之結晶性聚晞烴系樹脂膜以低於該樹脂融點低的溫度朝 1方向延伸所得到且朝丨軸方向排列的薄膜作為基材層,至 匕於片面積層樹脂組合物的熔融樹脂作為最外層(而該樹 脂組合物係在由熱塑性樹脂(A)2〇〜80重量%及經表面處理 之無機微細粉末(B)80〜20重量%、有機填充劑〇〜5〇重量%所 構成的樹脂組合物中,相對於前述熱塑性樹脂⑷、無機微 細粉末(B)及有機填充劑之合計1〇〇重量份,而含有分散劑 (C)0.01〜100重罝份的組成),然:後,朝前述延伸方向與直角 方向延伸此積層膜,可得到最外層朝j軸方向配向,基材層 朝2軸方向配向之積層構造物的基材薄膜。 a 進一步,於其基材薄膜之最外層的表面設有水系熱密封 性樹脂塗布層(E)而得到本發明之樹脂延伸薄膜。 較佳之製造方法係含有—積層基材層與最外層後’延伸 所得到之薄膜表面設有熱密封性樹脂塗布層⑻的步驟。與 各別延伸而積層時比争交,簡#且製造成本亦低。 。於L伸亦可使用公知之各種方法。延伸係低於樹脂融點$ °C以上之溫度,又使用2種以上之樹脂時,宜以低於占有調 配量之最大的樹脂之融點以上溫度來進行。 延伸之具體方法’儀可舉例利用輥群之周速差的觀間延 伸、定㈣乾機湘拉幅烘乾機之挾持延料。若依 延伸,任意地調整延伸倍率,而容易得到任意之剛性、二 透明度、平滑度、光澤度的薄膜,故佳,延伸倍率 90848.doc -27· 1335343 所传::考慮本發明之樹脂延伸薄膜的使用目的,盘、 斤使用之樹脂特性而決定。一 ” 倍的範圍内延伸d中延…為U倍,較佳係在 “ 延伸倍率以4〜7倍更佳。利用拉Μ 乾機之挾持延伸時宜以4 1 】用拉*f田烘 一為3〜二宜=:延伸。面積倍率-般為 於樹脂延伸薄膜之表面:二若面積倍率為2倍以下, 申屬膜之表面無法得到特定的開口率,而亦I法 付充刀的吸水性,很難於其表面設有與容 好之水系熱密封性樹脂塗布層⑻。又,若超⑽倍者^ 斷裂或粗大的開孔會變多。 。 _ 延伸後之基㈣膜係宜進行熱處理。熱處理之溫度 ΓΓΓ度至高於延伸溫度30t之溫度的範圍。藉由進行 :處理,延伸方向之熱收縮率會降低,製品保管時之捲曲、 或熱及溶斷密封等之收縮造成的波浪等會變少。 Π-般錢及熱洪箱下進行,但,亦可植合:等。2 之處理效果,故佳 下熱處㈣延伸的薄膜 =熱,理㈣宜對表面實施電暈放電處理或電漿處理等 :布=二。猎由實施氧化處理,設有水系熱密封性樹脂 塗布層⑻,表面之潤濕性更高,熱密封性樹脂分散液之 ϋ㈣t連度會提高’較基材薄膜表面之開口徑還小的粒 k之樹知會更快,更多進入之優點仍存在,故佳。 進一步’與水系熱密封性樹脂之接著性會提高的優點亦 存在。 設有水系熱密封性樹脂塗布層⑻之樹脂延伸薄膜的全 90S48.doc -28- 1335343 厚並無特別限定,但宜為40〜400 μιη,更宜為50〜350 μπι, 最且為60〜300 μιη的範圍。與水系熱密封性樹脂塗布層(ε) 相接之基材薄膜最外層的厚度,若考慮水系熱密封性樹脂 刀政液中所含有的水系溶劑之吸收,宜為3〜i 〇〇,更宜 為5〜8〇 μΠ1。水系熱密封性樹脂塗布層(E)之厚度依使用目 的而宜為0.05〜40 ,更宜為〇υο μιη。 Β又有本發明之水系熱密封性樹脂塗布層(Ε)之樹脂延伸 薄膜係使用來作為模内成形用標籤時,藉適當選擇水性 熱密封樹脂的種類、相轉移溫度,可使用於各種之樹脂容 器。例如可使用於由高密度聚乙稀、低密度聚乙稀、聚丙 ’ χ ^ S日來苯乙烯、聚氯化乙烯、聚碳酸醋所構成的容 器,其中適用於高密度聚乙烯、聚丙烯、聚醋、聚苯乙烯、 聚碳酸酉旨。此等之樹脂容器係藉差麼成形、中空成形、射 出成形、發泡成形 '延伸吹出成形或堡縮成形而製造。发 中,適用於差廢成形、中空成形、射出成形、延伸吹出成 形。具有亦可廣泛使用於在習知之標鐵中成形困 容器之優點。 殊 熱密封性樹脂之塗布方法係可使用到刀方式、桿方 鋼絲棒方式、滑動料斗方式、簾幕方式、空氣刀方式:輕 方式、頓點方式、大小沖壓方式、照相凹版方式、逆向昭 :凹版方式等的一般塗布方法。亦可載用適當組合此等二、 般塗布方法而塗布之方法。 塗布後之乾燥方法係以公知之乾燥手段進行,但 燥步驟中係必須以不超過所使用之熱密封性樹脂⑻目^ 90848.doc •29- 1335343 溫度之條件來乾燥。 乂下舉出調製例、製造例、實施例、比較例及試驗例而 更具體地說明本發明。表示於以下實施例之材料、使用量、 比例、處理内容、處理順序等只要不超出本發明,可適當 變更。因此,本發明之範圍係不應受以下所示之具體例而 限定解釋。 (調製例1)表面處理劑(D)之調製 於具備迴流冷卻器、溫度計、滴下漏斗、攪拌裝置及氣 體‘入S的反應裔中饋入二烯丙基胺鹽酸鹽(6〇重量%濃度 水溶液)500重量份、與、丙稀醯胺(4〇重量%濃度水溶液 重畺伤及40重里伤,—面流入氮氣一面將系内溫度昇溫至 80 C。在攪拌下,使用滴下漏斗而花4小時滴下聚合起始劑 與過硫酸銨(25重量❶/。濃度水溶液)3〇重量份。滴下終了後, 持續1小時反應,得到粘稠的淡黃色液狀物。再取出5〇§, 若注入於500 ml中之丙酮中,產生白色之沈澱。過濾沈澱, 進一步以2次1〇〇 ml之丙酮充分洗淨後,真空乾燥而得到白 色固體狀之聚合物(水溶性陽離子共聚合物)。從所得到之 聚合物藉GPC求出之重量平均分子量為55〇〇〇。 (調製例2)表面處理重質碳酸鈣之調製 充分攪拌混合重質碳酸鈣(平均粒徑8 μιη,日本 杜製乾式粉碎品)40重量%與水6〇重量%而形成漿液狀,每 重質碳酸鈣100重量份加入在調製例丨所製造之表面處理劑 (D)0.06重量份’使用桌式阿把萊德型介質授拌研磨機(直徑 i · 5 nun之玻璃珠、充填率丨7〇%、周速丨〇 m/sec)而濕式粉碎。 90848.doc 30- 1335343 然後,加入主成分為碳數〗4的烷磺酸鈉與碳數16之烷磺 酸納的混合物(2重量%漠度水溶液)5G份而授拌。繼而,通 過350網目之網而分級,通過35〇網目之漿液以介質流重乾 燥機((股)奈良機械製作所製MSD-200)乾燥。微執跡(日機裝 (股)製)測定所得到之碳酸鈣之平均粒徑為15 μιη。 、 (製造例) 依乂下之順序而製造—使用於滿本發明條件之基材薄 膜(製造例1〜9)及比較例的基材薄膜(製造例丨〇~丨6)。 於表1中記載所使用之材料的内容。表中「MFR」意指熔 融流動連率。表2中記載當各基材薄膜製造時所使用之材料 的種類與量(重量%)、延伸條件 '各層之厚度、及不透明度。 記載於表2之材料的編號係對應於表i所記載之材料編號。 又,表2之分散劑添加量係以材料卜3的合計添加量作為 重量份時的重量份。 在製造例1〜6、9、10、11中’細設定於25(TC之押出機 熔融混練表2記載的調配物[A],押出成形,再以冷卻裝置 冷卻至70°C而得到單層之無延伸片。 將此無延伸片力〇熱至表2記載之延伸溫度⑴後,朝縱方向 在輥間延伸5倍,得到縱·軸延伸膜。然後,以設定於25〇<t 之押出機炫融混練表2記载的調配物[B],積層於前述縱_轴 延伸膜的兩面。積層物加熱至表2記载之延伸溫度(2)而使用 拉幅延伸機_方向延伸8倍,以高於延伸溫度⑺⑽之溫 度進行熱處理,得到i軸延伸/2軸延伸χι軸延伸之3層樹脂延 伸薄膜。 90848.doc -31 - 1335343 &幻7中,係以分別设定於2 5 0 °C之3台押出機進行炼 融混練表2記载之調配物[A]與調配物[B],以給料塊形式之 模頭積層而押出成片狀,以冷卻裝置冷至7(TC得到3層之無 L伸片將此無延伸片加熱至表2記載之延伸溫度(j)後,朝 縱方向在輥間延伸5倍,然後,加熱至延伸溫度(2)後,使用 拉幅延伸機而朝橫方向延伸8倍,以高於延伸溫度(2)2(rc之 度進行熱處理,得到2轴延伸/2軸延伸/2軸延伸之3層樹脂 延伸薄膜。 在製造例8中,以設定於25(rc之押出機熔融混練表2記載 的調配物[B],押出成形,以冷卻裝置冷卻至7〇χ:而得到單 層之無延伸片。將此無延伸片加熱至表2記載之延伸溫度(1) 後,朝縱方向在輥間延伸5倍,以高於延伸溫度(1)2(rc之溫 度進行熱處理,得到縱1軸延伸樹脂延伸薄膜。 在製造例12中係使用特開2001-181 423號公報之實施例3 的1軸延伸/2軸延伸/1軸延伸之3層樹脂延伸薄膜。 在製造例13中係使用特開2001-226507號公報之實施例3 的1軸延伸/2軸延伸/1軸延伸之3層樹脂延伸薄膜。 在製造例14中係使用特開2001-1 64017號公報之實施例3 的1軸延伸/ 2軸延伸/1軸延伸之3層樹脂延伸薄膜。 在製造例15中係使用特開2001-151918號公報之實施例4 的1軸延伸/2軸延伸/1軸延伸之3層樹脂延伸薄膜。 在製造例16中係使用特開平10-2123 67號公報之實施例2 的1軸延伸/2軸延伸/1軸延伸之3層樹脂延伸薄膜。 於製造例1〜16所得到之單層及3層樹脂延伸薄膜的兩 90848.doc -32· 1335343 表2 調配物[A] 調配物[B] 延 伸 不透 明度 (%) 材 料 調配量 (重量%) 材 料 調配量 (重量%) 分散劑 添加量 (重量份) 延伸 溫度 (1)00 延伸 溫度 (2X°C) 層 搆 成 轴數 厚度 (μπι) 倍率 田]層 之面積 倍率 製造例1 1 2 80 20 1 3 4 40 60 2 140 155 3 [B]l 軸 [A] 2 轴 [B] 1 轴 25 50 25 5/8 8 97 製造例2 1 2 80 20 1 3 4 40 60 0.5 140 155 3 [B]l 轴 [A] 2 軸 [B] l 軸 25 50 25 5/8 8 96 製造例3 1 2 80 20 1 3 4 40 60 40 140 155 3 [B]l 轴 [A] 2 軸 [B] l 轴 25 50 25 5/8 8 80 製造例4 1 2 80 20 1 3 5 40 60 2 140 155 3 [B]l 軸 [A] 2 軸 [B] 1 抽 25 50 25 5/8 8 1 製造例5 1 2 80 20 1 3 6 40 60 2 140 155 3 [B]l 軸 [A] 2 軸 [B] 1 軸 25 50 25 5/8 8 96 製造例6 1 2 80 20 1 3 4 40 60 2 140 155 3 [B]l 軸 [A] 2 軸 [B] 1 軸 25 50 25 5/8 8 83 製造例7 1 2 80 20 1 3 4 75 25 2 140 155 3 [B]2 轴 [A] 2 軸 [B] 2 轴 25 50 25 5/8 40 80 製造例8 \ \ 1 3 4 40 60 2 140 \ 1 [B]l 軸 25 5 5 80 製造例9 1 100 1 3 4 75 25 2 140 155 3 [B]l 轴 [A] 2 軸 [B] 1 軸 25 50 25 5/8 8 31 製造例10 1 2 80 20 1 3 4 95 5 2 140 155 3 间1轴 [A] 2 轴 [B] 1 軸 25 50 25 5/8 8 651| 製造例11 1 2 80 20 1 2 4 40 60 2 140 155 3 [B]l 軸 [A] 2 轴 [B] 1 轴 25 50 25 5/8 8 96 製造例12 特開2001-181423號公報之實施例3 145 154 3 [B]l 軸 [A] 2 轴 [B] l 軸 49 43 40 4.5/8.5 8.5 95 製造例13 特開2001-226507號公報之實施例3 145 154 3 [B]l 軸 [A] 2 轴 [B] 1 轴 58 50 30 4.5/8.5 8.5 96 製造例14 特開2001-164017號公報之實施例3 145 154 3 [B】l抽 [A] 2 轴 [B] 1 軸 73 59 43 4.5/8.5 8.5 98 製造例15 特開2001-151918號公報之實施例4 140 154 3 [B]l 軸 [A] 2 轴 [B] l 抽 72 38 30 4.5/8 8 95 製造例16 特開平丨0-212367號公報之實施例2 135 155 3 [B]l 抽 [A] 2 轴 [B] l 軸 20 60 20 5/8 8 94 •34- 90848.doc (實施例1〜9’比較例b?) 以^所記載之特定固形分濃度的方式,混合由表3所記 , 稱成的刀散液、表3所記載之抗結塊 2及水而調製水系塗布劑。將此水系塗布劑以狹縫模頭 1 、!連:度2°m/min塗布於製造例…的基材薄膜的表 1彳》又疋於表4所兄載之乾燥溫度且長度ι〇 ^之洪箱乾 ;:得到模内成形用標藏用薄膜。所得到之薄膜的乾燥後 塗布量如表4。 (試驗例) 於製造例所製造之各基材薄膜的表面,進行無機微細粉 末的分散性、表面開口率、表面開口徑、液體吸㈣數評 估。各試驗之詳細如以下所示。 U無機微細粉末之分散性 將製造例卜16所製造之基材薄膜切成縱5〇〇瓜瓜又橫5〇〇 mm之大小,於其表面(調配物[B]之面)從之角度照射反 射光而計算0.1 mm以上之無機微細粉末凝集物(表面突起 物)而鼻出母單位面積的個數,以如下之3階段評估。 〇·不足3個/m2 △ ·· 3個/m2以上不足1〇個/1112 X : 10個/m2以上 2)表面開口率、開口徑 從製造例1〜1 6所製造之基材薄膜切取任意之一部分,貼 在觀察試料台上,金屬蒸鍍其觀察面(調配物〔B〕之表面) 而使用掃描型顯微鏡(日立製作所(股)製、S-24〇〇)而以倍率 90848.doc -35· 1335343 2000倍照相攝影表面。於修整膜修整空孔而塗滿之圖以晝 像解析裝置的表面置(Nic〇l(股)製;Luzex型式nD)進行晝像 處理,測定樹脂延伸薄膜的表面開口率。 進一步,從表面照片任意選擇開空孔2〇個,求出通過空 孔中心之最短邊的長度,以其平均值作為表面開口徑。 3)液體吸收係數 依據 BRISTOW 法(JAPAN TAPPI No.51-87),使用液體動 態吸收性試驗機(態谷理機工業(股)製:BRIST〇w試驗機工工 型)而測定製造例1〜16所製造之基材薄膜的液體吸收係 數。液體吸收係數係測定溶液滴下後從2〇毫秒至4〇毫秒中 之吸水曲線藉最小二乘法以得到直線,從其斜率求得。測 定溶液係使用一於蒸餾水98重量%混合印泥紅 (紅WShachihata(股)製)2重量%作為著色用染料而成者。液 體吸收係數之大小係以如下之4階段評估。 △:實用上有問題,X不實用。 ◎ ·· 15 ml/(m2 · ms'/s)以上 〇:5 ml/(m2 · msl/2)以上不足 15 ml/(m2 ·脂1/2) △ : 1 ml/(m2 · ms‘/2)以上不足 5 ml/(m2 · ms'/2) X :不足 1 ml/(m2 · ms_/2) 對於在實施例、比較例中所得到之熱密封性樹脂層的基 材薄膜,進行塗布層表面形態、模内標籤適用性(標“ 性、起泡性、標籤密著性)之評估。各評估之試驗詳細係如 以下所示般。 ' 4)塗布層表面形態 90848.doc -36- 1335343 使用掃描型顯微鏡(日立製作所(股)製、S-2400)而以倍率 2000倍觀察實施例1〜9、比較例1〜7的熱密封性樹脂層之基 材薄膜塗布層表面1〇處。觀察所使用之分散液是否殘留粒 子形態’以如下之3階段評估判定。 ◎:為全部粒子形態。 〇’ 一部粒子間可看到融接,但無實用上問題。 X :全部看不到粒子形態,但成為薄膜狀。 5)模内標籤適用性之試驗 將没有實施例1〜9、比較例的熱密封性樹脂層之基材 薄膜沖打出成縱70 mm、橫6〇 mm,作成標籤。如圖2所示 般,與塗布熱密封性樹脂之面(1_b)相反侧的印刷面以 中工合器製造用成形機相接於設定在25。(:之模具(2)之内壁 (2-a)的方式,從真空減壓吸引孔(5)減壓吸引而裝著固定。 其後,以每擊循環12秒使加熱熔融至18〇。〇之高密度聚乙烯 (HDPE,日本P〇lychem(般)製:商品名「ηβ·33〇」)中空成 形,得到貼著標籤之中空容器。 同樣做法,而使用加熱熔融至21(rc之高衝擊聚苯乙烯 (IpS大日本油墨化學工業(股)製:商品名「 I 1〇〇」),知到貼著標籤之中空容器。 進步,,如圖3所示般,與塗布熱密封性樹脂之面⑴_b) 相反側的印刷面(11_a)j;<延伸吹出成形機(丫。如產業(股) 衣(商口口名PET-2W型))相接於設定在25〇c之模具(12)之内 一()的方式從真空減壓吸引孔(14)減壓吸引而裝著固 —”後預先以射出成形機成形呈小型容器形狀之預發 90848.doc -37- 1335343 泡(13)的聚對笨二甲酸乙二酯(pET、日本(股)製;商 。口名 UniPet RT543」)以紅外線加熱器加熱至95。〇,以每 擊循環30秒延伸空成形,得到貼著標籤之中空容器。 以如下之方法評估在此等成形中之標籤裝著性、與所得 到之標籤貼黏的中空容器。 5-1)標籤裝著(插入物)性 以如下之基準s平估判定在各擊發的中空成形中的標 籤裝著狀況。 〇··在全部所指定之處,可無問題地裝著。 △:無標籤之掉落,但可看到在標籤指定位置偏移,實 用上有問題。 X:於裝著時標籤的落下或標籤指定位置可看到偏移。 5-2)起泡性 以如下所示所示之基準判定所得到各容器2〇個之貼著楳 籤的起泡發生狀況。 5點:完全無起泡發生者 4點:起泡發生不足標籤面積的1〇0/〇 3點:起泡發生不足標籤面積的〖〇%以上未達2〇0/〇 2點.起泡發生不足標籤面積的2〇%以上未達5〇0/〇 1點.起泡發生為標籤面積之5〇%以上 以容器20個之總點數進行評估(丨〇〇點滴點) 〇:100點 △ : 80〜99點 X : 79點 90848.doc •38· 1335343 5-3)標籤密著性 將貼著標籤之容器的標籤部分4點切成1 5 mm幅寬,剝離 標籤端部的一部分,以抗拉試驗機(Orientech(股)製:RTM 型)、200 mm/分之速度測定剝離強度(g),求出其平均值, 以如下所示之基準判定。The amount of the surface treatment agent (D) to be used varies depending on the use of the resin stretched film provided with the water-based heat-sealable resin coating layer (8) of the present invention, but is generally 〇〇1 by weight with respect to the inorganic fine powder. It should be US 90848.doc -22- 1335343 for 5~50 ml/(m2.ms1/:). When the liquid absorption coefficient is less than 5, the water absorption speed at the time of application of the aqueous coating agent is insufficient, and the viscosity of the coating liquid rises little to obtain the desired coating amount and the surface state of the coating film. In the present specification, the term "liquid absorption coefficient" means that the water absorption curve in the range of 20 seconds to 40 milliseconds from the start of water absorption is determined by the BLISTOW water absorption test of JAPAN TAPPINO. 51-87, and the straight line is obtained by the least square method. The value sought. The liquid absorption coefficient can be measured in accordance with the specific procedure described in the test examples described later. Further, the surface opening ratio (surface porosity) of the outermost layer of the base film is preferably 7 Å/Å or more, more preferably 10 to 30%. If the surface opening ratio is less than 7%, sufficient liquid absorption cannot be obtained. On the other hand, if it exceeds 3 %, the strength of the surface of the substrate is lowered, and it is molded in the mold, and when it is adhered to the container, it is simply peeled off from the surface layer of the substrate. In the present specification, the "surface opening ratio" and the "average aperture ratio" are in the observation area when the surface of the base film before the water-based heat-sealable resin coating layer (E) of the present invention is provided by an electron microscope. The area ratio of the holes occupied is the average of the lengths of the short sides of the 20 holes in the observation field. Specifically, any one of the substrate enamel film samples is cut out and adhered to the observation sample stage, and the observation surface is vapor-deposited to gold-platinum or the like using an electron microscope (for example, a scanning microscope S-2400 manufactured by Hitachi, Ltd.). And pay for it by observing the pores of the surface at an arbitrary magnification (for example, expanding to 500 times to 3000 times). Further, the area observed by the photographing is photographed, and the pores are trimmed on the trimming film, and the image analyzing apparatus (manufactured by Nirec(R): type [uzex 90848.doc -25-1335343 HD) image processing is applied. In the figure, the area ratio of the voids can also be used as the aperture ratio of the surface of the substrate, and the average length of the short side 1 of the pores 2_ of the surface opening is measured from the observed electron micrograph. Moreover, the short side length of the hole is the length in the direction shown in FIG. On the day of the month of the month, the water-based heat-sealable resin coating layer (8) is used as the outermost layer, and the reverse side is printed and/or printed by various printing methods and/or printing methods. For use, it is laminated on a thermoplastic resin film, laminated paper, paper poly-paper, non-woven fabric, or cloth. The laminated film structure may be formed by laminating each layer separately, and may be produced by laminating and concentrating. It can also be printed on the surface and back of the laminated film. These methods can also be combined as appropriate. Further, the resin stretched film of the present invention can be used for printing and/or printing even on the surface on which the water-based heat-sealable resin coating layer (8) is provided, and is provided with a water-based heat-sealable resin coating layer (E). Printing and/or printing, such as PEm, PP bottles, LD_PE bottles, can add various information to the surface of the device with high transparency, or improve the decorative value of the container to enhance the added value of the container. Or printing may be carried out by a known method such as offset printing, letterpress printing, gravure printing, flexographic printing, screen printing, electronic 肊 phase printing, ink jet printing, fused thermal transfer printing, sublimation thermal transfer printing, or the like. The resin-stretched film of the present invention is excellent in foaming property and label adhesion even when it is printed on the water-based heat-sealable resin coating layer (E), and is heat-sealed by a transparent hollow container to which a shackle is attached. The printing of the (E) side of the resin coating layer can be sufficiently understood. Further, the resin extending of the water-based heat-sealable resin coating layer (e) of the present invention is 90848.doc -26 - ^35343 - the film is preferably extended at least in the -axis direction, or may be extended in the two-axis direction. For example, 3: the inorganic fine powder is 0 to 40% by weight, preferably 3 to 33 parts by weight, and the crystalline polyhydrocarbon resin film is obtained by extending in a direction lower than a temperature lower than the melting point of the resin and is oriented in the direction of the x-axis. The aligned film is used as the substrate layer, and the molten resin of the sheet-like layer resin composition is used as the outermost layer (and the resin composition is 2 to 80% by weight of the thermoplastic resin (A) and the surface-treated inorganic fine powder (B) a resin composition comprising 80 to 20% by weight and an organic filler of 5% to 5% by weight, based on 1 part by weight of the total of the thermoplastic resin (4), the inorganic fine powder (B) and the organic filler. And the composition containing the dispersing agent (C) 0.01 to 100 parts by weight), then: extending the laminated film in the direction of the extending direction and the right direction, the outermost layer is aligned in the j-axis direction, and the substrate layer is oriented toward the 2 axes. A substrate film of a laminated structure oriented in the direction. a Further, a water-based heat-sealable resin coating layer (E) is provided on the surface of the outermost layer of the base film to obtain a resin stretched film of the present invention. A preferred manufacturing method is a step of providing a heat-sealable resin coating layer (8) on the surface of the film obtained by laminating the substrate layer and the outermost layer. Contrary to each other when it is extended and stacked, and the manufacturing cost is also low. . Various methods known in the art can also be used for the extension of L. When the elongation is lower than the melting point of the resin by more than $ ° C and two or more kinds of resins are used, it is preferably carried out at a temperature lower than the melting point of the resin having the largest amount of the compound. The specific method of extension can be exemplified by the observation of the circumferential speed difference of the roller group and the holding of the dryer. If the stretching ratio is arbitrarily adjusted according to the stretching, and it is easy to obtain a film having any rigidity, transparency, smoothness, and glossiness, it is preferable that the stretching ratio is 90848.doc -27·1335343:: Considering the resin extension of the present invention The purpose of the film is determined by the properties of the resin used for the disk and the pin. A stretch of d in the range of times is U times, preferably "the stretch ratio is preferably 4 to 7 times. Use the pull-dryer to hold the extension when it is 4 1 】 Use the pull *f field to bake one for 3~ two == extension. The area magnification is generally the surface of the resin-extending film: if the area ratio is 2 times or less, the surface of the film is not able to obtain a specific aperture ratio, and the water absorption of the method is difficult to apply to the surface. And a water-based heat-sealable resin coating layer (8). In addition, if the super (10) times ^ breaks or the coarse opening will increase. . _ The extended base (4) film system should be heat treated. The temperature of the heat treatment is in the range of the temperature to a temperature higher than the extension temperature of 30 t. By performing the treatment, the heat shrinkage rate in the extending direction is lowered, and the curl caused by the storage of the product or the shrinkage caused by the shrinkage of the heat and the melt seal or the like is reduced. Π-like money and hot water box, but it can also be planted: etc. 2 treatment effect, so the best heat (4) extended film = heat, reason (four) should be applied to the surface corona discharge treatment or plasma treatment, etc.: cloth = two. The hunting is carried out by oxidation treatment, and the water-based heat-sealable resin coating layer (8) is provided, and the wettability of the surface is higher. The heat-sealing resin dispersion liquid (4) t-degree of connection increases the particle size smaller than the opening diameter of the substrate film surface. The tree of k knows faster, and the advantages of more entry still exist, so it is good. Further, there is an advantage that the adhesion to the water-based heat-sealable resin is improved. The thickness of the resin-extending film provided with the water-based heat-sealable resin coating layer (8) is not particularly limited, but is preferably 40 to 400 μm, more preferably 50 to 350 μm, and most preferably 60 to 60. A range of 300 μηη. The thickness of the outermost layer of the base film which is in contact with the water-based heat-sealable resin coating layer (ε) is preferably 3 to i 〇〇, in consideration of the absorption of the aqueous solvent contained in the water-based heat-sealable resin knife solution. It should be 5~8〇μΠ1. The thickness of the water-based heat-sealable resin coating layer (E) is preferably from 0.05 to 40, more preferably 〇υο μιη, depending on the purpose of use. When the resin stretched film of the water-based heat-sealable resin coating layer of the present invention is used as a label for in-mold forming, the type and phase transition temperature of the aqueous heat-sealing resin can be appropriately selected, and it can be used for various types. Resin container. For example, it can be used for containers made of high-density polyethylene, low-density polyethylene, polypropylene, styrene, polyvinyl chloride, and polycarbonate, which are suitable for high-density polyethylene and polypropylene. , polyester, polystyrene, polycarbonate. These resin containers are manufactured by differential molding, hollow molding, injection molding, and foam molding 'extension blow molding or forging molding. In hair, it is suitable for poor waste forming, hollow forming, injection molding, and stretch blow forming. It has the advantage that it can also be widely used to form a trapped container in a conventional iron. The coating method of the special heat-sealing resin can be a knife method, a rod-and-wire rod method, a sliding hopper method, a curtain method, and an air knife method: a light method, a smear method, a size stamping method, a gravure method, and a reverse shovel method. : General coating method such as gravure method. It is also possible to carry out a method of coating by appropriately combining these two general coating methods. The drying method after coating is carried out by a known drying means, but it is necessary to dry in a drying step at a temperature not exceeding the temperature of the heat-sealing resin (8) to be used at a temperature of 90848.doc • 29 to 1335343. The present invention will be more specifically described by way of a preparation example, a production example, an example, a comparative example, and a test example. The materials, the amounts used, the ratios, the contents of the treatment, the order of treatment, and the like, which are shown in the following examples, may be appropriately changed as long as they do not exceed the present invention. Therefore, the scope of the invention should not be construed as limited by the specific examples shown below. (Preparation Example 1) Preparation of the surface treatment agent (D) In a reaction body containing a reflux condenser, a thermometer, a dropping funnel, a stirring device, and a gas 'into S, a diallylamine hydrochloride (6 重量% by weight) was fed. 500 parts by weight of aqueous solution), and acrylamide (4 〇 wt% aqueous solution, heavy smash and 40 mils, - the surface temperature was raised to 80 C while flowing into the nitrogen. Under stirring, the dropping funnel was used. The polymerization initiator and ammonium persulfate (25 wt% aqueous solution) were added dropwise for 3 hours, and after 3 minutes, the reaction was continued for 1 hour to obtain a viscous pale yellow liquid. If it is injected into acetone in 500 ml, a white precipitate is produced. The precipitate is filtered, further washed with 2 times of acetone, and dried in vacuo to give a white solid polymer (water-soluble cationic copolymerization). The weight average molecular weight determined by GPC of the obtained polymer was 55 Å. (Preparation Example 2) Preparation of surface-treated heavy calcium carbonate The mixture was vigorously stirred and mixed with calcium carbonate (average particle size 8 μm, Japanese Du 40% by weight of dry pulverized product and 6% by weight of water to form a slurry, and 100 parts by weight of each heavy calcium carbonate is added to the surface treatment agent (D) prepared in the preparation example (0.06 parts by weight). German medium mixing mill (glass beads with diameter i · 5 nun, filling rate 丨7〇%, weekly speed 丨〇m/sec) and wet pulverization. 90848.doc 30- 1335343 Then, the main component is carbon A mixture of sodium alkane sulfonate of 4 and a mixture of sodium alkanesulfonate of carbon number 16 (2% by weight aqueous solution of molybdenum) was added in 5 g portions. Then, it was classified by a mesh of 350 mesh, and passed through a slurry of 35 mesh. The medium flow heavy dryer (MSD-200 manufactured by Nara Machinery Co., Ltd.) was dried. The average particle diameter of the calcium carbonate obtained by the micro-existence (manufactured by Nikkiso Co., Ltd.) was 15 μm. (Production Example) The substrate film (Production Examples 1 to 9) and the base film (Production Examples 丨 to 丨6) used in the conditions of the present invention were produced in the following order. The content of the material. "MFR" in the table means the melt flow connection rate. Table 2 describes the manufacture of each substrate film. The type and amount (% by weight) of the materials used, the elongation conditions, the thickness of each layer, and the opacity. The numbers of the materials described in Table 2 correspond to the material numbers described in Table i. The amount of addition is a part by weight of the total amount of the material 3 as a part by weight. In the production examples 1 to 6, 9, 10, and 11 'finely set to 25 (TC extruder melt kneading table 2 described in the formulation) [A], extruding and forming, and cooling to 70 ° C with a cooling device to obtain a single layer without extension sheet. After the extension piece is not heated to the extension temperature (1) shown in Table 2, it extends in the longitudinal direction between the rolls. The longitudinal-axis stretching film was obtained at a ratio of 5 times, and then the preparation [B] described in the extruder 2, which was set at 25 Torr < t, was laminated on both surfaces of the longitudinal-axis stretching film. The laminate was heated to the extension temperature (2) shown in Table 2 and stretched 8 times in the direction of the tenter stretching machine, and heat-treated at a temperature higher than the extension temperature (7) (10) to obtain an i-axis extension/2 axis extension χ 轴 axis extension 3 A layer of resin extended film. 90848.doc -31 - 1335343 & illusion 7, the smelting and mixing of the preparations [A] and the preparations [B] described in Table 2 were carried out at three extruders set at 250 °C, respectively. The sheet is laminated in the form of a feed block and extruded into a sheet shape, and cooled to 7 by a cooling device (TC obtains 3 layers of L-free sheet to heat the unstretched sheet to the extension temperature (j) shown in Table 2, The direction is extended 5 times between the rolls, and then heated to the extension temperature (2), and then extended 8 times in the transverse direction using a tenter stretching machine, and heat-treated at a temperature higher than the extension temperature (2) 2 (rc) to obtain 2 Three-layer resin stretched film which is extended by a shaft extension / 2 axis extension / 2 axis. In Production Example 8, the preparation [B] set in 25 (rc extruder melt-kneading table 2) was extruded to form a cooling device. Cooling to 7 〇χ: to obtain a single layer without extension sheet. After heating the extension-free sheet to the extension temperature (1) shown in Table 2, it is extended 5 times in the longitudinal direction between the rolls to be higher than the extension temperature (1). (2) The temperature of rc was heat-treated to obtain a longitudinally 1-axis extended resin stretched film. In Production Example 12, Example 3 of JP-A-2001-181 423 was used. A three-layer resin stretched film of one-axis extension / two-axis extension / one-axis extension. In Production Example 13, the one-axis extension / two-axis extension / one-axis extension of Example 3 of JP-A-2001-226507 is used. In the production example 14, a three-layer resin stretched film of one-axis extension/two-axis extension/one-axis extension of Example 3 of JP-A-2001-1 64017 was used. The three-layer resin-stretched film of the one-axis extension / the two-axis extension / one-axis extension of the Example 4 of the Unexamined-Japanese-Patent No. 2001-151918. The manufacturing example 16 uses the Example 2 of Unexamined-Japanese-Patent No. 10-2123 67. 3-layer resin-stretched film of 1-axis extension / 2 axis extension / 1-axis extension. Two of the single-layer and three-layer resin-stretched film obtained in Production Examples 1 to 16 90848.doc -32· 1335343 Table 2 Formulation [A Formulation [B] Extended opacity (%) Material preparation amount (% by weight) Material preparation amount (% by weight) Dispersant addition amount (parts by weight) Extension temperature (1) 00 Extension temperature (2X °C) Layer composition Axis number thickness (μπι) magnification field area area magnification manufacturing example 1 1 2 80 20 1 3 4 40 60 2 140 155 3 [B]l axis [A] 2 Axis [B] 1 Axis 25 50 25 5/8 8 97 Manufacturing example 2 1 2 80 20 1 3 4 40 60 0.5 140 155 3 [B]l Axis [A] 2 Axis [B] l Axis 25 50 25 5/ 8 8 96 Manufacturing example 3 1 2 80 20 1 3 4 40 60 40 140 155 3 [B]l Axis [A] 2 Axis [B] l Axis 25 50 25 5/8 8 80 Manufacturing example 4 1 2 80 20 1 3 5 40 60 2 140 155 3 [B]l Axis [A] 2 Axis [B] 1 Pumping 25 50 25 5/8 8 1 Manufacturing Example 5 1 2 80 20 1 3 6 40 60 2 140 155 3 [B] l Axis [A] 2 Axis [B] 1 Axis 25 50 25 5/8 8 96 Manufacturing Example 6 1 2 80 20 1 3 4 40 60 2 140 155 3 [B]l Axis [A] 2 Axis [B] 1 Shaft 25 50 25 5/8 8 83 Manufacturing example 7 1 2 80 20 1 3 4 75 25 2 140 155 3 [B] 2 Axis [A] 2 Axis [B] 2 Axis 25 50 25 5/8 40 80 Manufacturing example 8 \ \ 1 3 4 40 60 2 140 \ 1 [B]l Axis 25 5 5 80 Manufacturing Example 9 1 100 1 3 4 75 25 2 140 155 3 [B]l Axis [A] 2 Axis [B] 1 Axis 25 50 25 5/8 8 31 Manufacturing example 10 1 2 80 20 1 3 4 95 5 2 140 155 3 1 axis [A] 2 axis [B] 1 Axis 25 50 25 5/8 8 651| Manufacturing example 11 1 2 80 20 1 2 4 40 60 2 140 155 3 [B]l Axis [A] 2 Axis [B] 1 Axis 25 50 25 5/8 8 96 Manufacturing Example 12 Example 3 of JP-A-2001-181423 154 3 [B]l axis [ A] 2 axis [B] l Axis 49 43 40 4.5/8.5 8.5 95 Manufacturing Example 13 Example 3 of the JP-A-2001-226507 145 154 3 [B]l Axis [A] 2 Axis [B] 1 Axis 58 50 30 4.5/8.5 8.5 96 Manufacturing Example 14 Example 3 of JP-A-2001-164017 145 154 3 [B] l pumping [A] 2 axis [B] 1 axis 73 59 43 4.5/8.5 8.5 98 Manufacturing Example 15 Embodiment 4 of Japanese Laid-Open Patent Publication No. 2001-151918 140 154 3 [B]l Axis [A] 2 Axis [B] l Pumping 72 38 30 4.5/8 8 95 Manufacturing Example 16 Implementation of Japanese Patent Publication No. 0-212367 Example 2 135 155 3 [B]l Pumping [A] 2 Axis [B] l Axis 20 60 20 5/8 8 94 • 34- 90848.doc (Examples 1 to 9 'Comparative Example b?) The water-based coating agent was prepared by mixing the swarf liquid referred to in Table 3, the anti-caking 2 described in Table 3, and water in the manner of the specific solid content concentration. The water-based coating agent was applied to the substrate film of the production example by a slit die 1 and a degree of 2° m/min, and the drying temperature of the substrate was shown in Table 4, and the length was ι〇. ^The dry box is dry;: The film for labeling for in-mold forming is obtained. The dried coating amount of the obtained film is shown in Table 4. (Test Example) The surface of each base film produced in the production example was evaluated for the dispersibility of the inorganic fine powder, the surface opening ratio, the surface opening diameter, and the liquid suction number. The details of each test are as follows. Dispersibility of U inorganic fine powder The base film produced in the production example 16 is cut into a vertical 5 inch melon and a width of 5 mm, on the surface (the side of the preparation [B]) from the viewpoint The number of inorganic fine powder aggregates (surface protrusions) of 0.1 mm or more was measured by irradiating the reflected light, and the number of unit areas of the nasal passages was evaluated in the following three stages. 〇·3 pieces/m2 △ ··3 pieces/m2 or more and less than 1 piece/1112 X: 10 pieces/m2 or more 2) Surface opening ratio and opening diameter are cut out from the base film produced in Production Examples 1 to 16. Any one part is attached to the observation sample table, and the metal is vapor-deposited on the observation surface (the surface of the preparation [B]), and a scanning microscope (manufactured by Hitachi, Ltd., S-24) is used at a magnification of 90848. Doc -35· 1335343 2000 times photographic surface. The image of the resin stretched film was measured by subjecting the film to the surface of the image analysis apparatus (manufactured by Nic® (manufactured by Co., Ltd.; Luzex type nD). Further, two empty holes were arbitrarily selected from the surface photograph, and the length of the shortest side passing through the center of the void was determined, and the average value thereof was used as the surface opening diameter. 3) Liquid absorption coefficient According to the BRISTOW method (JAPAN TAPPI No. 51-87), the liquid dynamic dynamic absorption tester (manufactured by the state of the company: BRIST〇w test machine type) was used to measure the production example 1~ The liquid absorption coefficient of the substrate film produced by 16. The liquid absorption coefficient is obtained by taking the water absorption curve from 2 〇 milliseconds to 4 〇 milliseconds after the solution is dropped by a least square method to obtain a straight line, which is obtained from the slope thereof. The measurement solution was prepared by mixing 2% by weight of a printing ink red (manufactured by Red WShachihata Co., Ltd.) in a distilled water of 98% by weight as a dye for coloring. The magnitude of the liquid absorption coefficient is evaluated in the following four stages. △: There is a problem in practice, and X is not practical. ◎ ·· 15 ml/(m2 · ms'/s) or more 5: 5 ml/(m2 · msl/2) or more and less than 15 ml/(m2 ·lip 1/2) △ : 1 ml/(m2 · ms' /2) or less than 5 ml/(m2 · ms'/2) X: less than 1 ml/(m2 · ms_/2) For the base film of the heat-sealable resin layer obtained in the examples and the comparative examples, The surface morphology of the coating layer and the applicability of the in-mold label (labeling, foaming property, label adhesion) were evaluated. The details of the evaluation of each evaluation are as follows. '4) Coating surface morphology 90084.doc -36- 1335343 The surface of the base film coating layer of the heat-sealable resin layers of Examples 1 to 9 and Comparative Examples 1 to 7 was observed at a magnification of 2000 times using a scanning microscope (manufactured by Hitachi, Ltd., S-2400). 1 。. Observe whether the dispersion used in the dispersion is determined by the following three stages. ◎: It is the total particle form. 〇' The fusion can be seen between one particle, but there is no practical problem. The particle form was not observed in all, but it was in the form of a film. 5) Test for applicability of in-mold label The substrate of the heat-sealable resin layer of Examples 1 to 9 and Comparative Example was not thin. The film was punched out to a length of 70 mm and a width of 6 mm to form a label. As shown in Fig. 2, the printing surface on the opposite side to the surface (1_b) to which the heat-sealable resin was applied was joined to a molding machine for manufacturing a middle machine. The inner wall (2-a) of the mold (2) is set to be vacuum-reduced and sucked from the vacuum decompression hole (5) to be fixed by suction. Thereafter, the heat is melted by a cycle of 12 seconds per stroke. To 18 〇. High-density polyethylene (HDPE, manufactured by P〇lychem Co., Ltd., Japan: "ηβ·33〇") is hollow-formed to obtain a hollow container that is labeled. In the same way, it is heated to melt to 21 (rc high impact polystyrene (IpS Dainippon Ink Chemical Industry Co., Ltd.: trade name "I 1〇〇"), knows the hollow container with the label attached. Progress, as shown in Figure 3, The printing surface (11_a) j on the opposite side to the surface (1)_b) to which the heat-sealing resin is applied; <the extension blow molding machine (丫., the industrial (stock) clothing (Shangkoukou name PET-2W type)) is connected to the setting In the mold of the 25〇c (12), the method of depressurizing the vacuum decompression hole (14) from the vacuum decompression hole (14) is loaded with the solid-" Injection molding machine is formed into a small container shape pre-issue 90848.doc -37- 1335343 bubble (13) polyethylene terephthalate (pET, Japan (stock); business. mouth name UniPet RT543)) The heater was heated to 95. 〇, and the hollow molding was carried out for 30 seconds per cycle to obtain a hollow container which was attached to the label. The labeling property in the forming was evaluated and adhered to the obtained label in the following manner. Hollow container. 5-1) Label-loaded (insert) property The labeling condition in the hollow molding of each shot was determined by the following criteria. 〇·· It can be installed without problems at all the places specified. △: There is no label drop, but it can be seen that the label is offset at the specified position, and there is a problem in practical use. X: The offset can be seen when the label is dropped or the label is specified at the time of loading. 5-2) Foaming property The bubbling occurrence state of each of the obtained containers was determined on the basis of the following criteria. 5 points: 4 points at all without blistering: 1〇0/〇3 points of insufficient labeling area of the bubble: 5% of the bubble area is less than 2〇0/〇2 points. More than 2% of the area of the insufficient label does not reach 5〇0/〇1 point. The occurrence of foaming is more than 5% of the label area and is evaluated by the total number of points of the container (丨〇〇点点) 〇:100 Point △: 80 to 99 points X: 79 points 90848.doc • 38· 1335343 5-3) Label adhesiveness Cut the label portion of the container to which the label is attached at 4 points to a width of 15 mm, and peel off the end of the label. In some cases, the peel strength (g) was measured at a tensile tester (manufactured by Orientech Co., Ltd.: RTM type) at a speed of 200 mm/min, and the average value was determined and determined based on the following criteria.

〇:200 g以上 △:未達100〜200 g X :未達100 g 6)熱密封性樹脂層面之印刷適用性 在設有實施例1、比較例1、7之熱密封性樹脂層的面以下 述之條件喷墨印刷機印刷及照相凹版印刷,作成内面裝飾 用的圖案後,沖打出成縱70 mm、橫60 mm,製成標籤。 <噴墨印刷機印刷> 印刷機:CANNONBJF-850C(6色、染料油墨) 印字圖案:曰本規格協會SCID Wine與食皿「A4」〇: 200 g or more Δ: less than 100 to 200 g X: less than 100 g 6) Printing suitability of the heat-sealable resin layer is provided on the surface of the heat-sealable resin layer of the first embodiment, the comparative examples 1, and The inkjet printing and gravure printing were carried out under the following conditions, and the pattern for the inner surface decoration was formed, and then punched to a length of 70 mm and a width of 60 mm to form a label. <Inkjet printer printing> Printing machine: CANNONBJF-850C (6 colors, dye ink) Printing pattern: 曰本规格协会SCID Wine and food dish "A4"

印字設定:普通紙款,未以驅動器之色修正 使用環境:Windows(登錄商標)ME Pentium4 1.8 GHz RAM 512 MB parallel I/F 使用軟體:Adobe photoshop 5.0 J <照相凹版印刷> 印刷機:DNK製10色機 印字圖案:曰本規格協會SCID Wine與食皿「A4」 油墨:大日精化工業(股)製CSUP(黃、藍、紅之3色) 版輥:175線 90S4g.doc -39- 1335343 如圖2所示般,與塗布已實施喷墨印刷機印刷及照相凹版 印刷之熱密封性樹脂之面(l_b)相反側的印刷面(1_a)以中空 谷器製造用成形機相接於設定在25°C之模具(2)之内壁(2-a) 的方式,從真空減壓吸引孔(5)減壓吸引而裝著固定。其後, 以每擊循環12秒使加熱熔融至160艽之低密度聚乙烯 (LDPE,日本P〇lychem(般)製:商品名「zew」)中空成形, 得到貼著標籤之中空容器。 進一步,如圖3所示般,與塗布已實施噴墨印刷機印刷及 照相凹版印刷之熱密封性樹脂之面(丨丨_ b)與相反側的印刷 面(ΙΙ-a)以延伸吹出成形機(Y〇rkey產業(股)製:(商品名 PET-2W型))相接於設定在2代之模具(12)之内壁(i2-a)的 方式,從真空減壓吸引孔(1 5)減壓吸引而裝著固定。其後, 預先以射出成形機成形呈小型容器形狀之預發泡(13)的聚 對苯二甲酸乙二醋(PET、日本Unipet(股)製;商品名「⑽州 RT543」)以紅外線加熱器加熱至95〇C,以每擊循環3〇秒延 伸中二成形’得到貼著標籤之中空容器。 對於依此等成形所得到之標籤貼著的中空容器,藉上述 方法評估起泡性及標籤密著性。實施例丨之模内嶋即使 使用低密度聚乙稀、聚對苯二甲酸乙二酿之任一者作為中 空容器’起泡性及標籤密著性均良好。 又’經由貼著標籤之透明中空容器,目視觀察施於熱密 封性樹脂層⑻面的印刷狀態’以如下之基準評估判定。 〇:可明確觀察到施於熱密封性樹脂層⑻面的印刷。 X :可明確觀察到施於熱密封性樹脂層⑻面的印刷。 90848.doc -40- 1335343 將各試驗結果表示於表4及表5中〇 表3 分散液(1) ^轉移溫度90°C、平均粒徑0.7 μ m之乙稀/甲基丙烯酸共 上合物(中央理化工業(股)製,商品名:AquatexAC-3100 分散液(2) ,轉移溫度70°C、平均粒徑1.2 μιη之乙稀/醋酸乙烯酯共 中央理化工業(股)製,商品名:Aquatex 分散液(3) 移溫度8CTC、平均粒徑0.8 μιη之乙烯/醋酸乙烯酯共 中央理化工業(股)製,商品名:AquatexMC-3800 分散液(4) 溫度6(TC、平均粒徑1>7 μιη之乙稀/醋酸乙烯酿共 中央理化工業(股)製,商品名:AquatexEC_1700 抗結塊劑 溫度l〇8°c之乙烯/曱基丙烯酸甲酯共聚合物(中 業(股)製,商品名:RikabondES-90 90848.doc •41 - 1335343 表4 實施例 比較例 1 2 3 4 5 6 7 8 9 1 2 3 4 5 6 7 製造例 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 分散性 〇 〇 〇 〇 〇 〇 〇 〇 〇 〇 〇 X X X X X 開口率(%) 12 9 14.5 13.5 11 9.5 8 11 8 2 10.5 5.5 6 6 5.5 6 開口徑(μπι) 0.7 0.75 0.6 0.65 0.7 0.75 1.6 0.7 0.8 0.6 1.8 2.5 2A 2.3 3.0 1.9 液體吸收係數ml/ γπ2·(πι3ΙΛ) ◎ 20 〇 11 ◎ 27 ◎ 24 ◎ 18 〇 10 〇 8.5 ◎ 19 〇 8.5 X 0.6 X 0.9 Δ 4 Δ 4,5 Δ 4.5 Δ 4 Δ 4.5 分散液⑴ 50 45 40 40 45 分散液P) 40 45 45 邊 -Af ^ v^-2irAr 分散液(3) 40 45 45 40 45 鑭 分散液(4) 45 55 45 抗結塊劑 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 水 55 50 45 50 55 55 50 50 50 55 50 55 45 50 50 50 乾燥溫度(°C) 70 70 80 80 80 65 55 70 65 80 80 70 55 90 80 70 乾燥後塗布量(g/m2) 1 1 2.5 1.5 5 0.5 1 1.5 1 1 1 1 1 1 1 1 塗布層表面形態 ◎ 〇 ◎ ◎ ◎ 〇 〇 ◎ 〇 X X 〇 〇 〇 〇 〇 模内標籤適 用性 插入物適用性 〇 〇 〇 〇 〇 〇 〇 〇 〇 Δ X Δ △ Δ Δ X HDPE 起泡性 (點) 〇 100 〇 100 〇 100 〇 100 〇 100 〇 100 〇 100 〇 100 〇 100 X 45 X 60 X 75 X 70 X 60 X 75 Δ 80 標籤密 著性(g) 〇 300 〇 350 〇 400 〇 350 〇 300 〇 330 〇 350 0 400 〇 360 X 60 X 70 X 80 △ 100 X 90 X 85 X 90 HIPS 起泡性 (點) 〇 100 〇 100 〇 100 〇 100 〇 100 〇 100 〇 100 〇 100 〇 100 X 50 X 65 Δ 80 △ 85 X 65 X 75 調 標籤密 著性(g) 〇 330 〇 350 〇 440 〇 380 〇 330 〇 335 〇 360 〇 405 〇 370 X 70 X 80 X 90 Δ 110 Δ 105 X 95 Δ 100 PET 起泡性 (點) 〇 100 〇 100 〇 100 〇 100 〇 100 〇 100 〇 100 〇 100 〇 100 X 70 X 70 Δ 90 Δ 85 X 75 Δ 80 Δ 90 標籤密 著性(g) 〇 300 〇 400 〇 380 〇 370 〇 350 〇 360 〇 380 〇 380 〇 330 X 70 X 90 X 70 Δ 120 △ 110 X 90 X 80 42- 90848.doc 1335343 表5Printing setting: plain paper, not corrected by the color of the drive: Windows (registered trademark) ME Pentium4 1.8 GHz RAM 512 MB parallel I/F Software: Adobe photoshop 5.0 J < gravure printing> Printing machine: DNK 10 color machine printing pattern: 曰This specification association SCID Wine and food dish "A4" Ink: Da Ri Jinghua Industry (stock) system CSUP (yellow, blue, red 3 colors) Edition Roll: 175 line 90S4g.doc - 1335343 As shown in Fig. 2, the printing surface (1_a) on the side opposite to the surface (1_b) on which the heat-sealing resin which has been subjected to ink jet printer printing and gravure printing is applied is connected to a molding machine for manufacturing a hollow rice bowl. The vacuum-reduced suction hole (5) was suction-reduced from the vacuum decompression hole (5) so as to be fixed to the inner wall (2-a) of the mold (2) at 25 °C. Thereafter, a low-density polyethylene (LDPE, manufactured by Pylychem Co., Ltd., Japan, trade name "zew") which was heated and melted to 160 Torr was blow-molded for 12 seconds per cycle to obtain a hollow container which was attached to the label. Further, as shown in FIG. 3, the surface (丨丨_b) of the heat-sealing resin which has been subjected to inkjet printer printing and gravure printing and the printing surface (ΙΙ-a) on the opposite side are formed by extension blow molding. The machine (Y〇rkey Industry Co., Ltd.: (trade name: PET-2W type)) is connected to the inner wall (i2-a) of the mold (12) of the second generation, and is vacuum-vacuum suction hole (1) 5) Decompression and suction are fixed. Thereafter, polyethylene terephthalate (PET, manufactured by Nippon Unipet Co., Ltd.; trade name "(10) State RT543") which is pre-expanded (13) in a small container shape by an injection molding machine is previously heated by infrared rays. The device was heated to 95 〇C, and the second container was formed in a 3 sec. per stroke cycle to obtain a labelled hollow container. For the hollow container to which the label obtained by the molding was attached, the foaming property and the label adhesion were evaluated by the above methods. In the in-mold of the examples, even if either of low-density polyethylene or polyethylene terephthalate was used as the hollow container, the foaming property and the label adhesion were good. Further, the printed state of the surface of the heat-sealable resin layer (8) was visually observed by a transparent hollow container attached to the label, and the judgment was evaluated on the basis of the following. 〇: Printing applied to the surface of the heat-sealable resin layer (8) was clearly observed. X: Printing applied to the surface of the heat-sealable resin layer (8) was clearly observed. 90848.doc -40- 1335343 The results of each test are shown in Tables 4 and 5, Table 3 Dispersion (1) ^ Ethylene/methacrylic acid with a transfer temperature of 90 ° C and an average particle size of 0.7 μ m (Central Chemical and Chemical Industry Co., Ltd., trade name: Aquatex AC-3100 dispersion (2), transfer temperature 70 ° C, average particle size 1.2 μιη Ethylene / vinyl acetate common central chemical industry (stock) system, goods Name: Aquatex Dispersion (3) Ethylene/vinyl acetate with a temperature of 8 CTC and an average particle size of 0.8 μm. Co-Central Chemical and Industrial Co., Ltd., trade name: Aquatex MC-3800 Dispersion (4) Temperature 6 (TC, average particle) 11>7 μιη of Ethylene/Vinyl Acetate Brewing Central Chemical Industry Co., Ltd., trade name: AquatexEC_1700 anti-caking agent temperature l〇8°c ethylene/mercaptomethyl methacrylate copolymer (zhongye ( Co., Ltd., trade name: RikabondES-90 90848.doc • 41 - 1335343 Table 4 Example Comparative Example 1 2 3 4 5 6 7 8 9 1 2 3 4 5 6 7 Manufacturing Example 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 Dispersibility 〇〇〇〇〇〇〇〇〇〇〇XXXXX Opening ratio (%) 12 9 14.5 13.5 11 9.5 8 11 8 2 10.5 5.5 6 6 5.5 6 Opening diameter (μπι) 0.7 0.75 0.6 0.65 0.7 0.75 1.6 0.7 0.8 0.6 1.8 2.5 2A 2.3 3.0 1.9 Liquid absorption coefficient ml/ γπ2·(πι3ΙΛ) ◎ 20 〇11 ◎ 27 ◎ 24 ◎ 18 〇 10 〇8.5 ◎ 19 〇8.5 X 0.6 X 0.9 Δ 4 Δ 4,5 Δ 4.5 Δ 4 Δ 4.5 Dispersion (1) 50 45 40 40 45 Dispersion P) 40 45 45 Edge-Af ^ v^-2irAr dispersion (3 40 45 45 40 45 镧Dispersion (4) 45 55 45 Anti-caking agent 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 5 Water 55 50 45 50 55 55 50 50 50 55 50 55 45 50 50 50 Drying temperature (°C) 70 70 80 80 80 65 55 70 65 80 80 70 55 90 80 70 Coating amount after drying (g/m2) 1 1 2.5 1.5 5 0.5 1 1.5 1 1 1 1 1 1 1 1 Coating Layer surface morphology ◎ 〇 ◎ ◎ ◎ 〇〇 ◎ 〇 〇 〇〇〇〇〇 In-mold label applicability insert suitability 〇〇〇〇〇〇〇〇〇 Δ X Δ △ Δ Δ X HDPE Foaming (dot) 〇100 〇100 〇100 〇100 〇100 〇100 〇100 〇100 〇100 X 45 X 60 X 75 X 70 X 60 X 75 Δ 80 Label adhesion ( g) 〇300 〇350 〇400 〇350 〇300 〇330 〇350 0 400 〇360 X 60 X 70 X 80 △ 100 X 90 X 85 X 90 HIPS Foaming (dot) 〇100 〇100 〇100 〇100 〇 100 〇100 〇100 〇100 〇100 X 50 X 65 Δ 80 △ 85 X 65 X 75 Tune label adhesion (g) 〇330 〇350 〇440 〇380 〇330 〇335 〇360 〇405 〇370 X 70 X 80 X 90 Δ 110 Δ 105 X 95 Δ 100 PET Foaming (dot) 〇100 〇100 〇100 〇100 〇100 〇100 〇100 〇100 〇100 X 70 X 70 Δ 90 Δ 85 X 75 Δ 80 Δ 90 Label Adhesion (g) 〇300 〇400 〇380 〇370 〇350 〇360 〇380 〇380 〇330 X 70 X 90 X 70 Δ 120 △ 110 X 90 X 80 42- 90848.doc 1335343 Table 5

實施例 比較例 1 1 7 起泡性 〇 X X (點) 100 30 60 噴墨印刷 標籤密著性 〇 X X (g) 260 40 90 LDPE 印刷狀態 〇 X X 起泡性 〇 X X (點) 100 35 50 照相凹版 標籤密著性 〇 X X 印刷 (g) 270 50 75 熱密封性 樹脂層面 印刷狀態 〇 X X 的印刷適 起泡性 〇 X Δ 用性 (點) 100 70 80 喷墨印刷 標籤密著性 〇 X X (g) 260 50 60 PET 印刷狀態 〇 X X 起泡性 〇 X Δ (點) 100 70 80 照相凹版 標籤密著性 〇 X X 印刷 (g) 250 55 50 印刷狀態 〇 X X 從以上之結果明顯可知,於液體吸收係數良好的基材 薄膜設有水系熱密封性樹脂層而製造之本發明樹脂延伸薄 膜,係發揮優異之模内標籤適用性(實施例1〜9)。然而,脫 離本發明條件之樹脂延伸薄膜係適用性差,無實用性(比較 90848.doc -43- Ϊ335343 產業上之利用可能性 :發明之樹脂延伸薄膜係具有液體吸收性優之基材薄媒 :水系熱密封性樹脂層者,且顯示優異之模内標藏適用 、生本發明之樹脂延伸薄膜係可以少於習知之塗布量來製 造,不須用以使習知進行的空氣脫逃之雕花等表面加工, :有效率地製造,構成本發明樹月旨延伸薄膜之熱密封 性樹脂層係可以廣範圍的材料構成,有關塗布及加工設備 之限制亦較以往更大幅緩和。因具有此等之特徵,本發明 ,樹脂延伸薄膜,聚烯烴原本係極有用來作為聚苯乙稀或 攻酉曰等之非聚烯烴樹脂容器用的模内成形用標籤。 【圖式簡單說明】 圖1係說明空孔之短邊長的圖。 圖2係聚乙烯或聚苯乙烯中空容器用模内標籤適用性試 驗所使用的成形機之截面圖。 圖3係聚笨二甲酸乙二酯中空容器用模内標籤適用性試 驗·所使用的成形機之截面圖。 【圖示代表符號說明】 圖中’ Ι-a為標籤印刷面,1吨係標籤接著面,2為模具, 2_&為内壁,3為模頭,4為離型,5為吸引孔,6為空氣吹入 貝嘴’ ΙΙ-a為標籤印刷面’丨丨吨為標籤接著面,12為模具, 12-a為内壁,13為預發泡,14為吸引孔,15為延伸桿。 90848.doc •44-EXAMPLES Comparative Example 1 1 7 Foaming 〇 XX (dots) 100 30 60 Inkjet printing label adhesion 〇 XX (g) 260 40 90 LDPE Printing state 〇 XX Foaming 〇 XX (dot) 100 35 50 Photograph Gravure label Adhesion 〇 XX Printing (g) 270 50 75 Heat-sealable resin layer printing state 〇 XX printing suitable foaming 〇 X Δ Properties (dot) 100 70 80 Inkjet printing label adhesion 〇 XX ( g) 260 50 60 PET Printing status 〇 XX Foaming 〇 X Δ (dot) 100 70 80 Gravure label adhesion 〇 XX Printing (g) 250 55 50 Printing status 〇 XX From the above results, it is clear that the liquid The resin stretched film of the present invention produced by providing a water-based heat-sealable resin layer to a base film having a good absorption coefficient exhibits excellent in-mold label suitability (Examples 1 to 9). However, the resin stretched film which deviates from the conditions of the present invention is inferior in applicability and has no practicality (Comparative 90848.doc -43- Ϊ335343 Industrial use possibility: The resin stretched film of the invention has a liquid absorbing substrate excellent in liquid absorption: The water-based heat-sealable resin layer is excellent in the in-mold label, and the resin-stretched film of the present invention can be produced in a smaller amount than the conventional coating amount, and is not required to be used for the conventional air escape. Surface processing: efficiently manufactured, the heat-sealable resin layer constituting the extended film of the present invention can be composed of a wide range of materials, and the restrictions on coating and processing equipment are more moderately tempered than before. The present invention, the resin stretched film, and the polyolefin are originally used as a label for in-mold forming for a non-polyolefin resin container such as polystyrene or tapping. [Simplified Schematic] FIG. Figure 2 is a cross-sectional view of a molding machine used for the in-mold label suitability test of polyethylene or polystyrene hollow containers. In-mold label suitability test for ethylene formate for hollow container. Cross-sectional view of the molding machine used. [Description of representative symbols in the figure] In the figure, 'Ι-a is the label printing surface, 1 ton is the label side, 2 is Mold, 2_& is the inner wall, 3 is the die, 4 is the release, 5 is the suction hole, 6 is the air blown into the mouth of the mouth' ΙΙ-a is the label printing surface 丨丨 为 is the label end face, 12 is the mold, 12-a is the inner wall, 13 is the pre-expansion, 14 is the suction hole, and 15 is the extension rod. 90848.doc •44-

Claims (1)

133534¾ 〇931〇1623號專利申請案1335343⁄4 〇931〇1623 Patent Application 中文申請專利範圍替換本(99年3月) 專利範圍: 樹脂延伸薄膜,其㈣在於:其躲液體吸收係數 為5 ml/m2.(ms广以上之基材薄膜上設有水系熱密封性 樹脂塗布層(E)者;其中 相對於熱可塑性樹脂(A)20〜8〇重量%、與經至少i種表 面處理劑(D)表面處理之無機微細粉末(B)8〇〜2〇重量〇/〇 所調配之樹脂組合物100重量份,該基材薄膜係含有分 散劑(C)0‘01〜100重量份;且 該分散劑(C)為酸改質聚烯烴、矽烷醇改質聚烯烴、或 此兩者。 2_根據申請專利範圍第i項之樹脂延伸薄膜,纟中基材薄 膜之表面開口率為7%以上。 3. 根據申請專利範圍第】項之樹脂延伸薄膜,#中於樹脂 ,且口物1 00重1份中,以0〜50重量%之比率調配有機填 充劑。 、 4. 根據申請專利範圍第】項之樹脂延伸薄膜,其中熱塑性 樹脂(A)為結晶性聚烯烴系樹脂。 5. 根據申明專利範圍第i項之樹脂延伸薄膜,纟中酸改質 聚稀烴之酸改質率為0.01〜20〇/〇。 6·根據申請專利範圍第i項之樹脂延伸薄膜,其中無機微 細粉末(B)之表面經表面處理劑(D)親水化處理。 7.根據申請專利範圍第1項之樹脂延伸薄膜,其中表面處 理劑(D)為水溶性陽離子共聚合物及/或水溶性陰離子 系界面活性劑。 90848-990326.doc 8. 根據申請專利範圍第7項之樹脂延伸薄膜,其中水溶性 陽離子共聚合物係由二烯丙基胺鹽及/或烧基二稀丙基 胺鹽與非離子親水性乙稀基單體作為構成單元。 9. 根據申請專利範圍第1項之樹脂延伸薄膜,其中基材薄 膜係至少朝1軸方向延伸,且面積延伸倍率為2〜80倍。 10. -種樹脂延伸薄膜’其係具有如下構造:如申請專利範 圍第1項之基材薄膜以成為與水系熱密封性樹脂塗布層 (E)相接之層的方式,積層其他之樹脂膜。 11·根據申請專利範圍第i項之樹脂延伸薄膜,其中水系熱 密封性樹脂塗布層(E)係藉由塗布含有水系分散液之塗 布液並進行乾燥而設置。 12. 根據中請專利範圍第n項之樹脂延伸薄膜,其中分散液 之平均粒徑係大於基材薄膜表面之平均開口徑。 13. 根據中請專利範圍第n項之樹脂延伸薄膜,其中分散液 係以粒子形態被覆於表面。 14. ^據中請專利範圍第丨項之樹脂延伸薄膜,纟中水系熱 密封性树脂塗布層(E)所含有之熱密封性樹脂的相轉移 溫度為50〜1401。 15. 根據申請專利範圍第1項之樹脂延伸薄膜,其中水系熱 被封性樹脂塗布層(E)係藉由生產線步驟内塗布及/或 生產線步驟外塗布而設置。 16·根據申凊專利範圍第丨項之樹脂延伸薄膜,其中樹脂延伸 薄膜之水系熱密封性樹脂塗布層(E)的相反面係藉印刷 及/或印字而裝飾。 90848-990326.doc J335343 17. 根據申請專利範圍第i項之樹脂延伸薄膜,其中水系熱 密封性樹脂塗布層(E)面係藉印刷及/或印字而裝飾。 18. 根據申請專利範圍第1〜17項中任一項之樹脂延伸薄 膜,其係作為模内成形用標籤使用。 19•根據申請專利範圍第卜17項中任一項之樹脂延伸薄 膜,其係作為貼著於模内成形容器中之模内成形用標籤 使用。 20.根據申請專利範圍第19項之樹脂延伸薄膜,其中模内成 形容器係藉差壓成形、中空成形、射出成形、發泡成形、 延伸吹出成形或壓縮成形而製造者。 21 ·根據申請專利範圍第19項之樹脂延伸薄膜,其中模内成 形容器係包括選自由高密度聚乙烯、低密度聚乙烯、聚 丙烤、聚酯、聚苯乙烯、聚氯化乙烯及聚碳酸酯所構成 群的材料。 90848-990326.docChinese patent application scope replacement (March 99) Patent scope: Resin stretch film, (4) is: its liquid absorption coefficient is 5 ml / m2. (Water-based heat-seal resin is provided on the substrate film of ms or more The coated layer (E); wherein the inorganic fine powder (B) having a surface treated with at least one type of the surface treating agent (D) is 20 to 8% by weight with respect to the thermoplastic resin (A) of 20 to 8 % by weight; 100 parts by weight of the resin composition to be blended, the base film contains 0'01 to 100 parts by weight of the dispersing agent (C); and the dispersing agent (C) is an acid modified polyolefin, a decyl alcohol modified poly Olefin, or both. 2_ According to the resin-extending film of the scope of claim i, the surface opening ratio of the base film in the crucible is 7% or more. 3. Resin extending film according to the scope of the patent application, # The organic filler is formulated in a ratio of 0 to 50% by weight in the resin and the monomer is 1 part by weight, and the resin is extended according to the scope of the patent application, wherein the thermoplastic resin (A) is crystallized. Polyolefin resin. 5. According to the scope of the patent The resin-extending film of the product has an acid-modified rate of 0.01 to 20 〇/〇 in the acid-modified poly-smelt of the yttrium. 6. The resin-extending film according to the scope of the patent application item i, wherein the surface of the inorganic fine powder (B) The surface treatment agent (D) is a hydrophilized treatment. The resin stretched film according to claim 1, wherein the surface treatment agent (D) is a water-soluble cationic copolymer and/or a water-soluble anionic surfactant. 90848-990326.doc 8. The resin stretched film according to claim 7 of the patent application, wherein the water-soluble cationic copolymer is composed of diallylamine salt and/or alkylidene propylamine salt and nonionic hydrophilicity A resin-stretched film according to the first aspect of the invention, wherein the substrate film is extended at least in the one-axis direction and has an area stretching ratio of 2 to 80 times. The stretched film has a structure in which the base film of the first aspect of the invention is laminated to the layer of the water-based heat-sealable resin coating layer (E), and another resin film is laminated. Patent model The resin stretched film of the item i, wherein the water-based heat-sealable resin coating layer (E) is provided by applying a coating liquid containing an aqueous dispersion and drying it. 12. Resin extending according to item n of the patent scope of the patent application The film, wherein the average particle diameter of the dispersion is larger than the average opening diameter of the surface of the substrate film. 13. The resin-extending film according to item n of the patent application scope, wherein the dispersion is coated on the surface in the form of particles. In the resin stretch film of the third aspect of the patent, the heat-sealing resin contained in the water-based heat-sealable resin coating layer (E) has a phase transition temperature of 50 to 1401. 15. The resin stretched film according to claim 1, wherein the aqueous heat-sealable resin coating layer (E) is provided by coating in a production line step and/or coating step outside the production line. The resin stretched film according to the invention of claim 3, wherein the opposite side of the water-based heat-sealable resin coating layer (E) of the resin stretched film is decorated by printing and/or printing. The ink-extending film according to the item i of the patent application, wherein the water-based heat-sealable resin coating layer (E) is decorated by printing and/or printing. The resin stretched film according to any one of claims 1 to 17, which is used as a label for in-mold forming. The resin stretch film according to any one of the claims of the present invention, which is used as an in-mold forming label attached to an in-mold forming container. 20. The resin stretched film according to claim 19, wherein the in-mold forming container is manufactured by differential pressure molding, hollow molding, injection molding, foam molding, stretch blow molding or compression molding. The resin stretched film according to claim 19, wherein the in-mold forming container comprises a material selected from the group consisting of high density polyethylene, low density polyethylene, polypropylene baking, polyester, polystyrene, polyvinyl chloride, and polycarbonate. The material of the group formed by the ester. 90848-990326.doc
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