mhurhangee/ep-ind-claims huggingface dataset:
A modelling compound comprising at least one composition, wherein said composition comprises; a) one or more copolymers of vinyl acetate and at least one other vinyl ester, or at least one homopolymer of vinyl acetate and at least one copolymer of vinyl acetate and at least one other vinyl ester; b) at least one softener; c) optionally at least one silicone oil; and d) at least one filler; wherein a) is present in an amount of 30 to 95% by weight of components a) and b) (and c) if present), and b) is present in an amount of 10 to 70% by weight of components a) and b) (and c) if present). a) one or more copolymers of vinyl acetate and at least one other vinyl ester, or at least one homopolymer of vinyl acetate and at least one copolymer of vinyl acetate and at least one other vinyl ester; b) at least one softener; c) optionally at least one silicone oil; and d) at least one filler; wherein a) is present in an amount of 30 to 95% by weight of components a) and b) (and c) if present), and b) is present in an amount of 10 to 70% by weight of components a) and b) (and c) if present).
An implantable respiratory sensor system comprising: a sensor lead having a longitudinal axis and a distal tip (214,264), the sensor lead including a lead body and a sensor portion, the sensor portion extending distally from the lead body, the sensor portion including at least a pressure transducer defining a directional sensing element proximal to the distal tip and configured to sense respiratory pressures on a single side of the sensor portion; the sensor portion including a first anchor fixed proximal to the distal tip, wherein the first anchor includes a pair of resilient wings that extend outwardly from opposite sides of the sensor portion and generally perpendicular to the sensor portion, wherein each wing has an outer tip and a base that is longitudinally wider than the outer tip, and the pair of wings is configured to prevent rotation of the directional sensing element to maintain the single side in a proper orientation relative to the tissue to be sensed. a sensor lead having a longitudinal axis and a distal tip (214,264), the sensor lead including a lead body and a sensor portion, the sensor portion extending distally from the lead body, the sensor portion including at least a pressure transducer defining a directional sensing element proximal to the distal tip and configured to sense respiratory pressures on a single side of the sensor portion; the sensor portion including a first anchor fixed proximal to the distal tip, wherein the first anchor includes a pair of resilient wings that extend outwardly from opposite sides of the sensor portion and generally perpendicular to the sensor portion, wherein each wing has an outer tip and a base that is longitudinally wider than the outer tip, and the pair of wings is configured to prevent rotation of the directional sensing element to maintain the single side in a proper orientation relative to the tissue to be sensed.
Data processing unit which comprises a first interface for exchanging first information with a plurality of motor vehicles and a second interface for exchanging second information with a plurality of charging stations for charging an energy storage device of a motor vehicle, wherein the data processing unit is configured at the receipt of first information, which concerns a charging status at a point in time of a desired charging of the energy storage device and a maximum charging performance of at least one motor vehicle, and second information, which concerns a charging performance available at a predeterminable point in time at least one charging station, to construct a strategy by which a specified charging station and a specified point in time of a charging start under consideration of at least one predeterminable parameter are allocated to a specified motor vehicle, characterised in that at least one of the predeterminable parameters is designed such that a specified motor vehicle is assigned to that charging station at which a greatest possible use of the available charging performance at the charging station takes place at the point in time of the charging start.
A direct-light type flat panel display (20; 30; 40) comprising: having a front surface facing the rear surface of the display panel (22; 32; 42); a display panel (22; 32; 42); having a rear surface; a base chassis (21; 31; 41) a backlight unit (24; 34; 44) connected to the base chassis (21; 31; 41) to emit light to the rear surface of the display panel (22; 32; 42); wherein the back light unit (24; 34; 44) includes a substrate (26; 36; 46) mounted to the front surface of the base chassis (21; 31; 41) with a plurality of light emitting diodes (LEDs) (25; 35; 45),each generating light toward the rear surface of the display panel (22; 32; 42), and a light guide plate (27; 37; 47) disposed between the display panel (22; 32; 42) and the substrate (26; 36; 46) to diffuse the light generated from the LEDs (25; 35; 45); characterised in that the light guide plate (27; 37; 47) has a plurality of light guide projections formed on a front surface of the light guide plate (27; 37; 47) at positions opposite to the plurality of LEDs and in that the direct-light type flat panel display comprises a fixing member (29; 39; 48a, 48b) formed at any one of the base chassis (21; 31; 41), the substrate (26; 36; 46), and the light guide plate (27; 37; 47) in order to connect the base chassis (21; 31; 41) with the light guide plate (27; 37; 47) in between the plurality of light guide projections. having a front surface facing the rear surface of the display panel (22; 32; 42); a display panel (22; 32; 42); having a rear surface; a base chassis (21; 31; 41) a backlight unit (24; 34; 44) connected to the base chassis (21; 31; 41) to emit light to the rear surface of the display panel (22; 32; 42); wherein the back light unit (24; 34; 44) includes a substrate (26; 36; 46) mounted to the front surface of the base chassis (21; 31; 41) with a plurality of light emitting diodes (LEDs) (25; 35; 45),each generating light toward the rear surface of the display panel (22; 32; 42), and a light guide plate (27; 37; 47) disposed between the display panel (22; 32; 42) and the substrate (26; 36; 46) to diffuse the light generated from the LEDs (25; 35; 45); characterised in that the light guide plate (27; 37; 47) has a plurality of light guide projections formed on a front surface of the light guide plate (27; 37; 47) at positions opposite to the plurality of LEDs and in that the direct-light type flat panel display comprises a fixing member (29; 39; 48a, 48b) formed at any one of the base chassis (21; 31; 41), the substrate (26; 36; 46), and the light guide plate (27; 37; 47) in order to connect the base chassis (21; 31; 41) with the light guide plate (27; 37; 47) in between the plurality of light guide projections.
A method, comprising: mixing a metal oxide precursor comprising titanium bis ammonium lactate dihydroxide (TiBALDH) with a polyvinyl alcohol dispersing agent in a solvent at a pH of neutral to 11 under mild solution to hydrothermal conditions to promote nanomaterial-dispersing agent composite formation at a size of 2-500 nm and/or a geometry of spheroid or cuboid; and calcinating the mixture at about 30-300 °C for about 1-72 hours to obtain a semi-conductive partial or fully porous nanoparticle-dispersant composite. mixing a metal oxide precursor comprising titanium bis ammonium lactate dihydroxide (TiBALDH) with a polyvinyl alcohol dispersing agent in a solvent at a pH of neutral to 11 under mild solution to hydrothermal conditions to promote nanomaterial-dispersing agent composite formation at a size of 2-500 nm and/or a geometry of spheroid or cuboid; and calcinating the mixture at about 30-300 °C for about 1-72 hours to obtain a semi-conductive partial or fully porous nanoparticle-dispersant composite.
Method for recovering energy from damp exhaust gases, in which exhaust gas having a temperature of 90-130 °C and a water dew point of 50-75 °C is first cooled to a temperature above the dew point in an indirect, first heat exchanger, and the cooled exhaust gas is then passed through a direct contact condenser, wherein the condensate that forms in the direct contact condenser is collected and heated in the first heat exchanger by the exchange of heat with the exhaust gas.
Hob (10a; 10b; 10c; 10d), in particular induction hob, with a plate unit and a lighting unit, wherein the plate unit has at least one base body (40a; 40b; 40c; 40d) and at least one coating (42a; 42b, 43b; 42c, 43c; 42d), wherein the coating (42a; 42b, 43b; 42c, 43c; 42d) is arranged in at least one subregion of at least one side of the base body (40a; 40b; 40c; 40d) and is provided to at least give off a ceramic appearance, namely in that the coating has at least one ceramic property, wherein the coating (42a; 42b, 43b; 42c, 43c; 42d) is formed of a ceramic material, an enamel or an inorganic polymer and has a recess (50a; 50b; 50c; 50d) in at least one subregion, characterised in that the recess (50a; 50b; 50c; 50d) is formed of at least one hole with a diameter of less than 1 mm, wherein the hole is free of the coating (42a; 42b, 43b; 42c, 43c; 42d) and is surrounded by the coating (42a; 42b, 43b; 42c, 43c; 42d), and wherein the lighting unit is arranged behind the coating (42a; 42b, 43b; 42c, 43c; 42d) and the recess (50a; 50b; 50c; 50d) is provided to transmit light of the lighting unit.
Dispensing device for a preferably liquid product, with a housing part, an actuating part and a switching part, wherein the housing part has two delivery channels and the switching part is rotatable by means of the actuating part for switching between the delivery channels and/or for blocking the delivery channels, wherein the actuating part engages axially in the switching part or vice versa, characterized in that the switching part has an at least substantially cylindrical outer contour, wherein the switching part is closed at the end facing toward the actuating part and comprises a possibility for engagement in order to couple the switching part in a rotationally fixed manner, and/or wherein the switching part has a circumferential seal, wherein the seal is self-sealing and formed as a flexible lip which can be spread radially outward. wherein the switching part is closed at the end facing toward the actuating part and comprises a possibility for engagement in order to couple the switching part in a rotationally fixed manner, and/or wherein the switching part has a circumferential seal, wherein the seal is self-sealing and formed as a flexible lip which can be spread radially outward.
A collation device comprising: a plurality of displays that are disposed at different heights in a vertical direction; an imaging device including a lens, an image acquisition unit arranged to read a face image printed on a passport or stored on an IC chip of a passport, a half mirror, and a housing accommodating the plurality of displays and the imaging device, wherein the half mirror is attached to a front side of the housing, and the displays are disposed with a predetermined gap inside the housing and the lens of the imaging device is disposed in the gap between the displays, characterized in that: the half mirror covers the plurality of displays and the imaging device, the collation device is arranged to collate a face image of a user captured by the imaging device and a face image in a passport acquired by the image acquisition unit, the collation device is arranged such that when one of the plurality of displays is displaying an information relating to the collation of the face images, the other display displays with low luminance or in black, the image acquisition unit is disposed at a lower position than the displays in the vertical direction, and the information relating to the collation of the face images includes an indication prompting to input the face image in the passport, and is displayed on a display disposed the lowest among the plurality of displays in the vertical direction. a plurality of displays that are disposed at different heights in a vertical direction; an imaging device including a lens, an image acquisition unit arranged to read a face image printed on a passport or stored on an IC chip of a passport, a half mirror, and a housing accommodating the plurality of displays and the imaging device, wherein the half mirror is attached to a front side of the housing, and the displays are disposed with a predetermined gap inside the housing and the lens of the imaging device is disposed in the gap between the displays, the half mirror covers the plurality of displays and the imaging device, the collation device is arranged to collate a face image of a user captured by the imaging device and a face image in a passport acquired by the image acquisition unit, the collation device is arranged such that when one of the plurality of displays is displaying an information relating to the collation of the face images, the other display displays with low luminance or in black, the image acquisition unit is disposed at a lower position than the displays in the vertical direction, and the information relating to the collation of the face images includes an indication prompting to input the face image in the passport, and is displayed on a display disposed the lowest among the plurality of displays in the vertical direction.
A wireless communication device comprising: a wireless communication unit configured to perform wireless communication using radio waves belonging to a predetermined radio wave band between a first external device and a second external device; a proximity communication unit configured to perform proximity communication with a control terminal; and a control unit, characterized in that the control unit is configured to adjust a transmission timing of the control data to a timing different from that of a predetermined wireless transmission period of image data when causing control data, which indicates an instruction for the first external device, received from the control terminal via the proximity communication unit to be transmitted to the first external device via the wireless communication unit and when causing the control data to be transmitted to the first external device while the first external device or the wireless communication unit sequentially transmits image data to the second external device, wherein the control unit is further configured to adjust the transmission timing of the control data within a blanking period of the wireless communication of the image data. a wireless communication unit configured to perform wireless communication using radio waves belonging to a predetermined radio wave band between a first external device and a second external device; a proximity communication unit configured to perform proximity communication with a control terminal; and a control unit, characterized in that the control unit is configured to adjust a transmission timing of the control data to a timing different from that of a predetermined wireless transmission period of image data when causing control data, which indicates an instruction for the first external device, received from the control terminal via the proximity communication unit to be transmitted to the first external device via the wireless communication unit and when causing the control data to be transmitted to the first external device while the first external device or the wireless communication unit sequentially transmits image data to the second external device, wherein the control unit is further configured to adjust the transmission timing of the control data within a blanking period of the wireless communication of the image data.
A vacuum interrupter for a vacuum circuit breaker installed in a vacuum circuit breaker and configured to interrupt introduction of a load current or an accident current, the vacuum interrupter comprising: an upper insulating envelope; a lower insulating envelope arranged below the upper insulating envelope; a fixed electrode portion installed to be fixed to the inside of the upper insulating envelope; an actuating electrode portion installed inside the lower insulating envelope to face the fixed electrode portion and to be in contact with or detached from the fixed electrode portion; a center shield arranged between the upper insulating envelope and the lower insulating envelope, receiving the fixed electrode portion and the actuating electrode portion, and first and second auxiliary shields (121; 123), wherein the first auxiliary shield is provided inside the upper insulating envelope and the lower insulating envelope, wherein the second auxiliary shield is formed between the upper insulating envelope and the center shield, between the lower insulating envelope and the center shield, characterized in that the second auxiliary shield is provided with a protrusion, and that the protrusion is formed to be outwardly protruded and having one end formed to be inwardly bent in a circular or curved shape. an upper insulating envelope; a lower insulating envelope arranged below the upper insulating envelope; a fixed electrode portion installed to be fixed to the inside of the upper insulating envelope; an actuating electrode portion installed inside the lower insulating envelope to face the fixed electrode portion and to be in contact with or detached from the fixed electrode portion; a center shield arranged between the upper insulating envelope and the lower insulating envelope, receiving the fixed electrode portion and the actuating electrode portion, and first and second auxiliary shields (121; 123), wherein the first auxiliary shield is provided inside the upper insulating envelope and the lower insulating envelope, wherein the second auxiliary shield is formed between the upper insulating envelope and the center shield, between the lower insulating envelope and the center shield, characterized in that the second auxiliary shield is provided with a protrusion, and that the protrusion is formed to be outwardly protruded and having one end formed to be inwardly bent in a circular or curved shape.
An antibody or antigen binding fragment thereof, which specifically binds to an epitope of ASCT2, wherein the antibody or antigen binding fragment comprises three heavy chain complementarity determining regions (HCDRs) of a heavy chain variable region and three light chain complementarity determining regions (LCDRs) of a light chain variable region, wherein the antibody or antigen-binding fragment thereof comprises: (a) an HCDR1 of the amino acid sequence of SEQ ID NO: 10; an HCDR2 of the amino acid sequence of SEQ ID NO: 11; an HCDR3 of the amino acid sequence of SEQ ID NO: 12; an LCDR1 of the amino acid sequence of SEQ ID NO: 13; an LCDR2 of the amino acid sequence of SEQ ID NO: 14; and an LCDR3 of the amino acid sequence of SEQ ID NO: 15; or (b) an HCDR1 of the amino acid sequence of SEQ ID NO: 16; an HCDR2 of the amino acid sequence of SEQ ID NO: 17; an HCDR3 of the amino acid sequence of SEQ ID NO: 18; an LCDR1 of the amino acid sequence of SEQ ID NO: 19; an LCDR2 of the amino acid sequence of SEQ ID NO: 20; and an LCDR3 of the amino acid sequence of SEQ ID NO: 21. (a) an HCDR1 of the amino acid sequence of SEQ ID NO: 10; an HCDR2 of the amino acid sequence of SEQ ID NO: 11; an HCDR3 of the amino acid sequence of SEQ ID NO: 12; an LCDR1 of the amino acid sequence of SEQ ID NO: 13; an LCDR2 of the amino acid sequence of SEQ ID NO: 14; and an LCDR3 of the amino acid sequence of SEQ ID NO: 15; or (b) an HCDR1 of the amino acid sequence of SEQ ID NO: 16; an HCDR2 of the amino acid sequence of SEQ ID NO: 17; an HCDR3 of the amino acid sequence of SEQ ID NO: 18; an LCDR1 of the amino acid sequence of SEQ ID NO: 19; an LCDR2 of the amino acid sequence of SEQ ID NO: 20; and an LCDR3 of the amino acid sequence of SEQ ID NO: 21.
Inverter or other electronically controlled power source for transforming electrical energy into electrical energy of predetermined voltage and/or current comprising: an inner housing for housing the main circuitry of the inverter, at least one heat sink for cooling power components of the main circuitry, the heat sink consisting of a base plate with one or more flat surfaces and an array of comb or fin-like protrusions; whereby the heat sink is attached to the inner housing, basically providing a space between the base plate of the heat sink and a wall of the inner housing, such that any reversely directed heat flow bach into the housing is avoided. an inner housing for housing the main circuitry of the inverter, at least one heat sink for cooling power components of the main circuitry, the heat sink consisting of a base plate with one or more flat surfaces and an array of comb or fin-like protrusions; whereby the heat sink is attached to the inner housing, basically providing a space between the base plate of the heat sink and a wall of the inner housing, such that any reversely directed heat flow bach into the housing is avoided.
A method for manufacturing a high strength hot rolled steel sheet comprising the steps of heating a semi-manufactured steel to an austenitic single phase region, performing hot rolling composed of rough rolling and finish rolling, and performing cooling and coiling after completion of the finish rolling to produce a hot rolled steel sheet, wherein the semi-manufactured steel has a composition containing C: more than 0.035% and 0.07% or less, Si: 0.3% or less, Mn: more than 0.35% and 0.5% or less, P: 0.03% or less, S: 0.03% or less, Al: 0.1% or less, N: 0.01% or less, Ti: 0.135% or more and 0.235% or less, optionally B: 0.0025% or less, optionally 1.0% or less of at least one of REM, Zr, Nb, V, As, Cu, Ni, Sn, Pb, Ta, W, Mo, Cr, Sb, Mg, Ca, Co, Se, Zn, and Cs in total, and the remainder composed of Fe and incidental impurities, on a percent by mass basis, in such a way that C, S, N, and Ti satisfy the formula described below, the finishing temperature of the finish rolling is specified to be 900°C or higher, the average cooling rate in the cooling from 900°C to 750°C is specified to be 10°C/sec. or more, and the coiling temperature in the coiling is specified to be 580°C or higher and 750°C or lower: Ti − 48 / 14 N − 48 / 32 S / 48 / C / 12 < 1.0 (C, S, N, and Ti: content of the respective elements (percent by mass)).
A drug delivery device comprising: an implantable intraluminal medical device which comprises a stent, and a therapeutic dosage of a therapeutic agent which comprises rapamycin and which is releasably affixed to the stent for the treatment of inflammation, the rapamycin being released for a sustained period of time in the range from about two to about six weeks, in which the rapamycin is provided in a basecoat provided by a vinylidene fluoride hexafluoropropylene copolymer, and the stent has a top coat which comprises poly(n-butylmethacrylate) applied over the basecoat, wherein the poly (n-butylmethacrylate) and the vinylidene fluoride hexafluoropropylene copolymer are immiscible and chemically incompatible polymers such that the basecoat and topcoat do not blend and are affixed as separate and distinct layers upon each other to create a physical and chemical barrier to the elution of the rapamycin. an implantable intraluminal medical device which comprises a stent, and a therapeutic dosage of a therapeutic agent which comprises rapamycin and which is releasably affixed to the stent for the treatment of inflammation, the rapamycin being released for a sustained period of time in the range from about two to about six weeks, in which the rapamycin is provided in a basecoat provided by a vinylidene fluoride hexafluoropropylene copolymer, and the stent has a top coat which comprises poly(n-butylmethacrylate) applied over the basecoat, wherein the poly (n-butylmethacrylate) and the vinylidene fluoride hexafluoropropylene copolymer are immiscible and chemically incompatible polymers such that the basecoat and topcoat do not blend and are affixed as separate and distinct layers upon each other to create a physical and chemical barrier to the elution of the rapamycin.