mhurhangee/ep-ind-claims huggingface dataset:
An article comprising: (a) a transfer carrier including a support layer and a thermoplastic release layer bonded thereto, (b) a first binder layer selected from at least one of linear resins and resins having low cross link densities wherein a molecular weight per crosslink point is greater than 2,800 g/mol; wherein the linear resins are selected from at least one of the following linear materials: polyurethanes, polyureas, polyurethane ureas, polyesters, polycarbonate, ABS, polyolefins, acrylic and methacrylic acid ester polymers and copolymers, polyvinyl chloride polymers and copolymers, polyvinyl acetate polymers and copolymers, polyamide polymers and copolymers, fluorine containing polymers and copolymers, silicones, silicone containing copolymers, thermoplastic elastomers, such as neoprene, acrylonitrile butadiene copolymers, and combinations thereof, and wherein the first binder layer has a first maj or surface opposite a second major surface; and (c) a plurality of transparent microspheres partially embedded in the first major surface of the first binder layer; and optionally (d) a second layer disposed along the second major surface of the first binder layer, wherein the second layer is amorphous polyester; wherein the microspheres are partially embedded in the thermoplastic release layer and the opposite sides of the microspheres are embedded in the first binder layer. (a) a transfer carrier including a support layer and a thermoplastic release layer bonded thereto, (b) a first binder layer selected from at least one of linear resins and resins having low cross link densities wherein a molecular weight per crosslink point is greater than 2,800 g/mol; wherein the linear resins are selected from at least one of the following linear materials: polyurethanes, polyureas, polyurethane ureas, polyesters, polycarbonate, ABS, polyolefins, acrylic and methacrylic acid ester polymers and copolymers, polyvinyl chloride polymers and copolymers, polyvinyl acetate polymers and copolymers, polyamide polymers and copolymers, fluorine containing polymers and copolymers, silicones, silicone containing copolymers, thermoplastic elastomers, such as neoprene, acrylonitrile butadiene copolymers, and combinations thereof, and wherein the first binder layer has a first maj or surface opposite a second major surface; and (c) a plurality of transparent microspheres partially embedded in the first major surface of the first binder layer; and optionally (d) a second layer disposed along the second major surface of the first binder layer, wherein the second layer is amorphous polyester;
An isolated monoclonal antibody which binds to the protein PBP2a, characterised in that it comprises, in the variable region of the light chain, a region CDR1 consisting of sequence SEQ ID NO:6, a region CDR2 consisting of sequence SEQ ID NO:7 and a region CDR3 consisting of sequence SEQ ID NO:8 and, in the variable region of the heavy chain, a region CDR1 consisting of sequence SEQ ID NO:12, a region CDR2 consisting of sequence SEQ ID NO:13 and a region CDR3 consisting of sequence SEQ ID NO:14.
A sheet-like member holding device of a printing press comprising: a gripper receiving portion disposed in a gap formed in an outer surface of a cylinder, and configured to grip a sheet as a printing product together with a gripper; a first holding unit disposed between the gripper receiving portion and a side wall extending in a radial direction of the cylinder on an upstream side in a sheet convey direction in the gap, and configured to hold one end portion of a sheet-like member overlaid on the outer surface of the cylinder; and a second holding unit configured to hold the other end portion of the sheet-like member, characterized in that the sheet-like member includes, in the one end portion held by the first holding unit, a locking piece formed to have a thickness larger than that of a remaining portion, the first holding unit includes a space in which the one end portion of the sheet-like member is inserted while the sheet-like member extends inward in the radial direction of the cylinder from an outer surface side of the cylinder, and an abutment wall opposing the locking piece of the one end portion inserted in the space from the outside in the radial direction of the cylinder, and configured to restrict movement of the locking piece to the outside in the radial direction, and an end portion of the space in an axial direction of the cylinder is open to the outside by communicating with a release portion formed in an end portion of the cylinder in the axial direction and opening in the axial direction. a gripper receiving portion disposed in a gap formed in an outer surface of a cylinder, and configured to grip a sheet as a printing product together with a gripper; a first holding unit disposed between the gripper receiving portion and a side wall extending in a radial direction of the cylinder on an upstream side in a sheet convey direction in the gap, and configured to hold one end portion of a sheet-like member overlaid on the outer surface of the cylinder; and a second holding unit configured to hold the other end portion of the sheet-like member, characterized in that the sheet-like member includes, in the one end portion held by the first holding unit, a locking piece formed to have a thickness larger than that of a remaining portion, the first holding unit includes a space in which the one end portion of the sheet-like member is inserted while the sheet-like member extends inward in the radial direction of the cylinder from an outer surface side of the cylinder, and an abutment wall opposing the locking piece of the one end portion inserted in the space from the outside in the radial direction of the cylinder, and configured to restrict movement of the locking piece to the outside in the radial direction, and an end portion of the space in an axial direction of the cylinder is open to the outside by communicating with a release portion formed in an end portion of the cylinder in the axial direction and opening in the axial direction.
Sliding guide shoe for guiding an elevator car in an elevator hoistway essentially vertically by at least one guide rail, which sliding guide shoe comprises at least a frame part and a sliding part disposed to be supported by the frame part, wherein for insulating the elevator car from the guide rail the frame part is insulated with an elastic insulating part in the sliding guide shoe, characterized in that side walls of the elastic insulating part comprise a plurality of compression protrusions (3k, 31, 3d, 3n, 3p), which rest on inner walls of the frame part, and in that between the aforementioned compression protrusions are recesses (3j, 3o), and in that at the point of the aforementioned recesses is an air pocket between the frame part and the insulating part, at the point of which air pocket the insulating part is not in contact with the frame part.
An accessory for fitting to a portable object, wherein the accessory has: a radio signal transmission device for transmitting at least one radio signal for operating a motor vehicle, especially for opening, closing and/or starting, at least one base body, a storage means for storing the radio signal to be transmitted, and an antenna arrangement for transmitting and/or receiving radio signals, wherein the storage means and the antenna arrangement are integrated in the base body, and wherein the antenna arrangement is formed such that it can send and/or receive a radio signal to the motor vehicle in all spatial directions, wherein the accessory is designed as a case or housing, especially for a mobile telephone or a clock, wherein the antenna arrangement has a first antenna, especially for frequencies in the kilohertz range, with at least three antenna elements (30, 32, 24), wherein each of the antenna elements (30, 32, 34) is provided for one of the spatial directions, wherein all the antenna elements (30, 32, 34) are integrated in a single peripheral side (30, 32, 42) of the case or the housing, or wherein one of the antenna elements is integrated in circumambient manner in the case or the housing and the other antenna elements (32, 34) are integrated in one of the peripheral sides (36, 38, 42) of the case or of the housing or in each case one of the other two antenna elements (32, 34) is integrated in two peripheral sides (36, 38, 42) of the case or the housing which are perpendicularto each other. a radio signal transmission device for transmitting at least one radio signal for operating a motor vehicle, especially for opening, closing and/or starting, at least one base body, a storage means for storing the radio signal to be transmitted, and an antenna arrangement for transmitting and/or receiving radio signals, wherein the storage means and the antenna arrangement are integrated in the base body, and wherein the antenna arrangement is formed such that it can send and/or receive a radio signal to the motor vehicle in all spatial directions, wherein the accessory is designed as a case or housing, especially for a mobile telephone or a clock, wherein the antenna arrangement has a first antenna, especially for frequencies in the kilohertz range, with at least three antenna elements (30, 32, 24), wherein each of the antenna elements (30, 32, 34) is provided for one of the spatial directions, wherein all the antenna elements (30, 32, 34) are integrated in a single peripheral side (30, 32, 42) of the case or the housing, or wherein one of the antenna elements is integrated in circumambient manner in the case or the housing and the other antenna elements (32, 34) are integrated in one of the peripheral sides (36, 38, 42) of the case or of the housing or in each case one of the other two antenna elements (32, 34) is integrated in two peripheral sides (36, 38, 42) of the case or the housing which are perpendicularto each other.
Method for producing an electrical circuit module, wherein the method comprises the following steps: providing a circuit carrier having at least one antenna element (104; 306), arranged on a first main side of the circuit carrier, for emitting electromagnetic radiation and at least one electrical contact, arranged on a second main side of the circuit carrier; providing an electronic circuit, produced using embedded wafer level ball grid array technology, in the form of an electronic high-frequency circuit, produced using embedded wafer level ball grid array technology; and arranging the electronic circuit by way of a contact-making side of the electronic circuit on the second main side of the circuit carrier in order to electrically conductively contact-connect the contact-making side to the electrical contact, characterized in that, in the step of providing a circuit carrier, the circuit carrier is provided with at least one first circuit carrier layer and a second circuit carrier layer laminated to the first circuit carrier layer, wherein the first circuit carrier layer comprises the first main side of the circuit carrier and the second circuit carrier layer comprises the second main side of the circuit carrier, wherein, in the step of providing a circuit carrier, the first circuit carrier layer and the second circuit carrier layer are provided designed as a film having a thickness in the range between 25 μm and 150 μm. providing a circuit carrier having at least one antenna element (104; 306), arranged on a first main side of the circuit carrier, for emitting electromagnetic radiation and at least one electrical contact, arranged on a second main side of the circuit carrier; providing an electronic circuit, produced using embedded wafer level ball grid array technology, in the form of an electronic high-frequency circuit, produced using embedded wafer level ball grid array technology; and arranging the electronic circuit by way of a contact-making side of the electronic circuit on the second main side of the circuit carrier in order to electrically conductively contact-connect the contact-making side to the electrical contact, characterized in that, in the step of providing a circuit carrier, the circuit carrier is provided with at least one first circuit carrier layer and a second circuit carrier layer laminated to the first circuit carrier layer, wherein the first circuit carrier layer comprises the first main side of the circuit carrier and the second circuit carrier layer comprises the second main side of the circuit carrier, wherein, in the step of providing a circuit carrier, the first circuit carrier layer and the second circuit carrier layer are provided designed as a film having a thickness in the range between 25 μm and 150 μm.
An evaluation device for an oxide semiconductor thin film, comprising: a first excitation light irradiation unit configured to irradiate a first measurement region of a sample wherein an oxide semiconductor thin film is formed with first excitation light and to generate an electron-hole pair in the oxide semiconductor thin film; an electromagnetic wave irradiation unit configured to irradiate the first measurement region of the sample with electromagnetic wave; a reflecting electromagnetic wave intensity detection unit configured to detect intensity of the electromagnetic wave being reflected from the sample and being varied by way of the irradiation with the first excitation light; a second excitation light irradiation unit configured to irradiate a second measurement region of the sample with second excitation light and to generate photoluminescence light in the oxide semiconductor thin film; and an emission intensity measurement unit configured to measure emission intensity of the photoluminescence light; and an evaluation unit configured to evaluate carrier mobility and electrical stress stability of the sample according to data detected by the reflecting electromagnetic wave intensity detection unit and data measured by the emission intensity measurement unit, respectively, wherein the first excitation light irradiation unit and the second excitation light irradiation unit are the same or different excitation light radiation units. a first excitation light irradiation unit configured to irradiate a first measurement region of a sample wherein an oxide semiconductor thin film is formed with first excitation light and to generate an electron-hole pair in the oxide semiconductor thin film; an electromagnetic wave irradiation unit configured to irradiate the first measurement region of the sample with electromagnetic wave; a reflecting electromagnetic wave intensity detection unit configured to detect intensity of the electromagnetic wave being reflected from the sample and being varied by way of the irradiation with the first excitation light; a second excitation light irradiation unit configured to irradiate a second measurement region of the sample with second excitation light and to generate photoluminescence light in the oxide semiconductor thin film; and an emission intensity measurement unit configured to measure emission intensity of the photoluminescence light; and an evaluation unit configured to evaluate carrier mobility and electrical stress stability of the sample according to data detected by the reflecting electromagnetic wave intensity detection unit and data measured by the emission intensity measurement unit, respectively, wherein the first excitation light irradiation unit and the second excitation light irradiation unit are the same or different excitation light radiation units.
A method for determining the density of insulation in a wall cavity, the method comprising: placing a probe into contact with the insulation such that at least an end of the probe is surrounded by the insulation; causing, via a first actuator, the probe to oscillate within a first plane while in contact with the insulation; sensing via a first sensor, oscillation of the probe within the first plane; causing via a second actuator, the probe to oscillate within a second plane that is perpendicular to the first plane; sensing via a second sensor, oscillation of the probe within the second plane; generating, via the first sensor, a signal that represents the displacement and/or velocity of the probe within the second plane with respect to time; and using the generated signal to determine the density of insulation. placing a probe into contact with the insulation such that at least an end of the probe is surrounded by the insulation; causing, via a first actuator, the probe to oscillate within a first plane while in contact with the insulation; sensing via a first sensor, oscillation of the probe within the first plane; causing via a second actuator, the probe to oscillate within a second plane that is perpendicular to the first plane; sensing via a second sensor, oscillation of the probe within the second plane; generating, via the first sensor, a signal that represents the displacement and/or velocity of the probe within the second plane with respect to time; and using the generated signal to determine the density of insulation.
A three-dimensional printing apparatus that receives or generates three-dimensional data representing a shape of a three-dimensional object to be formed, and generates cross-sectional image data from the three-dimensional data so as to form the three-dimensional object in accordance with the generated cross-sectional image data, the cross-sectional image data representing cross sections obtained by dividing the three-dimensional object, which is to be formed, into a plurality of layers continuous in a predetermined direction, the apparatus comprising: a display configured or programmed to present images; a layer image data generator configured or programmed to add thickness information, which is a predetermined interval corresponding to a layer pitch at which the three-dimensional object is to be actually formed, to the cross-sectional image data of each of the layers, thus generating layer image data three-dimensionally representing each of the layers to be actually formed on a one-by-one basis; a layer image data output configured or programmed to output the layer image data generated by the layer image data generator; and a display controller configured or programmed to cause the display to present a first image upon actual formation of a predetermined layer of the three-dimensional object in accordance with the cross-sectional image data of the predetermined layer, the first image being based on the layer image data of the predetermined layer to be actually formed on a one-by-one basis, which is output from the layer image data output. a display configured or programmed to present images; a layer image data generator configured or programmed to add thickness information, which is a predetermined interval corresponding to a layer pitch at which the three-dimensional object is to be actually formed, to the cross-sectional image data of each of the layers, thus generating layer image data three-dimensionally representing each of the layers to be actually formed on a one-by-one basis; a layer image data output configured or programmed to output the layer image data generated by the layer image data generator; and a display controller configured or programmed to cause the display to present a first image upon actual formation of a predetermined layer of the three-dimensional object in accordance with the cross-sectional image data of the predetermined layer, the first image being based on the layer image data of the predetermined layer to be actually formed on a one-by-one basis, which is output from the layer image data output.
A method for producing a conductive liquid electrophotographic ink composition, the method comprising: heating a polymer resin in a carrier fluid to dissolve the polymer resin; adding conductive metallic pigment particles to be coated to the carrier fluid; cooling the carrier fluid to effect precipitation of the polymer resin from the carrier fluid such that a coating of the resin is at least partially formed on the conductive metallic pigment particles; reheating the suspension of partially coated conductive metallic pigment particles in the carrier fluid; and cooling the carrier fluid at a controlled rate of no more than 5 °C/hour to effect precipitation of the polymer resin from the carrier fluid such that a coating of the resin is formed on the conductive metallic pigment particles, thereby producing the conductive liquid electrophotographic ink composition. heating a polymer resin in a carrier fluid to dissolve the polymer resin; adding conductive metallic pigment particles to be coated to the carrier fluid; cooling the carrier fluid to effect precipitation of the polymer resin from the carrier fluid such that a coating of the resin is at least partially formed on the conductive metallic pigment particles; reheating the suspension of partially coated conductive metallic pigment particles in the carrier fluid; and cooling the carrier fluid at a controlled rate of no more than 5 °C/hour to effect precipitation of the polymer resin from the carrier fluid such that a coating of the resin is formed on the conductive metallic pigment particles, thereby producing the conductive liquid electrophotographic ink composition.
Heat-insulated pipe comprising an internal working pipe arranged in an external hydroprotective pipe casing forming a "pipe in pipe" construction, a heat insulation layer filling an inter-pipe space between said pipes, and also end plugs, each of which is formed with an axial opening to receive the working pipe and is arranged on the working pipe providing thereby hermetically sealing, wherein openings (5, 7, 8), which are used in the manufacturing of the heat-insulated pipe, are provided in each end plug, at least one of which being provided for pouring a foaming heat insulation composition, and at least one other opening for communication of the inter-pipe space with the heat insulation layer with the external environment, wherein the end plugs are nondetachably and hermetically connected to the external hydroprotective pipe casing of the "pipe in pipe" construction, wherein in each end plug are formed at least one opening which is provided to guide out elements of a system for monitoring the state of the heat insulation layer, the heat-insulated pipe being characterized in that additionally at least one opening for communication with the external environment of the inter-pipe space filled with the heat insulation layer is covered with a perforated section, wherein all openings in the end plugs are formed so that they can be closed by stoppers.