mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for forming a container body from a metal blank comprising: a ram centered about a longitudinal axis; a blank holder having an aperture through which the ram passes; an annular die substantially axially aligned with the ram and adapted to allow the ram to pass therethrough; an annular die holder having a recessed portion adapted for receiving the annular die therein, the recessed portion having an annular, arcuate concave surface; a plurality of ironing rings substantially axially aligned with the ram, characterized by: an insert in the recess located between the annular, arcuate concave surface and the annular die, the insert supporting the annular die opposite an annular, arcuate, convex surface in operative engagement with the annular, arcuate concave surface and swivelable thereon. a ram centered about a longitudinal axis; a blank holder having an aperture through which the ram passes; an annular die substantially axially aligned with the ram and adapted to allow the ram to pass therethrough; an annular die holder having a recessed portion adapted for receiving the annular die therein, the recessed portion having an annular, arcuate concave surface; a plurality of ironing rings substantially axially aligned with the ram, characterized by: an insert in the recess located between the annular, arcuate concave surface and the annular die, the insert supporting the annular die opposite an annular, arcuate, convex surface in operative engagement with the annular, arcuate concave surface and swivelable thereon. an insert in the recess located between the annular, arcuate concave surface and the annular die, the insert supporting the annular die opposite an annular, arcuate, convex surface in operative engagement with the annular, arcuate concave surface and swivelable thereon.
Measuring arrangement for contactless electric current measurement, comprising a measuring coil arrangement, a compensating coil arrangement and a first detection device which is configured to detect a common signal of the measuring coil arrangement and the compensating coil arrangement, characterized by a second detection device which is configured to additionally detect a signal of at least one measuring coil (6, 7) of the measuring coil arrangement.
A socket for interfacing an amputated lower limb and a modular element, comprising: - a proximal part allowing the amputated lower limb to be inserted; - a distal part allowing the modular element to be fastened; the socket also comprising: - a deformable inner layer for being in contact with the amputated lower limb; - a deformable outer layer; - a structure of rigid material disposed between the inner layer and the outer layer, comprising at least two masts, each mast extending substantially axially from a base located on the distal side to an end located on the proximal side, characterised in that: - the inner and outer deformable layers are made of silicone rubber, and in that - said rigid structure is adhered to the inner layer, the inner layer being in contact with the outer layer between two successive masts, the ends of the different masts not being connected so as to move apart from or closer to each other under the effect of a deformation of the inner layer and the outer layer. - a proximal part allowing the amputated lower limb to be inserted; - a distal part allowing the modular element to be fastened; the socket also comprising: - a deformable inner layer for being in contact with the amputated lower limb; - a deformable outer layer; - a structure of rigid material disposed between the inner layer and the outer layer, comprising at least two masts, each mast extending substantially axially from a base located on the distal side to an end located on the proximal side, - a deformable inner layer for being in contact with the amputated lower limb; - a deformable outer layer; - a structure of rigid material disposed between the inner layer and the outer layer, comprising at least two masts, each mast extending substantially axially from a base located on the distal side to an end located on the proximal side, - the inner and outer deformable layers are made of silicone rubber, and in that - said rigid structure is adhered to the inner layer, the inner layer being in contact with the outer layer between two successive masts, the ends of the different masts not being connected so as to move apart from or closer to each other under the effect of a deformation of the inner layer and the outer layer.
A data access method, wherein the method is applied to a storage device, the storage device comprises a cache control unit, an interface card, a cache, and a storage subsystem, and the method comprises: receiving, by the interface card, a first data write instruction sent by a host; obtaining, by the interface card, data and a destination address of the data, wherein the destination address is used to indicate an address at which the data is to be written into the storage subsystem; writing, by the interface card, the data and the destination address into the cache; generating, by the interface card, a second data write instruction, and writing the second data write instruction into the cache, wherein the second data write instruction comprises a source address and the destination address, and the source address is an address at which the data is stored in the cache; sending, by the cache control unit, the second data write instruction in the cache to the storage subsystem; and reading, by the storage subsystem, the data from the cache according to the source address, and writing the data into storage space corresponding to the destination address. receiving, by the interface card, a first data write instruction sent by a host; obtaining, by the interface card, data and a destination address of the data, wherein the destination address is used to indicate an address at which the data is to be written into the storage subsystem; writing, by the interface card, the data and the destination address into the cache; generating, by the interface card, a second data write instruction, and writing the second data write instruction into the cache, wherein the second data write instruction comprises a source address and the destination address, and the source address is an address at which the data is stored in the cache; sending, by the cache control unit, the second data write instruction in the cache to the storage subsystem; and reading, by the storage subsystem, the data from the cache according to the source address, and writing the data into storage space corresponding to the destination address.
A discrete semiconductor device integrated within a single package comprising: a high voltage depletion mode device die; a low voltage enhancement mode device die connected in cascode configuration with the high voltage depletion mode device die, wherein the low voltage enhancement mode device die comprises a source terminal, a gate terminal and a drain terminal; wherein the high voltage depletion mode device die comprises gate, source and drain terminals arranged on a first surface thereof and the gate, source and drain terminals are inverted with respect to the low voltage enhancement mode device die; wherein the low voltage enhancement mode device die is arranged adjacent to the high voltage depletion mode device die; and wherein discrete semiconductor device further comprises a ferrite element fixedly and electrically connected to the gate terminal of the low voltage enhancement mode device die and a gate lead of the of the semiconductor device. a high voltage depletion mode device die; a low voltage enhancement mode device die connected in cascode configuration with the high voltage depletion mode device die, wherein the low voltage enhancement mode device die comprises a source terminal, a gate terminal and a drain terminal; wherein the high voltage depletion mode device die comprises gate, source and drain terminals arranged on a first surface thereof and the gate, source and drain terminals are inverted with respect to the low voltage enhancement mode device die; wherein the low voltage enhancement mode device die is arranged adjacent to the high voltage depletion mode device die; and wherein discrete semiconductor device further comprises a ferrite element fixedly and electrically connected to the gate terminal of the low voltage enhancement mode device die and a gate lead of the of the semiconductor device.
A body, in particular a cutting element, which comprises a coating at least in regions, wherein the coating is formed from one or more coating layers (3, 4, 5), wherein at least one coating layer comprises aluminium, titanium and nitrogen or is formed from these elements, characterized in that the coating layer with aluminium, titanium and nitrogen is deposited by means of a CVD process and in this coating layer, lamellae having a lamellar thickness of less than 100 nm are present at least in sections, wherein the lamellae comprise successive sections with different phases.
Method for producing a component for a turbomachine, comprising the following steps: - additive build up of the component by means of an additive production method from a base material for the component and - introduction of material fibers into a construction for the component during the additive build up in such a way that the material fibers are oriented along a circumferential direction of the component around a component axis and in such a way that a fiber composite material is created, the fiber composite material comprising the material fibers and a base material which is solidified as a result of the additive build up, wherein the material fibers comprise ceramic material consisting of aluminum oxide, mullite, SiBCN, SiCN or SiC. - additive build up of the component by means of an additive production method from a base material for the component and - introduction of material fibers into a construction for the component during the additive build up in such a way that the material fibers are oriented along a circumferential direction of the component around a component axis and in such a way that a fiber composite material is created, the fiber composite material comprising the material fibers and a base material which is solidified as a result of the additive build up, wherein the material fibers comprise ceramic material consisting of aluminum oxide, mullite, SiBCN, SiCN or SiC.
A device for restraining a ground engaging means of an agricultural machine or a work machine having a restraining disposition and a non-restraining disposition; the device comprising at least a base member engageable with the ground, a support member with its one end movably connected to one end of the base member and a resilient member characterized in that the resilient member is connected to a free end of the base member and a free end of the support member in that the device assumes the restraining disposition by means of a retractable force induced on the resilient member while moving the device to the non-restraining disposition.
Method for carrying out a multiple pulse welding method in which at least two pulse welding processes are operated simultaneously, the at least two pulse welding processes each being carried out with a welding current (I Sa, I Sb) with pulsed current parameters, with a pulse frequency (f Da, f Db) to be set and with a welding wire feeding speed (v Da, v Db) to be set, whereas a first pulse welding process defines a first pulse frequency (f Da), and the second pulse frequency (f Db) to be set in a second pulse welding process results from the first pulse frequency (f Da), characterized in that ideal setting values for the second pulse frequency (f Db) and for the second welding wire feeding speed (v Db) are determined from a known relationship between the pulse frequency (f Db) and the welding wire feeding speed (v Db) of the second pulse welding process, in that an ideal root-mean-square value (RMS opt) of the second welding current (I Sb) is determined by means of the ideal setting values, and an ideal ratio (V opt) between the root-mean-square value (RMS opt) and the welding wire feeding speed (v Db) is determined by means of the ideal root-mean-square value (RMS opt) and the ideal setting value of the second welding wire feeding speed (v Db), in that an actual root-mean-square value (RMS nopt) of the second welding current (I Sb) is determined by means of the second welding current (I Sb) with the second pulse frequency (f Db) to be set, and from that an actual ratio between the actual root-mean-square value (RMS nopt) and the welding wire feeding speed (v Db) of the second pulse welding process that is to be set is determined, and in that at least one pulsed current parameter of the second welding current (I Sb) of the second pulse welding process and/or the welding wire feeding speed (v Db) of the second pulse welding process is changed in order to change the actual ratio to the ideal ratio (V opt).
A saddled vehicle comprising: an engine including an electronic throttle valve mechanism that drives an air intake throttle valve via an actuator, and a first control unit that controls the engine; a control unit including the first control unit and a second control unit, wherein the first control unit comprises an engine braking controller configured to control the throttle valve so as to generate a force (Fc) that offsets engine braking of the engine when the vehicle is decelerated; a rear wheel brake configured to brake a rear wheel; and a front wheel brake configured to brake a front wheel that is a driven wheel; wherein the second control unit comprises an automatic brake controller configured to perform automatic brake control to automatically increase a braking force of the front wheel brake and the rear wheel brake; in the automatic brake control, the automatic brake controller brakes, prior to the front wheel brake, the rear wheel that is a drive wheel to be driven by the engine with the rear wheel brake; and in case where it is determined that there is a possibility of collision of the saddled vehicle, the control unit is configured to control the throttle valve to start a process of generating the force (Fc) that offsets the engine braking prior to the start of the braking of the front wheel brake und during braking of the rear wheel brake, and then brakes the wheels (2, 3) through the automatic brake control in a state where the engine braking is offset and is constant. an engine including an electronic throttle valve mechanism that drives an air intake throttle valve via an actuator, and a first control unit that controls the engine; a control unit including the first control unit and a second control unit, wherein the first control unit comprises an engine braking controller configured to control the throttle valve so as to generate a force (Fc) that offsets engine braking of the engine when the vehicle is decelerated; a rear wheel brake configured to brake a rear wheel; and a front wheel brake configured to brake a front wheel that is a driven wheel; wherein the second control unit comprises an automatic brake controller configured to perform automatic brake control to automatically increase a braking force of the front wheel brake and the rear wheel brake; in the automatic brake control, the automatic brake controller brakes, prior to the front wheel brake, the rear wheel that is a drive wheel to be driven by the engine with the rear wheel brake; and in case where it is determined that there is a possibility of collision of the saddled vehicle, the control unit is configured to control the throttle valve to start a process of generating the force (Fc) that offsets the engine braking prior to the start of the braking of the front wheel brake und during braking of the rear wheel brake, and then brakes the wheels (2, 3) through the automatic brake control in a state where the engine braking is offset and is constant.
An implant delivery system comprising: a. a delivery pusher having an outer surface; b. an implant device connected to said delivery pusher; c. a tether connecting said implant device to said delivery pusher; d. a heater; characterized in that it further comprises: e) a spring, having potential energy stored therein, placed on the tether between the heater and the implant device, f) one end of the tether is attached to the delivery pusher and the other end of the tether is attached to the implant device, wherein said tether is in a pre-tensioned state due to the potential energy stored in the spring proximally coupled to the tether, such that the tether has a stressed length and is prevented from recovering to an unstressed length, such that, when heated by said heater, said tether breaks such that said implant device is released from said delivery pusher less than 1 second after activation of said heater. a. a delivery pusher having an outer surface; b. an implant device connected to said delivery pusher; c. a tether connecting said implant device to said delivery pusher; d. a heater; characterized in that e) a spring, having potential energy stored therein, placed on the tether between the heater and the implant device, f) one end of the tether is attached to the delivery pusher and the other end of the tether is attached to the implant device, wherein said tether is in a pre-tensioned state due to the potential energy stored in the spring proximally coupled to the tether, such that the tether has a stressed length and is prevented from recovering to an unstressed length, such that, when heated by said heater, said tether breaks such that said implant device is released from said delivery pusher less than 1 second after activation of said heater.
A method for foil-ripening a cheese selected from the group consisting of Gouda, Edam, Tilsit, Gruyere, Cheddar, Emmental and Maasdam comprising: a. providing a cheese having an edge, a first face and a second face; b. packaging said cheese in a closed cheese-ripening foil having a water vapour transmission rate of at least 5 g/(m 2.24 hours) at 12 °C and 85% relative humidity, measured according to ASTM E96B cup test at 12 °C and against 85% relative humidity wherein the relative humidity within the cup is 100%; and c. ripening this foil-packaged cheese in the presence of a frame which surrounds at least part of the edge of said cheese, wherein the frame is made of one or more materials selected from the group consisting of metal, plastic, paper, cardboard and wood and wherein the frame contains perforations with a diameter between 0.01 - 50 mm, wherein the surface of the frame being in contact with the edge of the cheese is 10-80% of the surface of the cheese, and wherein during ripening moisture is allowed to evaporate from said cheese. a. providing a cheese having an edge, a first face and a second face; b. packaging said cheese in a closed cheese-ripening foil having a water vapour transmission rate of at least 5 g/(m 2.24 hours) at 12 °C and 85% relative humidity, measured according to ASTM E96B cup test at 12 °C and against 85% relative humidity wherein the relative humidity within the cup is 100%; and c. ripening this foil-packaged cheese in the presence of a frame which surrounds at least part of the edge of said cheese, wherein the frame is made of one or more materials selected from the group consisting of metal, plastic, paper, cardboard and wood and wherein the frame contains perforations with a diameter between 0.01 - 50 mm, wherein the surface of the frame being in contact with the edge of the cheese is 10-80% of the surface of the cheese, and wherein during ripening moisture is allowed to evaporate from said cheese.
An analytical tool for analysis of a sample by capillary electrophoresis, the analytical tool comprising: an inlet reservoir into which a sample is introduced; a secondary reservoir having an enlarged portion; a connection channel connecting the inlet reservoir to the secondary reservoir at the enlarged portion, wherein the enlarged portion undergoes a sudden increase in cross-sectional area; a capillary tube in communication with the connection channel at a location between the inlet reservoir and the secondary reservoir; a filter through which a liquid from the inlet reservoir passes; and characterized by a pressure fluctuation reducer located at the enlarged portion for preventing pressure fluctuation at the enlarged portion from affecting a liquid in the capillary tube. an inlet reservoir into which a sample is introduced; a secondary reservoir having an enlarged portion; a connection channel connecting the inlet reservoir to the secondary reservoir at the enlarged portion, wherein the enlarged portion undergoes a sudden increase in cross-sectional area; a capillary tube in communication with the connection channel at a location between the inlet reservoir and the secondary reservoir; a filter through which a liquid from the inlet reservoir passes; and characterized by a pressure fluctuation reducer located at the enlarged portion for preventing pressure fluctuation at the enlarged portion from affecting a liquid in the capillary tube.
Handle device for an airbag system for the protection of a person in case of the descent of an avalanche, which can be coupled to a pull element formed for actuating a trigger device of the airbag system, wherein the handle device has a grip area capable of being gripped by the person, characterized in that the handle device has a band-shaped guide area adjoining to the grip area, which has a thickness lower than a width of the guide area, wherein a broadside of the guide area is formed for abutting on a carrying strap of a carrying device at least in certain areas, to which the airbag system is fixable.
A signal processing device for detecting a distress signal from a search and rescue transponder, comprising: an instantaneous frequency change rate calculating module configured to calculate a change rate of an instantaneous frequency of a complex reception signal generated from a reception wave received by a wave receiver; a memory configured to store a value obtained based on a reference frequency sweeping speed that is a frequency sweeping speed of the distress signal; and a distress signal determining module configured to determine whether the distress signal is issued from the search and rescue transponder, based on a comparison result between the instantaneous frequency change rate calculated by the instantaneous frequency change rate calculating module and the value obtained based on the reference frequency sweeping speed stored in the memory. an instantaneous frequency change rate calculating module configured to calculate a change rate of an instantaneous frequency of a complex reception signal generated from a reception wave received by a wave receiver; a memory configured to store a value obtained based on a reference frequency sweeping speed that is a frequency sweeping speed of the distress signal; and a distress signal determining module configured to determine whether the distress signal is issued from the search and rescue transponder, based on a comparison result between the instantaneous frequency change rate calculated by the instantaneous frequency change rate calculating module and the value obtained based on the reference frequency sweeping speed stored in the memory.