mhurhangee/ep-ind-claims huggingface dataset:
A keyboard structure comprising: a plurality of key switches which closes and forms a contact point by pressing of a key top; the key top having a sheet-shaped member that includes a protrusion protruding from an outer circumferential end of the key top and is integrally formed with a body portion of the key top, wherein the protrusion protrudes from the entire outer circumference of the key top; a frame member disposed between key switches, wherein the frame member covers a space between the protrusion of the sheet-shaped member and the protrusion of the sheet-shaped member of the key top adjacent to the key top of the corresponding sheet-shaped member; a membrane sheet having the contact point; and a sheet-shaped elastic member covering the membrane sheet, wherein an air groove (121 b) is formed in a boundary portion between the key switches in the sheet-shaped elastic member, characterized in that the keyboard structure further comprises: a link member (112, 113) disposed below the key top and supporting the key top so as to be movable vertically; and a returning member disposed below the key top and causing the pressed key top to return to an original position. a plurality of key switches which closes and forms a contact point by pressing of a key top; the key top having a sheet-shaped member that includes a protrusion protruding from an outer circumferential end of the key top and is integrally formed with a body portion of the key top, wherein the protrusion protrudes from the entire outer circumference of the key top; a frame member disposed between key switches, wherein the frame member covers a space between the protrusion of the sheet-shaped member and the protrusion of the sheet-shaped member of the key top adjacent to the key top of the corresponding sheet-shaped member; a membrane sheet having the contact point; and a sheet-shaped elastic member covering the membrane sheet, wherein an air groove (121 b) is formed in a boundary portion between the key switches in the sheet-shaped elastic member, characterized in that the keyboard structure further comprises: a link member (112, 113) disposed below the key top and supporting the key top so as to be movable vertically; and a returning member disposed below the key top and causing the pressed key top to return to an original position. a link member (112, 113) disposed below the key top and supporting the key top so as to be movable vertically; and a returning member disposed below the key top and causing the pressed key top to return to an original position.
A charge air guide element for a cylinder unit (16A-16I) of an internal combustion engine (1, 100), characterised in that the charge air guide element comprises: a mounting section comprising a through hole configured as a passage for a cylinder liner of the cylinder unit (16A-16I) of the internal combustion engine (1, 100) in a mounted state of the charge air guide element, the mounting section being configured to be mountable onto an engine block of the internal combustion engine (1, 100) and being the basis for mounting a cylinder head; and a charge air guide section defining a first passage extending from an inlet opening on a first side of the charge air guide section to a first outlet opening at a second side of the charge air guide section, and a second passage fluidly connecting a second outlet opening with the first passage and the second outlet opening is configured for providing a fluid connection from the inlet opening to a charge air inlet of the cylinder unit (16A-16I) in the mounted state, the charge air guide section being configured to be connectable with a charge air guide section of a charge air guide element associated with a neighbouring cylinder unit. a mounting section comprising a through hole configured as a passage for a cylinder liner of the cylinder unit (16A-16I) of the internal combustion engine (1, 100) in a mounted state of the charge air guide element, the mounting section being configured to be mountable onto an engine block of the internal combustion engine (1, 100) and being the basis for mounting a cylinder head; and a charge air guide section defining a first passage extending from an inlet opening on a first side of the charge air guide section to a first outlet opening at a second side of the charge air guide section, and a second passage fluidly connecting a second outlet opening with the first passage and the second outlet opening is configured for providing a fluid connection from the inlet opening to a charge air inlet of the cylinder unit (16A-16I) in the mounted state, a first passage extending from an inlet opening on a first side of the charge air guide section to a first outlet opening at a second side of the charge air guide section, and a second passage fluidly connecting a second outlet opening with the first passage and the second outlet opening is configured for providing a fluid connection from the inlet opening to a charge air inlet of the cylinder unit (16A-16I) in the mounted state, the charge air guide section being configured to be connectable with a charge air guide section of a charge air guide element associated with a neighbouring cylinder unit.
A wrap for bundling cable, comprising: a multilayer wrap that comprises: (a) an outermost layer comprising a first polymer textile; (b) an innermost layer comprising a second polymer textile; and (c) a single adhesive layer between the outermost and innermost layers, wherein the first and second textiles differ from one another, wherein the multilayer wrap comprises an abrasion resistance that exceeds an abrasion resistance of the innermost and outermost layers alone, as measured under the ISO 6722 Standard, and further wherein the multilayer wrap comprises a damping resistance of at least class B, as measured under the LV 312 Standard wherein the first polymer textile of the outermost layer is a cloth comprising polyethylene terephthalate, polyester, polyamide or a combination thereof, having a basis weight of 100 g/m 2 to 400 g/m 2 and a thickness of 150 μm to 350 μm, wherein the second polymer textile of the innermost layer is a fleece, having a basis weight of 50 g/m 2 to 250 g/m 2 and a thickness of 150 μm to 600 μm. a multilayer wrap that comprises: (a) an outermost layer comprising a first polymer textile; (b) an innermost layer comprising a second polymer textile; and (c) a single adhesive layer between the outermost and innermost layers, (a) an outermost layer comprising a first polymer textile; (b) an innermost layer comprising a second polymer textile; and (c) a single adhesive layer between the outermost and innermost layers, wherein the first and second textiles differ from one another, wherein the multilayer wrap comprises an abrasion resistance that exceeds an abrasion resistance of the innermost and outermost layers alone, as measured under the ISO 6722 Standard, and further wherein the multilayer wrap comprises a damping resistance of at least class B, as measured under the LV 312 Standard wherein the first polymer textile of the outermost layer is a cloth comprising polyethylene terephthalate, polyester, polyamide or a combination thereof, having a basis weight of 100 g/m 2 to 400 g/m 2 and a thickness of 150 μm to 350 μm, wherein the second polymer textile of the innermost layer is a fleece, having a basis weight of 50 g/m 2 to 250 g/m 2 and a thickness of 150 μm to 600 μm.
A toothbrush comprising: a body comprising a handle, a head coupled to the handle, and an internal cavity containing a pressurized oral care material; a plurality of tooth cleaning elements extending from the head; and an applicator disposed in the head and in fluid communication with the internal cavity, characterized in that the applicator comprises at least one spring-actuated valve movable from the closed non-dispensing position to an open dispensing position upon applying a pressing force against an externally exposed portion of the valve thereby directly dispensing the pressurized oral care material from the internal cavity. a body comprising a handle, a head coupled to the handle, and an internal cavity containing a pressurized oral care material; a plurality of tooth cleaning elements extending from the head; and an applicator disposed in the head and in fluid communication with the internal cavity, characterized in that the applicator comprises at least one spring-actuated valve movable from the closed non-dispensing position to an open dispensing position upon applying a pressing force against an externally exposed portion of the valve thereby directly dispensing the pressurized oral care material from the internal cavity.
An apparatus for corrosion testing at least one sample (2, 3, 4, 5) by means of a test liquid, comprising a retainer for fastening at least one sample (2, 3, 4, 5) to be tested, a storage container for the test liquid, a liquid line (12, 13, 14, 15, 19, 20, 21) connected to the storage container, and a dripping device (8, 9, 10, 11) connected to the liquid line (12, 13, 14, 15, 19, 20, 21) for emitting drops to the sample (2, 3, 4, 5), characterized in that at least two liquid lines (12, 13, 14, 15, 19, 20, 21) are separately connected to the common storage container and comprise, beneath the level of the test liquid in the storage container and connected to a common horizontal support, a respective connection for a dripping device (8, 9, 10, 11) for corrosion testing of at least two samples (2, 3, 4, 5) fastened to the retainer.
A method for the prevention of microbial growth in process water, which comprises adding aluminium ions into process water prior to or with the addition of a peracid or a mixture of peracids to maintain the concentration of aluminium ions in the process water on the level of at least 0.05 ppm thereby enhancing the biocidal performance of said peracid or a mixture of peracids in the process water, wherein the peracid is peracetic acid or performic acid, or a mixture thereof and wherein the amount of the added peracid in the process water is 0.2 ppm - 50 ppm.
Method for the production of an integrally bladed rotor, in particular a rotor of a gas turbine, comprising the following method steps: a) provision of a rotor base body having first welded contact surfaces; b) provision of blades which have a blade neck having a second welded contact surface; and c) welding of the blades to the rotor base body on the first and the second welded contact surface (30, 32) in such a way that blade necks of the rotor which are adjacent in the peripheral direction are spaced apart from one another and a free space is provided between adjacent blade necks, wherein, after the welding, in each case an insertion piece is introduced into the free space between the blade necks of adjacent blades, characterised in that several insertion pieces are connected to one another. a) provision of a rotor base body having first welded contact surfaces; b) provision of blades which have a blade neck having a second welded contact surface; and c) welding of the blades to the rotor base body on the first and the second welded contact surface (30, 32) in such a way that blade necks of the rotor which are adjacent in the peripheral direction are spaced apart from one another and a free space is provided between adjacent blade necks,
A power system (100, 101, 102, 103, 104, 105 106, 107, 108, 109) comprising: a first motor; a second motor connected in parallel to the first motor; a driver configured to supply a driving current respectively to the first motor and the second motor; and a controller configured to calculate the rotating speed of the first motor and the rotating speed of the second motor, and to control the driver based on the driving current and the rotating speed of the first motor, wherein the controller is further configured to calculate a difference between the rotating speed of the first motor and the rotating speed of the second motor, and when the rotating speed of the first motor is different from a rotating speed of the second motor, the controller controls the driver to adjust the driving current supplied to the first motor so that the rotating speed of the first motor is equal to the rotating speed of the second motor. a first motor; a second motor connected in parallel to the first motor; a driver configured to supply a driving current respectively to the first motor and the second motor; and a controller configured to calculate the rotating speed of the first motor and the rotating speed of the second motor, and to control the driver based on the driving current and the rotating speed of the first motor, wherein the controller is further configured to calculate a difference between the rotating speed of the first motor and the rotating speed of the second motor, and when the rotating speed of the first motor is different from a rotating speed of the second motor, the controller controls the driver to adjust the driving current supplied to the first motor so that the rotating speed of the first motor is equal to the rotating speed of the second motor.
A process for spray coating of aroma compounds on food particles, comprising the steps of: (i) providing an emulsion comprising at least one aroma compound and/or aroma and further customary ingredients, wherein the amount of the aroma compounds and/or aromas in the emulsion is 35 to 50% by weight, (ii) providing coffee particles; (iii) applying the emulsion to the coffee particles by spraying, wherein the emulsion is sprayed onto the coffee particles through one or more two-substance nozzles and the average droplet size diameter of the droplets emerging from the nozzle is in a range of from 0.05 mm to 0.3 mm, (iv) drying the particles in an air stream, wherein the bulk density of the particles increases as a result of the coating (step iii) by a maximum of 5-50%. (i) providing an emulsion comprising at least one aroma compound and/or aroma and further customary ingredients, wherein the amount of the aroma compounds and/or aromas in the emulsion is 35 to 50% by weight, (ii) providing coffee particles; (iii) applying the emulsion to the coffee particles by spraying, wherein the emulsion is sprayed onto the coffee particles through one or more two-substance nozzles and the average droplet size diameter of the droplets emerging from the nozzle is in a range of from 0.05 mm to 0.3 mm, (iv) drying the particles in an air stream,
A control unit of an electric power steering apparatus that drives a motor based on a current command value, and assists and controls a steering system, said control unit comprises: a feedforward control section that inputs input angle information and calculates a first compensation signal compensating said current command value; a feedback control section that inputs output angle information and calculates a second compensation signal compensating said current command value; and a response control section that adjusts said current command value based on said first compensation signal and said second compensation signal; characterised in that said feedback control section arranges a pole of a characteristic of a vibration mode where steering wheel inertia and motor inertia that constitute said electric power steering apparatus are relatively displaced in a steering stabilization frequency domain; and said response control section performs pole-and-zero cancellation so as to cancel said characteristic of said vibration mode. a feedforward control section that inputs input angle information and calculates a first compensation signal compensating said current command value; a feedback control section that inputs output angle information and calculates a second compensation signal compensating said current command value; and a response control section that adjusts said current command value based on said first compensation signal and said second compensation signal; characterised in that said feedback control section arranges a pole of a characteristic of a vibration mode where steering wheel inertia and motor inertia that constitute said electric power steering apparatus are relatively displaced in a steering stabilization frequency domain; and said response control section performs pole-and-zero cancellation so as to cancel said characteristic of said vibration mode.
Food forming drum comprising a multitude of rows of preferably porous product cavities, which is bared rotationally at a forming apparatus characterized in, that the drum comprises at least at one of its front ends (3, 4) a truncated cone (16, 17).
A method for manufacturing a light absorber, comprising: a first step of irradiating a resin substrate with an ion beam; a second step of etching the irradiated resin substrate with an alkaline solution to form an uneven surface on its surface; characterized by: a third step of forming a transfer body which covers the uneven surface of the etched resin substrate; and a fourth step of peeling off the transfer body from the resin substrate to obtain a light absorber. a first step of irradiating a resin substrate with an ion beam; a second step of etching the irradiated resin substrate with an alkaline solution to form an uneven surface on its surface; characterized by: a third step of forming a transfer body which covers the uneven surface of the etched resin substrate; and a fourth step of peeling off the transfer body from the resin substrate to obtain a light absorber. a third step of forming a transfer body which covers the uneven surface of the etched resin substrate; and a fourth step of peeling off the transfer body from the resin substrate to obtain a light absorber.
A method for sequential handovers, the method comprising: receiving, by a source access point, a handover request from a leading vehicle in a platoon of vehicles, the leading vehicle being followed by one or more trailing vehicles (213, 219), wherein the handover request requests a handover from a source access point to a target access point; obtaining information about the platoon from the handover request or an independent signaling, wherein the information about the platoon comprises a current speed of the platoon, and a vehicle spacing; and transmitting by the source access point, handover commands (422, 492) to the one or more trailing vehicles (213, 219) in response to the handover request received from the leading vehicle, wherein each handover command (422, 492) is used to instruct a respective trailing vehicle (213, 219) to perform uplink random access transmission (424, 494) to the target access point during a time period [t-Δ, t], wherein the Δ is a duration in which a handover process of a trailing vehicle (213, 219) should be initiated, and t = t 0 + n × δ, where t 0 is a time of the respective trailing vehicle (213, 219) receiving the handover command (422, 492), n is an index of the respective trailing vehicle (213, 219) in the platoon, and δ is a time duration for the respective trailing vehicle (213, 219) to cover a length equal to a trailing vehicle length plus the vehicle spacing. receiving, by a source access point, a handover request from a leading vehicle in a platoon of vehicles, the leading vehicle being followed by one or more trailing vehicles (213, 219), wherein the handover request requests a handover from a source access point to a target access point; obtaining information about the platoon from the handover request or an independent signaling, wherein the information about the platoon comprises a current speed of the platoon, and a vehicle spacing; and transmitting by the source access point, handover commands (422, 492) to the one or more trailing vehicles (213, 219) in response to the handover request received from the leading vehicle, wherein each handover command (422, 492) is used to instruct a respective trailing vehicle (213, 219) to perform uplink random access transmission (424, 494) to the target access point during a time period [t-Δ, t], wherein the Δ is a duration in which a handover process of a trailing vehicle (213, 219) should be initiated, and t = t 0 + n × δ, where t 0 is a time of the respective trailing vehicle (213, 219) receiving the handover command (422, 492), n is an index of the respective trailing vehicle (213, 219) in the platoon, and δ is a time duration for the respective trailing vehicle (213, 219) to cover a length equal to a trailing vehicle length plus the vehicle spacing.
Mobile power supply device comprising a housing which has two part-housings (2, 3), wherein the first part-housing has a base and four side walls (5, 7, 8, 39), wherein the second part-housing has a lid wall (35, 38) and side walls (15, 16, 17, 34, 40, 41, 36, 85), wherein the second part-housing is mounted onto the first part-housing, wherein the first and the second part-housing (2, 3) are connected by means of connecting means, wherein the side walls of the second part-housing have a smaller height than the side walls of the first part-housing, wherein the four side walls (15, 16, 17, 34) of the first part-housing merge into a first frame, wherein the first frame extends laterally beyond the side walls (15, 16, 17, 34) of the first part-housing, wherein the side walls (40, 41, 36, 85) of the second part-housing merge into a second frame, wherein the second frame extends laterally beyond the side walls (36, 40, 41, 85) of the second part-housing, wherein the first frame and the second frame rest one on the other, and wherein the connecting means are arranged in the first frame and in the second frame, characterized in that the second part-housing has two protrusions (31, 32), wherein the two protrusions (31, 32) are arranged next to one another, wherein the protrusions (31, 32) extend upwards starting from the second frame, wherein a lid base is formed between the two protrusions (31, 32), wherein the lid base is arranged level with the second frame, wherein the first part-housing is intended to accommodate a rechargeable battery, and wherein the second part-housing is intended to accommodate electrical and/or mechanical components.