mhurhangee/ep-ind-claims huggingface dataset:
A vehicle body front section structure comprising: a front side member, with a crash box attached to a vehicle longitudinal direction front side; a coupling member (46, 102) with a rear portion (48R, 102R), an intermediate portion (48C,102M,) and a front portion (48F, 102F), that is interposed between and joined to the crash box and the front side member at a vehicle longitudinal direction front side, that is joined to a fender apron section at a vehicle longitudinal direction rear side, that is configured with a closed cross-section structure at a portion positioned on the vehicle width direction outside with respect to the front side member, and which front portion is angled or which front and intermediate portions are curved such that a rear side of the coupling member (46, 102) is separated further to the vehicle width direction outside of the front side member than a front side of the coupling member (46, 102); and a spacer (56, 104) that is disposed overlapping with the front side member and the coupling member (46, 102) in a vehicle vertical direction at a portion positioned between the front side member and the coupling member (46, 102) in plan view, and that is disposed, at least in part, overlapping in the vehicle width direction with said angled or curved portion of the coupling member (46, 102) configured with a closed cross-section structure as viewed from the front. a front side member, with a crash box attached to a vehicle longitudinal direction front side; a coupling member (46, 102) with a rear portion (48R, 102R), an intermediate portion (48C,102M,) and a front portion (48F, 102F), that is interposed between and joined to the crash box and the front side member at a vehicle longitudinal direction front side, that is joined to a fender apron section at a vehicle longitudinal direction rear side, that is configured with a closed cross-section structure at a portion positioned on the vehicle width direction outside with respect to the front side member, and which front portion is angled or which front and intermediate portions are curved such that a rear side of the coupling member (46, 102) is separated further to the vehicle width direction outside of the front side member than a front side of the coupling member (46, 102); and a spacer (56, 104) that is disposed overlapping with the front side member and the coupling member (46, 102) in a vehicle vertical direction at a portion positioned between the front side member and the coupling member (46, 102) in plan view, and that is disposed, at least in part, overlapping in the vehicle width direction with said angled or curved portion of the coupling member (46, 102) configured with a closed cross-section structure as viewed from the front.
Method for performance by way of electronic computing means in smart glasses, wherein the smart glasses comprise in each case at least electronic computing means, a display, a motion measurement sensor system and means for wireless communication, the method comprising: receiving the current steering angle and the current velocity of a vehicle containing the smart glasses via the means for wireless communication; determining the acceleration of the vehicle by way of the electronic computing means; determining the acceleration and speed of rotation of the smart glasses using the motion measurement sensor system; determining the relative acceleration of the smart glasses, specifically the acceleration of the smart glasses in relation to the vehicle, using the electronic computing means; recording the determined relative acceleration over a predetermined period of time; determining and classifying the line of vision of the smart glasses into two categories, specifically 1) the line of vision is directed into the surroundings of the vehicle, and 2) the line of vision is not directed into the surroundings of the vehicle, using an algorithm based on a neural network or support vector machines, by using the recorded determined relative acceleration by way of the electronic computing means; wherein the line of vision of the smart glasses is a direction that is perpendicular to the plane through the displays of the smart glasses and starts out from the support point for the glasses on the nose; and hiding displayed content on the at least one display of the smart glasses if the line of vision has been classified into category 2). receiving the current steering angle and the current velocity of a vehicle containing the smart glasses via the means for wireless communication; determining the acceleration of the vehicle by way of the electronic computing means; determining the acceleration and speed of rotation of the smart glasses using the motion measurement sensor system; determining the relative acceleration of the smart glasses, specifically the acceleration of the smart glasses in relation to the vehicle, using the electronic computing means; recording the determined relative acceleration over a predetermined period of time; determining and classifying the line of vision of the smart glasses into two categories, specifically 1) the line of vision is directed into the surroundings of the vehicle, and 2) the line of vision is not directed into the surroundings of the vehicle, using an algorithm based on a neural network or support vector machines, by using the recorded determined relative acceleration by way of the electronic computing means; wherein the line of vision of the smart glasses is a direction that is perpendicular to the plane through the displays of the smart glasses and starts out from the support point for the glasses on the nose; and hiding displayed content on the at least one display of the smart glasses if the line of vision has been classified into category 2).
An ultra-high whiteness aqueous white color paste for digital textile printing ink, comprising: 40 wt% to 70 wt% of TiO 2 powders; 1 wt% to 5 wt% of a wetting agent; 2 wt% to 12 wt% of a dispersant; and rest of water, wherein the TiO 2 powders are rutile TiO 2 powders, the wetting agent is a fatty acid derivative, and the dispersant is an acrylic acid copolymer. 40 wt% to 70 wt% of TiO 2 powders; 1 wt% to 5 wt% of a wetting agent; 2 wt% to 12 wt% of a dispersant; and rest of water, wherein the TiO 2 powders are rutile TiO 2 powders, the wetting agent is a fatty acid derivative, and the dispersant is an acrylic acid copolymer.
Filter membrane for filtering liquids which are charged with solids or contain one ore more immiscible liquids, with a multilayer structure, wherein the filter membrane is designed as hollow fiber, wherein the filter membrane features at least a first layer which features an oxide-ceramic material as main component and is designed as carrier layer, wherein the filter membrane features at least a second layer which features as main component a non-oxide ceramic material and is designed as a separation layer for filtering the medium by forming a retentate and a permeate which is directly disposed on the first layer, wherein the oxide-ceramic material is selected from the following substances: aluminum oxide (Al 2 O 3), zirconium oxide (ZrO 2), titanium oxide (TiO 2), yttrium oxide (Y 2 O 3) and/or silicon dioxide (SiO 2), characterized in that the non-oxide ceramic material is a nitrite and/or a carbide.
A method of manufacturing a color steel sheet having a polished stainless steel texture, characterized by comprising: (a) a step of forming a plating layer on a front surface of a steel sheet material; (b) a step of polishing the plating layer; (c) a step of forming a pretreatment layer on the polished plating layer; (d) a step of forming a top coating layer on the pretreatment layer; and (e) a step of forming a back coating layer on a rear surface of the steel sheet material, wherein the step of polishing the plating layer includes a first polishing step of primarily polishing the plating layer with a brush roll to form thick and short patterns in the plating layer (S20-1), and a second polishing step of secondarily polishing the plating layer with a belt to form thin and long hairlines in the plating layer (S20-2), the plating layer is polished so that roughness Ra of the plating layer becomes 0.2 to 0.6 after the first polishing step, and a ratio of the 60-degree glossiness in the hairline direction to the 60-degree glossiness in the direction perpendicular to the hairline direction is equal or larger than 2 after the second polishing step, and the top coating layer is formed by a paint composition containing 25 to 35 wt% of an A-type resin which is a high-polymer resin, 20 to 30 wt% of a B-type resin which is larger in weight-average molecular weight and higher in glass transition temperature than the A-type resin, 10 to 30 wt% of a solvent, 5 to 15 wt% of an anticorrosive paste, 1 to 10 wt% of a coloring paste, 0.5 to 2 wt% of wax and 0.5 to 1 wt% of acryl beads, on the basis of a total weight of the paint composition, wherein the A-type resin has a weight-average molecular weight of 15,000 to 20,000 and a glass transition temperature of 3 to 8°C, and the B-type resin has a weight-average molecular weight of 20,000 to 25,000 and a glass transition temperature of 60 to 70°C. (a) a step of forming a plating layer on a front surface of a steel sheet material; (b) a step of polishing the plating layer; (c) a step of forming a pretreatment layer on the polished plating layer; (d) a step of forming a top coating layer on the pretreatment layer; and (e) a step of forming a back coating layer on a rear surface of the steel sheet material,
Method for measuring a flame current in a flame in a water heating device comprising a burner and a heat exchanger electrically insulated therefrom, the method comprising the steps of: applying a potential difference between the burner and the heat exchanger; measuring a current which begins to flow as a result of the applied potential difference, and determining an excess air factor on the basis of the measured flame current, wherein the applied potential difference is an alternating potential difference, and the method further comprise the steps of: measuring the flame current in both directions; determining whether there is a flame present between the burner and the heat exchanger by establishing that the flame currents measured in both directions are not substantially the same; and closing the fuel supply to the burner if there is no flame present between the burner and the heat exchanger. applying a potential difference between the burner and the heat exchanger; measuring a current which begins to flow as a result of the applied potential difference, and determining an excess air factor on the basis of the measured flame current, wherein the applied potential difference is an alternating potential difference, and the method further comprise the steps of: measuring the flame current in both directions; determining whether there is a flame present between the burner and the heat exchanger by establishing that the flame currents measured in both directions are not substantially the same; and closing the fuel supply to the burner if there is no flame present between the burner and the heat exchanger. measuring the flame current in both directions; determining whether there is a flame present between the burner and the heat exchanger by establishing that the flame currents measured in both directions are not substantially the same; and closing the fuel supply to the burner if there is no flame present between the burner and the heat exchanger.
Adapter (10; 70; 80) for panels, in particular having two mutually opposite cover regions and a core, wherein the cover regions are mechanically more highly loadable than the core, in particular for lightweight construction panels (30; 72, 74), wherein the lightweight construction panels (30; 72, 74) have a first cover panel, a second cover panel and, arranged between the cover panels (32, 34) a core having a lower density than the cover panels (32, 34), in particular a honeycomb core, wherein the adapter (10; 70; 80) has a first end face, a second end face situated opposite the first end face, and a casing extending between the end faces (12, 14), wherein at least the first end face has a rectangular shape or a shape similar thereto, square shape or a shape similar thereto, or oval shape, wherein at least one edge portion of the casing that abuts the first end face is provided with radially outwardly directed ribs, and/or that the second end face, at least in its edge region, is provided in certain portions with projections which project perpendicularly to the end face, wherein an internal volume of the adapter that is situated between the end faces (12, 14) is designed for arranging dowels, screws, expansion dowels or fastening portions of components, characterized in that the internal volume of the adapter that is situated between the end faces (12, 14) is filled with a rib structure, and in that the rib structure in the internal volume has, at least in certain portions, a square lattice structure or a triangular lattice structure, or in that the internal volume of the adapter that is situated between the end faces (12, 14) is filled with a hollow body structure, and in that the hollow body structure in the internal volume has, at least in certain portions, tetrahedral or octahedral hollow bodies.
A motor drive apparatus, comprising: a first inverter driving a first motor; a second inverter driving a second motor; a DC power supply outputting a DC voltage; a voltage converter boosting and supplying the DC voltage from said DC power supply to said first and second inverters (14, 31), and down-converting and supplying the DC voltage from said first or second inverter (14, 31) to the side of said DC power supply; characterised in that the motor drive apparatus further comprises, a relay (SR1, SR2) connected between said DC power supply and said voltage converter; an electric load connected between said relay (SR1, SR2) and said voltage converter; and a control device cutting off said relay (SR1, SR2) and switching control of said voltage converter to voltage step-down control in response to detection of a fault in said DC power supply a first inverter driving a first motor; a second inverter driving a second motor; a DC power supply outputting a DC voltage; a voltage converter boosting and supplying the DC voltage from said DC power supply to said first and second inverters (14, 31), and down-converting and supplying the DC voltage from said first or second inverter (14, 31) to the side of said DC power supply; characterised in that the motor drive apparatus further comprises, a relay (SR1, SR2) connected between said DC power supply and said voltage converter; an electric load connected between said relay (SR1, SR2) and said voltage converter; and a control device cutting off said relay (SR1, SR2) and switching control of said voltage converter to voltage step-down control in response to detection of a fault in said DC power supply
Method for producing a mixture comprising at least one compound having at least two hydroxy and/or amino groups, wherein the method comprises the following steps: a) providing at least one biomass material, preferably husks and/or bark, in particular tree bark and/or cork, b) treating the at least one biomass material from step a) with at least one first organic solvent at elevated temperature, namely > 20°C, preferably at 30-200°C, c) separating off the solid from the mixture obtained after step b), d) treating the solid obtained after step c) with at least one second solvent under basic conditions at elevated temperature, namely > 20°C, preferably at 30-200°C, e) separating off the liquid phase from the mixture obtained after step d), f) at least partially removing the at least one second solvent from the liquid phase obtained after step e), g) reacting the mixture obtained after step f) with at least one compound having at least two hydroxy and/or amino groups. a) providing at least one biomass material, preferably husks and/or bark, in particular tree bark and/or cork, b) treating the at least one biomass material from step a) with at least one first organic solvent at elevated temperature, namely > 20°C, preferably at 30-200°C, c) separating off the solid from the mixture obtained after step b), d) treating the solid obtained after step c) with at least one second solvent under basic conditions at elevated temperature, namely > 20°C, preferably at 30-200°C, e) separating off the liquid phase from the mixture obtained after step d), f) at least partially removing the at least one second solvent from the liquid phase obtained after step e), g) reacting the mixture obtained after step f) with at least one compound having at least two hydroxy and/or amino groups.
Child car seat, comprising active protection means (141, 142) and means for triggering said active protection means, in case of need, said triggering means (31, 32) delivering a command for triggering said active protection means according to a combination of at least two signals: - at least one first signal (211, 212, 213) delivered by a piece of equipment of said seat (24, 25, 26), indicating a use of said seat in a vehicle, and - at least one second signal delivered by detection means, indicating the detection of an accident situation, characterised in that said detection means comprise mechanical means and electronic means, said mechanical means activating the electrical power supply of said electronic means, when a force of inertia greater than a first acceleration threshold, called the waking threshold, is detected, and said electronic means delivering said second signal, when they detect an acceleration force that is greater than a second threshold, greater than said first threshold and corresponding to an accident situation. - at least one first signal (211, 212, 213) delivered by a piece of equipment of said seat (24, 25, 26), indicating a use of said seat in a vehicle, and - at least one second signal delivered by detection means, indicating the detection of an accident situation,
A local network comprising a plurality of devices and connected to the Internet, the network being configured as a local IP subnet in which the devices each have a corresponding IP subnet address, one of the devices being a femtocell base station, wherein a user terminal which is connected to the femtocell base station is allocated an IP subnet address so as to be able to initiate communications with another of the devices in the local network, characterised in that the femtocell detects an Activate Packet Data Protocol Accept message in messages to the user terminal from the Internet, and amends that message by replacing the IP address with the local IP subnet address for the user terminal, and forwards the amended message to the user terminal.
Use of a polyethylene material for liquid containers that are sterilisable at a temperature of ≥ 100°C during a period of ≥ 15 minutes, wherein the polyethylene material has a density ≥ 928 and ≤ 930 kg/m 3 as determined according to ISO 1183-1, method A, and a melt mass-flow rate of ≥0.50 and ≤0.70 g/10 min as determined according to ISO 1133-1 at a temperature of 190°C and a load of 2.16 kg; wherein the polyethylene material is produced in a high-pressure free-radical polymerisation process at a pressure of ≥ 1600 bar. wherein the polyethylene material has a density ≥ 928 and ≤ 930 kg/m 3 as determined according to ISO 1183-1, method A, and a melt mass-flow rate of ≥0.50 and ≤0.70 g/10 min as determined according to ISO 1133-1 at a temperature of 190°C and a load of 2.16 kg; wherein the polyethylene material is produced in a high-pressure free-radical polymerisation process at a pressure of ≥ 1600 bar.
A chimeric construct comprising an interferon attached to an antibody that is an intact immunoglobulin that specifically binds to CD20, wherein the antibody is attached to the interferon by a proteolysis resistant peptide linker having the amino acid sequence SGGGGS (SEQ ID NO:58), and wherein the construct when contacted to a tumor cell results in the killing or inhibition of growth or proliferation of the tumor cell.
A multi-axial bone fixation device comprising: a receiver defining an axial opening along a longitudinal axis, the receiver having first and second portions (121, 123) along the longitudinal axis, the second portion being radially compressible; a bone fastener having a head, the head insertable into the axial opening in a direction from the second portion to the first portion; a hollow member received around the second portion, the hollow member compressing the second portion and retaining the head while allowing angulation of the fastener relative to the longitudinal axis and a first retention ring in a first circumferential groove of the head of the fastener, the first retention ring providing frictional resistance to rotation and maintaining a position of the fastener relative to the receiver before implantation, wherein the second portion comprises deflectable fingers including outward flanges, and the hollow member comprises a discontinuity into which discontinuity the flanges of the fingers can snap-in. a receiver defining an axial opening along a longitudinal axis, the receiver having first and second portions (121, 123) along the longitudinal axis, the second portion being radially compressible; a bone fastener having a head, the head insertable into the axial opening in a direction from the second portion to the first portion; a hollow member received around the second portion, the hollow member compressing the second portion and retaining the head while allowing angulation of the fastener relative to the longitudinal axis and a first retention ring in a first circumferential groove of the head of the fastener, the first retention ring providing frictional resistance to rotation and maintaining a position of the fastener relative to the receiver before implantation, wherein the second portion comprises deflectable fingers including outward flanges, and the hollow member comprises a discontinuity into which discontinuity the flanges of the fingers can snap-in.
Method for variably adjusting the dewatering capacity of a pressing device for a machine for producing a fibrous web, such as a paper, tissue or board web, wherein the dewatering capacity of the pressing device is variably adjusted by varying the available dewatering volume of the pressing device.
A communication method executed by a user equipment of a carrier aggregation system, the method comprising: receiving information regarding at least one assigned component carrier among a plurality of component carriers from a base station; receiving activation control information regarding a component carrier that is configured to be activated among the at least one assigned component carrier through a downlink control channel, and transmitting a reception acknowledgement for the activation control information through an uplink control channel, activating the component carrier which was configured to be activated, after receiving the reception acknowledgement. receiving information regarding at least one assigned component carrier among a plurality of component carriers from a base station; receiving activation control information regarding a component carrier that is configured to be activated among the at least one assigned component carrier through a downlink control channel, and transmitting a reception acknowledgement for the activation control information through an uplink control channel, activating the component carrier which was configured to be activated, after receiving the reception acknowledgement.