摘要:
An RFID tag information communicating apparatus includes a feeding roller driving shaft that is provided within a housing constituting a shell of an apparatus main body and feeds a base tape, and an antenna for label production and an antenna for information transmission and reception, which are capable of transmitting and receiving information with an RFID circuit element for label production included in a base tape and an RFID circuit element for information transmission and reception located outside the housing. Each of the RFID circuit elements has an IC circuit part that stores information and an antenna that transmits and receives information. The apparatus is configured capable of performing both of the information reading and information writing with the RFID circuit element for label production and the RFID circuit element for information transmission and reception via the antennas.
摘要:
An RFID tag information communicating apparatus includes a feeding roller driving shaft that is provided within a housing constituting a shell of an apparatus main body and feeds a base tape, and an antenna for label production and an antenna for information transmission and reception, which are capable of transmitting and receiving information with an RFID circuit element for label production included in a base tape and an RFID circuit element for information transmission and reception located outside the housing. Each of the RFID circuit elements has an IC circuit part that stores information and an antenna that transmits and receives information. The apparatus is configured capable of performing both of the information reading and information writing with the RFID circuit element for label production and the RFID circuit element for information transmission and reception via the antennas.
摘要:
This disclosure discloses an apparatus capable of producing RFID labels comprising: a feeding device configured to feed a tag medium; a printing device configured to make a desired print on the tag medium or on a print-receiving medium; a tag accessing device configured to make an access to a RFID circuit element; and a region generation instruction portion configured to output a generation instruction signal for generating one storage region for the tag identification information corresponding to the remaining RFID labels, in association with the storage region for the tag identification information corresponding to the one RFID label.
摘要:
A steel material containing 0.01% to 0.07% C, 0.40% or less Si, 0.5% to 1.4% Mn, 0.1% or less Al, 0.01% to 0.15% Nb, 0.1% or less V, 0.03% or less Ti, and 0.008% or less N on a mass basis, Nb, V, and Ti satisfying Nb+V+Ti
摘要翻译:含有0.01%〜0.07%C,0.40%以下的Si,0.5%〜1.4%的Mn,0.1%以下的Al,0.01%〜0.15%的Nb,0.1%以下的V,0.03%以下的Ti,以及 0.008%以下的N,满足Nb + V + Ti <0.15(满足0.12以下的Cm)的Nb,V和Ti被加热至1,100℃至1250℃的加热温度, 以930℃以下的温度的累积压下率为40〜85%,成品轧制温度为760℃〜870℃的方式轧制,冷却至500℃的冷却停止温度 ℃以上,平均冷却速度为30℃/秒〜200℃/平方厘米的中心温度,冷却停止后自然冷却10多秒, 并在400℃的卷取温度下卷绕至620℃
摘要:
The invention provides an optical waveguide including a resin substrate containing an inorganic filler, and at least a UV-absorbing layer, a lower cladding layer, a patterned core layer, and an upper cladding layer laminated above the resin substrate in this order, wherein the core layer has been patterned through light exposure and development, and the UV-absorbing layer has a thickness of 10 to 50 μm, and a method for producing an optical waveguide, including a step of forming a UV-absorbing layer on a resin substrate containing an inorganic filler; a step of forming a lower cladding layer on the UV-absorbing layer; a step of forming a core layer on the lower cladding layer; a step of subjecting the core layer to light exposure to thereby transfer a pattern having a given shape to the core layer; a step of developing the core layer to thereby form a core pattern; and a step of forming an upper cladding layer on the patterned core layer. According to the present invention, an optical waveguide having a high-resolution core pattern can be produced.
摘要:
The present invention provides an adhesive composition for an optical waveguide which comprises (a) an epoxy resin, (b) a curing agent and (c) a high molecular compound, in which a total light transmittance and a light transmittance in a wavelength of 700 to 1600 nm in a cured matter of the adhesive composition are 80% or more and in which a transparency is consistent with a heat resistance, an adhesive film for an optical waveguide prepared by forming the above adhesive composition into a film form, an adhesive sheet for an optical waveguide comprising the above adhesive composition and a supporting base material and an optical device produced by using them.