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    • 1. 发明专利
    • Plastic optical fiber
    • 塑料光纤
    • JP2006276335A
    • 2006-10-12
    • JP2005093724
    • 2005-03-29
    • Fuji Photo Film Co Ltd富士写真フイルム株式会社
    • NAKAMURA YOSHISADA
    • G02B6/00G02B6/028
    • PROBLEM TO BE SOLVED: To enable visually confirming a communication state of a plastic optical fiber. SOLUTION: Visible light as an optical signal to be transmitted is made incident from an end face of the plastic optical fiber. A clad 22 has a scattering structure which scatters the visible light and emits it from the peripheral surface outside the plastic optical fiber. This scattering structure is a structure differing in density depending on positions in the clad 22. This structure is formed by partially changing, or the like, the crystal structure of a polymer. Thus, the core 21 transmits most of the visible light, and a part of the visible light is scattered in the clad 22 and is made to exit outside from the peripheral surface of the plastic optical fiber 11. Therefore, it is possible to visually check the 2nd wavelength light, and it can be judged whether or not communication is underway, and whether or not the plastic optical fiber 11 is disconnected on the way, and a disconnected point can be judged. COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:为了能够可视地确认塑料光纤的通信状态。 解决方案:作为要透射的光信号的可见光从塑料光纤的端面入射。 包层22具有散射结构,其散射可见光并从塑料光纤外部的外围表面发射。 该散射结构是根据包层22中的位置的密度不同的结构。该结构通过部分改变聚合物的晶体结构等而形成。 因此,芯21透射大部分可见光,并且一部分可见光在包层22中散射并使其从塑料光纤11的外周表面离开。因此,可以目视检查 第二波长光,并且可以判断通信是否正在进行,以及塑料光纤11是否在路上断开,并且可以判断断开点。 版权所有(C)2007,JPO&INPIT
    • 2. 发明专利
    • Plastic primary coated optical fiber and manufacturing method therefor
    • 塑料原包装光纤及其制造方法
    • JP2006178102A
    • 2006-07-06
    • JP2004369992
    • 2004-12-21
    • Fuji Photo Film Co Ltd富士写真フイルム株式会社
    • MIZUSHIMA YASUYUKINAKAMURA YOSHISADA
    • G02B6/032G02B6/00G02B6/028
    • PROBLEM TO BE SOLVED: To reduce the refractive index of a clad in a plastic primary coated optical fiber (POF) without depending on material. SOLUTION: An outer tube 12 with a large number of fine pores 33 is formed. A core polymer is put in the outer tube 12 to constitute a core material 30 by rotational polymerization, and a preform 21 is prepared composed of the outer tube 12 and the core material 30. The POF is obtained by heating and drawing the preform 21. A large number of fine pores 33 of the outer tube 12 are dispersed through the heating and drawing, so that a number of micro pores are formed in the clad of the POF. The size of the micro pores is set to 1-1,000 μm, and the quantity thereof is set 1-70 vol%. The refractive index of the clad is reduced by these micro pores. Even if the same material as the outer core material is used for the clad, a clad having a lower refractive index than the outer core can be obtained, thereby expanding the selectivity of the base material for the clad. Thus, the POF having a superior affinity, a high NA and a high transmission rate can be obtained. COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:降低塑料初级涂覆光纤(POF)中的包层的折射率,而不依赖于材料。 解决方案:形成具有大量细孔33的外管12。 将芯聚合物放入外管12中,通过旋转聚合构成芯材30,制备由外管12和芯材30构成的预制件21.通过加热和拉伸预成型件21获得POF。 外管12的大量细孔33通过加热和拉伸分散,使得在POF的包层中形成多个微孔。 微孔尺寸设定为1-1000μm,其数量为1-70体积%。 通过这些微孔,包层的折射率降低。 即使使用与外芯材料相同的材料作为包层,也可以获得折射率比外芯低的包层,从而扩大了包层的基材的选择性。 因此,可以获得具有优异亲和力,高NA和高透射率的POF。 版权所有(C)2006,JPO&NCIPI
    • 3. 发明专利
    • Optical fiber cord
    • 光纤线
    • JP2006154448A
    • 2006-06-15
    • JP2004346517
    • 2004-11-30
    • Fuji Photo Film Co Ltd富士写真フイルム株式会社
    • TAKAHASHI SATOSHIKOSUGI TAKUJINAKAMURA YOSHISADA
    • G02B6/44
    • PROBLEM TO BE SOLVED: To provide an optical fiber cord capable of preventing force from applying onto optical fibers.
      SOLUTION: The optical fiber cord 2 has two lines of optical fibers 8 and a high-tension wire 19 which is arranged between these optical fibers 8. The optical fiber 8 is covered with a first covering part 20 by being closely adhered to it. A second covering part 21 consists of optical fiber parts 21a each of which covers the optical fiber 8 and the first covering part 20 and a connecting part 21b which covers the high-tension wire 19. The thickness D4 of the connecting part 21b is made thicker than the thickness D3 of the optical fiber part 21a. When the optical fiber cord 2 is passed through the inside of piping, force is applied to the connecting part 21b and large force is not applied to the optical fiber parts 21a. Thus, the optical fibers 8 are never deformed, and the lowering of communication characteristics can be prevented.
      COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供能够防止施加到光纤上的力的光纤线。 解决方案:光纤线2具有两条光纤8线和布置在这些光纤8之间的高压线19.光纤8被第一覆盖部分20覆盖,通过紧密粘附到 它。 第二覆盖部21由覆盖光纤8和第一覆盖部20的光纤部21a和覆盖高压线19的连接部21b构成。连接部21b的厚度D4变厚 比光纤部21a的厚度D3大。 当光纤线2穿过管道内部时,对连接部分21b施加力,并且对光纤部件21a不施加大的力。 因此,光纤8不变形,能够防止通信特性的降低。 版权所有(C)2006,JPO&NCIPI
    • 4. 发明专利
    • Method of coating plastic optical fiber
    • 涂料塑料光纤的方法
    • JP2006058775A
    • 2006-03-02
    • JP2004242617
    • 2004-08-23
    • Fuji Photo Film Co Ltd富士写真フイルム株式会社
    • MIYASAKA SATOSHIKIKAZAWA TADAHIRONAKAMURA YOSHISADASATO TAKANORI
    • G02B6/44
    • PROBLEM TO BE SOLVED: To obtain a coated plastic optical fiber having an excellent dispersion characteristic of an additive and a protective layer of a constant thickness by forming a colored protective layer on a plastic optical fiber (POF). SOLUTION: The POF 14 is coated with a metallic die having a die 120 and nipple 121 and the coated optical fiber is obtained. Low density polyethylene (LDPE) 129 of which the MFR (M1) is 40 and the melting point (Ta) is 120 °C and a master batch 130 containing 10 wt% carbon black in LDPE are mixed at the rate 99:1 (weight ratio) to obtain a coating material 131. The protective layer is formed by coating with the coating material 131 on the POF 14 with an extruder 126. Thus, the protective layer 132 having the excellent dispersion characteristic of the additive and the protective layer 132 of a constant thickness Tc is formed. COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:通过在塑料光纤(POF)上形成着色保护层,获得具有优异的添加剂分散特性的涂布塑料光纤和具有恒定厚度的保护层。 解决方案:POF 14涂覆有具有模具120和接头121的金属模具,并且获得涂覆的光纤。 将MFR(M1)为40,熔点(Ta)为120℃的低密度聚乙烯(LDPE)129和LDPE中含有10重量%炭黑的母料130以99:1(重量)的比例混合 比例)以获得涂层材料131.通过用挤出机126在POF 14上涂覆涂层材料131形成保护层。因此,具有优异的添加剂分散特性的保护层132和保护层132的保护层132 形成恒定厚度Tc。 版权所有(C)2006,JPO&NCIPI
    • 5. 发明专利
    • Optical fiber cable and its manufacturing method
    • 光纤电缆及其制造方法
    • JP2006058774A
    • 2006-03-02
    • JP2004242615
    • 2004-08-23
    • Fuji Photo Film Co Ltd富士写真フイルム株式会社
    • MIZUSHIMA YASUYUKINAKAMURA YOSHISADATAKEMASA KATSUYA
    • G02B6/00G02B6/44
    • PROBLEM TO BE SOLVED: To obtain a plastic optical fiber cable with which thermal contraction is suppressed. SOLUTION: A preform is obtained by forming a core part having a GI type refractive index profile in a hollow cylindrical clad pipe. A GI type POF can be obtained by heating/fusion-drawing the preform. A GI type core wire 16 is obtained by covering the outer circumferential face of the GI type POF with polyethylene to form a protective layer 123. The GI type core wire 16 is arranged with a large number of aramid fibers on the outer circumference and covered with polyvinyl chloride to form the outermost layer 125, so that the plastic optical fiber cable 20 is obtained. The aramid fibers become a loose-type coating buffer layer 124, relaxing a stress imparted radially to the optical fiber cable 20. The optical fiber cable 20 is annealed at 60°C for 17 hours. Since the polymer of the outermost layer 124 is reoriented, longitudinal contraction is suppressed in the optical fiber cable 20 even when heat is applied thereto. COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:获得抑制热收缩的塑料光缆。 解决方案:通过在中空圆柱形包覆管中形成具有GI型折射率分布的芯部来获得预制件。 可以通过加热/熔融预成型件获得GI型POF。 通过用聚乙烯覆盖GI型POF的外周面,形成GI型芯线16,形成保护层123.GI型芯线16在外周配置有大量芳族聚酰胺纤维,并被覆盖 聚氯乙烯以形成最外层125,从而获得塑料光缆20。 芳族聚酰胺纤维变成松散型涂层缓冲层124,缓解径向施加到光缆20的应力。光缆20在60℃下退火17小时。 由于最外层124的聚合物重新取向,所以即使在加热时也抑制了光纤20的纵向收缩。 版权所有(C)2006,JPO&NCIPI
    • 6. 发明专利
    • Method for manufacturing plastic optical fiber
    • 制造塑料光纤的方法
    • JP2005326501A
    • 2005-11-24
    • JP2004142708
    • 2004-05-12
    • Fuji Photo Film Co LtdSekisui Chem Co Ltd富士写真フイルム株式会社積水化学工業株式会社
    • SEN HIROYOSHIIKEMOTO YOICHINAKAMURA YOSHISADAMIZUSHIMA YASUYUKIOGURA TORUMIYASAKA SATOSHI
    • G02B6/44
    • PROBLEM TO BE SOLVED: To obtain a plastic optical fiber by coating an optical fiber with a resin, without giving thermal damages to the optical fiber.
      SOLUTION: The optical fiber (POF) 12 is conveyed to a coating apparatus 23. Polyethylene of 120°C is coated on the POF 12 so that the thickness is 225μm. The first protective layer-formed coated optical fiber 26a is conveyed to a water tank 27. Therein, the first protective layer-formed coated optical fiber 26a is cooled with cooling water of 15°C, and the polyethylene is hardened. The first protective layer-formed coated optical fiber 26a is conveyed to a second coating apparatus 29. Polyethylene of 120°C is coated on the first protective layer-formed coated optical fiber 26a so that the thickness is 225μm. The coated optical fiber 26 is conveyed to a water tank 32. Therein, the coated optical fiber 26 is cooled with cooling water of 15°C, and the polyethylene is hardened. As a result, the coated optical fiber 26 whose protective layer has a thickness of 450μm can be obtained.
      COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:通过用树脂涂布光纤来获得塑料光纤,而不会对光纤造成热损伤。 解决方案:将光纤(POF)12输送到涂布装置23.将120℃的聚乙烯涂覆在POF 12上,使得厚度为225μm。 将第一保护层形成的涂覆光纤26a输送到水箱27.其中,第一保护层形成的涂覆光纤26a用15℃的冷却水冷却,聚乙烯硬化。 将第一保护层形成的涂覆光纤26a输送到第二涂覆装置29.将120℃的聚乙烯涂覆在第一保护层形成的涂覆光纤26a上,使得厚度为225μm。 涂覆的光纤26被输送到水箱32.其中,涂覆光纤26用15℃的冷却水冷却,聚乙烯硬化。 结果,可以获得保护层的厚度为450μm的被覆光纤26。 版权所有(C)2006,JPO&NCIPI
    • 7. 发明专利
    • Electrophotographic image receiving sheet and image forming method
    • 电子图像接收片和图像形成方法
    • JP2005181883A
    • 2005-07-07
    • JP2003425615
    • 2003-12-22
    • Fuji Photo Film Co Ltd富士写真フイルム株式会社
    • NAKAMURA YOSHISADATANI YOSHIO
    • G03G7/00
    • PROBLEM TO BE SOLVED: To provide a high quality electrophotographic image receiving sheet that ensures both satisfactory toner fixability and excellent adhesion resistance, and to provide an image forming method using the electrophotographic image receiving sheet. SOLUTION: In the electrophotographic image receiving sheet comprising a support and a toner image receiving layer formed on at least one face of the support, the toner image receiving layer contains a mixture of a linear non-crystalline polymer and a linear crystalline polymer. The glass transition temperature (Tg1) of the linear non-crystalline polymer and the melting point (Tm) of the linear crystalline polymer satisfy a relation expressed by a formula of (Tg1-20°C)≤Tm≤(Tg1+20°C), and Tg1 is in a range of 40 to 120°C. In addition, it is preferable that the melting point (Tm) of the crystalline polymer and the glass transition temperature (Tg2) of the binder resin of toner received on the toner image receiving layer satisfy a relation of (Tg2-30°C)≤Tm≤(Tg2+30°C). COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:提供一种高质量的电子照相图像接收片材,其确保了令人满意的调色剂定影性和优异的粘合性,并且提供了使用电子照相图像接收片材的图像形成方法。 解决方案:在包含支撑体和形成在支撑体的至少一个面上的调色剂图像接收层的电子照相图像接收片中,调色剂图像接收层包含线性非晶聚合物和线性结晶聚合物的混合物 。 线性非晶聚合物的玻璃化转变温度(Tg1)和线状结晶聚合物的熔点(Tm)满足由(Tg1-20℃)≤Tm≤(Tg1 + 20℃) ),Tg1为40〜120℃的范围。 此外,优选结晶性聚合物的熔点(Tm)和接受在调色剂图像接收层上的调色剂的粘合剂树脂的玻璃化转变温度(Tg2)满足(Tg2-30℃)≤ Tm≤(TG2 + 30℃)。 版权所有(C)2005,JPO&NCIPI
    • 8. 发明专利
    • Picture forming method and electrophotographic print
    • 图像形成方法和电子印刷打印
    • JP2005024837A
    • 2005-01-27
    • JP2003189566
    • 2003-07-01
    • Fuji Photo Film Co Ltd富士写真フイルム株式会社
    • NAKAMURA YOSHISADAMURAI ASAMURATA MASATAKA
    • G03G15/36G03G7/00G03G15/20
    • G03G15/2064
    • PROBLEM TO BE SOLVED: To provide a picture forming method capable of producing a frame-less electrophographic print in which there is no perturbation of a picture of its periphery efficiently without producing contamination of an apparatus and a picture receiving sheet, etc., and an electrophotographic print. SOLUTION: This method is a picture forming method which is characterized by including a picture forming process which forms a toner picture by transferring toner to a picture receiving sheet for electrophotography which has a substrate and a toner picture receiving layer containing thermoplastic resin at least on one surface of the substrate and also forms a toner transfer margin part where toner is not transferred in the peripheral part of the picture receiving sheet for electrophotography so that the width of the margin part becomes 1.2 to 13mm. An aspect in which the width of the toner transfer margin part is 2 to 12mm , an aspect in which tonner transfer margin part width is uniform in either places of a width direction and a length direction, an aspect in which the width of the margin part is different in the width direction of the sheet and in the length direction of the sheet, etc., are desirable. COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:提供一种能够产生无帧影像印刷的图像形成方法,其中不会有效地对其周边的图像进行扰动,而不会导致设备和图像接收片材等的污染。 ,和电子照相印刷品。 解决方案:该方法是一种图像形成方法,其特征在于包括通过将调色剂转印到用于电子照相的图像接收片材上形成调色剂图像的图像形成处理,所述图像接收片材具有基底和含有热塑性树脂的调色剂图像接收层 至少在基板的一个表面上,并且还形成调色剂转移边缘部分,其中调色剂不在用于电子照相的图像接收片的周边部分中转印,使得边缘部分的宽度变为1.2至13mm。 在调色剂传送边缘部分的宽度为2至12mm的方面,在宽度方向和长度方向的任一位置中,转印余量部分宽度均匀的方面,其中,边缘部分的宽度 在片材的宽度方向和片材的长度方向等上是不同的。 版权所有(C)2005,JPO&NCIPI
    • 10. 发明专利
    • Electrophotographic image receiving sheet and image forming method
    • JP2004325651A
    • 2004-11-18
    • JP2003118529
    • 2003-04-23
    • Fuji Photo Film Co Ltd富士写真フイルム株式会社
    • MURATA MASATAKANAKAMURA YOSHISADA
    • G03G15/20G03G7/00
    • PROBLEM TO BE SOLVED: To provide electrophotographic image receiving sheets capable of reducing the generation of image defects (adhesion of paper powder and pressed traces) and having fine glossiness by suitably controlling the quantity of paper powder generated at the time of cutting and to provide an image forming method capable of extending the life of fixing members. SOLUTION: In the electrophotographic image receiving sheet, the total amount of at least either one of paper powder whose volume in an electrophotographic image receiving sheet piece obtained by cutting out the electrophotographic image receiving sheet by a prescribed size is ≥100 μm 3 and paper powder whose maximum length is ≥10 μm is ≤100 paper powder particulates per 1m peripheral length of the electrophotographic image receiving sheet piece and the total mass of at least either one of paper powder whose volume in an electrophotographic image receiving sheet piece obtained by cutting out the electrophotographic image receiving sheet by a prescribed size is ≥100 μm 3 and paper powder whose maximum length is ≥10 μm is ≤1mg per 1m peripheral length of the electrophotographic image receiving sheet piece. The electrophotographic image receiving sheets are used for the image forming method. Consequently electrophotographic image receiving sheets having high quality and fine glossiness and capable of reducing image defects by suitably controlling the quantity of paper power generated at the time of cutting the electrophotographic image receiving sheet and the image forming method capable of extending the life of fixing members (heating/pressurizing rollers and a heat fixing belt) using the electrophotographic image receiving sheets can be provided. COPYRIGHT: (C)2005,JPO&NCIPI