mhurhangee/ep-ind-claims huggingface dataset:
Logic gate for balancing at least two input signals, comprising - a non-inverting input, - an inverting input, - an output, wherein the value applied to the output corresponds to the inverse of the value applied to the inverting input, wherein the output is activated only when the value applied to the non-inverting input likewise corresponds to the inverse of the value applied to the inverting input, wherein the output assumes a high-impedance, non-conductive state in a non-activated state and, in an activated state, the output value applied to the output depends on the values of the input signals applied to the non-inverting input and to the inverting input, and wherein the logic gate has an AND gate having an inverting input and a non-inverting input and an OR gate having an inverting input and a non-inverting input, wherein the non-inverting inputs of the AND gate and of the OR gate are connected to the inverting input of the logic gate, whereas the inverting inputs of the AND gate and of the OR gate are connected to the non-inverting input of the logic gate, wherein the AND gate and the OR gate are implemented by means of in each case two transistors which are complementary to one another, characterized in that the gate connections of the transistors forming the AND gate are connected to one another to form the inverting input of the AND gate, and wherein the gate connections of the transistors forming the OR gate are connected to one another to form the inverting input of the OR gate. - a non-inverting input, - an inverting input, - an output, wherein the value applied to the output corresponds to the inverse of the value applied to the inverting input, wherein the output is activated only when the value applied to the non-inverting input likewise corresponds to the inverse of the value applied to the inverting input, wherein the output assumes a high-impedance, non-conductive state in a non-activated state and, in an activated state, the output value applied to the output depends on the values of the input signals applied to the non-inverting input and to the inverting input, and wherein the logic gate has an AND gate having an inverting input and a non-inverting input and an OR gate having an inverting input and a non-inverting input, wherein the non-inverting inputs of the AND gate and of the OR gate are connected to the inverting input of the logic gate, whereas the inverting inputs of the AND gate and of the OR gate are connected to the non-inverting input of the logic gate, wherein the AND gate and the OR gate are implemented by means of in each case two transistors which are complementary to one another, characterized in that the gate connections of the transistors forming the AND gate are connected to one another to form the inverting input of the AND gate, and wherein the gate connections of the transistors forming the OR gate are connected to one another to form the inverting input of the OR gate.
An electrical power generation system, comprising: a flux switching machine, FSM, including an FSM rotor operatively connected to an FSM stator, the FSM rotor operatively connected to a shaft, wherein the FSM includes an electrical input/output (i/o) in electrical communication with the FSM stator; and a permanent magnet machine, PMM, including a PMM rotor operatively connected to a PMM stator, the PMM rotor operatively connected to a shaft, characterised in that the PMM is electrically connected to the FSM such that excitation electrical energy is supplied to the FSM to create a magnetic field so that the FSM produces electrical energy from the rotation of the FSM rotor. a flux switching machine, FSM, including an FSM rotor operatively connected to an FSM stator, the FSM rotor operatively connected to a shaft, wherein the FSM includes an electrical input/output (i/o) in electrical communication with the FSM stator; and a permanent magnet machine, PMM, including a PMM rotor operatively connected to a PMM stator, the PMM rotor operatively connected to a shaft, characterised in that the PMM is electrically connected to the FSM such that excitation electrical energy is supplied to the FSM to create a magnetic field so that the FSM produces electrical energy from the rotation of the FSM rotor.
Vehicle structural component made of wood, with an elongated base body made of solid wood, which has at least one force introduction region (111, 112) which is formed by local compression of the solid wood and which has a higher strength, wherein at least one transition between this force introduction region (111, 112) of higher strength and an adjacent region of lower strength is formed as a strength transition region with a continuous and/or step-wise strength transition.
A method for enhancement of printed products, wherein a substrate is partially coated on one side with a radiation-curing lacquer in such a way that at least one coated area and at least one uncoated area are provided on the side, and wherein a foil is subsequently applied to the side coated with the lacquer and bonded to the substrate, wherein the foil is adapted so as to bond to the material of the substrate but not to the lacquer, so that the bonding of the foil occurs selectively in the at least one uncoated area, and wherein, after bonding, the foil is severed along the dividing line between the coated and uncoated areas (21, 22), so that a substrate is obtained which has at least one area of one side coated with lacquer and an adjacent area not coated with this lacquer, wherein in this area not coated with the lacquer a foil is bonded to the substrate, the edge of which adjoins the area coated with lacquer, and wherein a paper or a cardboard is used as the substrate.
Mixing device, in particular bulk material mixing device, with at least one mixing container (12a; 12b; 12c; 12d; 12e) comprising a receiving region (14a; 14b; 14c; 14d; 14e) for receiving a material that is to be mixed, with at least one mixing unit (16a; 16b; 16c; 16d; 16e), which is configured for mixing the material that is to be mixed situated in the mixing container (12a; 12b; 12c; 12d; 12e), and with at least one lump-breaker unit (18a; 18b; 18c; 18d; 18e) comprising at least one cutter element (20a; 20b; 20c; 20d; 20e) which protrudes into the mixing container (12a; 12b; 12c; 12d; 12e), wherein the at least one lump-breaker unit (18a; 18b, 18c; 18d; 18e) is arranged in a front region (22a; 22b; 22c; 22d; 22e) of the mixing container (12a; 12b; 12c; 12d; 12e), wherein a front region (22a; 22b; 22c; 22d; 22e) is a region of the mixing container (12a; 12b; 12c; 12d; 12e) that faces towards a front face of the mixing container (12a; 12b; 12c; 12d; 12e), and wherein the at least one mixing unit (16a; 16b; 16d) is supported one-sidedly and the at least one mixing unit (16a; 16b; 16c; 16d; 16e) comprises at least one mixer shaft (26a, 28a; 26b, 28b; 26c; 28d; 26e), wherein the mixing container (12a; 12b; 12c; 12e) comprises in a region of an end wall (24a; 24b; 24c; 24e) a pivoting door (36a; 36b; 36c; 36e) which the at least one lump-breaker unit (18a; 18b; 18c; 18e) is arranged in, characterised in that the pivoting door is implemented by a front door.
Timepiece movement comprising a mechanism and a barrel (11; 111) arranged to drive the mechanism by means of a kinematic linkage which is arranged to apply a driving torque on this mechanism, the barrel including a drum and a motor spring arranged in the drum so as to apply on the mechanism a motor torque which is variable as a function of the degree of winding of the motor spring, the timepiece movement further comprising an equalisation device (3, 7; 103, 107; 203, 207) connected kinematically to the barrel in order to be able to be driven by this barrel and to be able to apply an auxiliary torque which is added to said motor torque to form together said driving torque, the auxiliary torque varying as a function of the degree of winding of the motor spring so as to counter the variation in the motor torque and thus substantially equalise said driving torque within a useful range of the degree of winding; characterised in that the equalisation device includes a magnetic system formed by a first magnetic element (3; 103; 203) and a second magnetic element (7; 107; 207), said first and second magnetic elements being arranged such that when the equalisation device is driven by the barrel, they are displaced one relative to the other exerting on one another a magnetic force which varies as a function of the relative position occupied by the first magnetic element and the second magnetic element and which produces said auxiliary torque.
Device for carrying out movements by shifting the centre of gravity and/or actuating muscles of a human body, said device comprising: a supporting means for supporting body parts, wherein the waist region of the body is freely movable, and a base portion for supporting forces on the ground, wherein the base portion and the supporting means are joined together, wherein the base portion comprises a convex surface which is directed to the ground during operating, wherein the base portion in adapted to enable a movement of the body and the device about a virtual longitudinal axis and about a virtual lateral axis, characterized in that the supporting means comprises two arm supports and two leg supports, supporting the body exclusively at the body's extremities. a supporting means for supporting body parts, wherein the waist region of the body is freely movable, and a base portion for supporting forces on the ground, wherein the base portion and the supporting means are joined together, wherein the base portion comprises a convex surface which is directed to the ground during operating, wherein the base portion in adapted to enable a movement of the body and the device about a virtual longitudinal axis and about a virtual lateral axis, characterized in that the supporting means comprises two arm supports and two leg supports, supporting the body exclusively at the body's extremities.
A fuel injector for injecting fuel into a combustion chamber of an internal combustion engine, said fuel injector comprising: a nozzle body configured to be inserted into a fuel injector receiving bore of said internal combustion engine along a nozzle body axis; a valve housing held in fixed relationship to said nozzle body; and a locating pin extending from said valve housing along a locating pin axis from a locating pin fixed end which is fixed to said valve housing to a locating pin free end such that said locating pin is configured to radially orient said nozzle body in said fuel injector receiving bore, said locating pin being configured to be inserted into a locating bore; wherein said locating pin axis is eccentric to said nozzle body axis; the fuel injector being characterised in that said locating pin has 1) a width in a first direction radially relative to said nozzle body axis and through said locating pin axis and 2) a length in a second direction which is perpendicular to said width such that said width is less than said length; and wherein said locating pin includes a first crush rib projecting outward therefrom and also includes a second crush rib projecting outward therefrom such that said first crush rib and said second crush rib are diametrically opposed at said length of said locating pin and such that said first crush rib and said second crush rib are configured to plastically deform when inserted into said locating bore, thereby preventing rotational movement of said fuel injector about said nozzle body axis. a nozzle body configured to be inserted into a fuel injector receiving bore of said internal combustion engine along a nozzle body axis; a valve housing held in fixed relationship to said nozzle body; and a locating pin extending from said valve housing along a locating pin axis from a locating pin fixed end which is fixed to said valve housing to a locating pin free end such that said locating pin is configured to radially orient said nozzle body in said fuel injector receiving bore, said locating pin being configured to be inserted into a locating bore; wherein said locating pin axis is eccentric to said nozzle body axis; the fuel injector being characterised in that said locating pin has 1) a width in a first direction radially relative to said nozzle body axis and through said locating pin axis and 2) a length in a second direction which is perpendicular to said width such that said width is less than said length; and wherein said locating pin includes a first crush rib projecting outward therefrom and also includes a second crush rib projecting outward therefrom such that said first crush rib and said second crush rib are diametrically opposed at said length of said locating pin and such that said first crush rib and said second crush rib are configured to plastically deform when inserted into said locating bore, thereby preventing rotational movement of said fuel injector about said nozzle body axis.
An air processing device comprising: a casing; a component (45, 66) detachably provided on a body of the casing; and an imaging device that acquires image data of at least one predetermined object (40, 43, 45, 60, 66) to be imaged in the casing, the imaging device being supported by the component (45, 66) so as to be at a position at which the imaging device can image the at least one object (40, 43, 45, 60, 66) to be imaged, wherein the component (45, 66) is a drain pump, a valve connected to a water pipe, a valve connected to a refrigerant pipe, a float switch, a humidifying element, a water supply tank of the humidifying element, a lid of the water supply tank or an electric component box. a casing; a component (45, 66) detachably provided on a body of the casing; and an imaging device that acquires image data of at least one predetermined object (40, 43, 45, 60, 66) to be imaged in the casing, the imaging device being supported by the component (45, 66) so as to be at a position at which the imaging device can image the at least one object (40, 43, 45, 60, 66) to be imaged, wherein the component (45, 66) is a drain pump, a valve connected to a water pipe, a valve connected to a refrigerant pipe, a float switch, a humidifying element, a water supply tank of the humidifying element, a lid of the water supply tank or an electric component box.
A pneumatic tire having a plurality of rib-shaped land parts formed by at least four circumferential grooves extended in a tread circumferential direction, wherein raised-row-shaped projections from both opposed side wall surfaces of the rib-shaped land parts adjacent to each other with the circumferential groove therebetween are provided while directed in directions toward each other, the raised-row-shaped projections formed such as to extend in the tread circumferential direction, the mutually opposed raised-row-shaped projections have a spacing from a bottom of the circumferential groove, mutually facing tip surfaces of the raised-row-shaped projections being disposed with spacing therebetween such that the tip surfaces contact each other due to elastic deformation of the grounding rib-shaped land parts when the tire is grounded, and the circumferential grooves include outermost-side circumferential grooves located on tire width direction outermost sides and inner adjacent circumferential grooves located on tire width direction inner sides of and adjacent to the outermost-side circumferential grooves, the raised-row-shaped projection in the inner adjacent circumferential groove being formed at a shallower position of the circumferential groove near a tread surface between the tread surface and a bottom of the circumferential groove as compared to the raised-row-shaped projection in the outermost-side circumferential groove. raised-row-shaped projections from both opposed side wall surfaces of the rib-shaped land parts adjacent to each other with the circumferential groove therebetween are provided while directed in directions toward each other, the raised-row-shaped projections formed such as to extend in the tread circumferential direction, the mutually opposed raised-row-shaped projections have a spacing from a bottom of the circumferential groove, mutually facing tip surfaces of the raised-row-shaped projections being disposed with spacing therebetween such that the tip surfaces contact each other due to elastic deformation of the grounding rib-shaped land parts when the tire is grounded, and the circumferential grooves include outermost-side circumferential grooves located on tire width direction outermost sides and inner adjacent circumferential grooves located on tire width direction inner sides of and adjacent to the outermost-side circumferential grooves, the raised-row-shaped projection in the inner adjacent circumferential groove being formed at a shallower position of the circumferential groove near a tread surface between the tread surface and a bottom of the circumferential groove as compared to the raised-row-shaped projection in the outermost-side circumferential groove.
A wireless communication method for transmitting a signal using multiple antennas, comprising: a selecting step of adaptively selecting a group configuration of the multiple antennas; and an attaching step of attaching data used in error detection to a signal to be transmitted using the multiple antennas according to a result of selection; characterized in that the selecting step selects one of: a first type configuration where single cyclic redundancy check data is attached to all signals to be transmitted from the multiple antennas; a second type configuration where different cyclic redundancy check data is attached to signals to be transmitted from each of the multiple antennas; and a third type configuration where single cyclic redundancy check is attached to all signals to be transmitted from antennas included in a group of the multiple antennas and different cyclic redundancy check data is attached to signals to be transmitted from each antenna not included in the group of the multiple antennas. a selecting step of adaptively selecting a group configuration of the multiple antennas; and an attaching step of attaching data used in error detection to a signal to be transmitted using the multiple antennas according to a result of selection; characterized in that the selecting step selects one of: a first type configuration where single cyclic redundancy check data is attached to all signals to be transmitted from the multiple antennas; a second type configuration where different cyclic redundancy check data is attached to signals to be transmitted from each of the multiple antennas; and a third type configuration where single cyclic redundancy check is attached to all signals to be transmitted from antennas included in a group of the multiple antennas and different cyclic redundancy check data is attached to signals to be transmitted from each antenna not included in the group of the multiple antennas.
A door, in particular a garage door with a door leaf, which is adjoined at its lower edge by a termination strip, with a door drive connected to a control and with a light-changing device connected to the control, which light-changing device is arranged on the termination strip, characterised in that the termination strip comprises a translucent portion, wherein the light-changing device is set up to illuminate the translucent portion, and that the termination strip comprises an elastic end portion, wherein the translucent portion is arranged between the elastic end portion and the lower edge of the door leaf.
A filtering pulley comprising a hub adapted to be fixed to a rotating shaft, a pulley ring mounted coaxial and rotationally free on said hub, a plurality of elastic assemblies arranged circumferentially with respect to said hub and said pulley ring and each interposed between a pair of first elements integral with said hub and between a pair of second elements (16, 17) integral with said pulley ring, characterized in that each elastic element forms with said first elements and with said second elements (16, 17) respective angular clearances (σ, α), said pulley ring and said hub having a free angle (β) of relative rotation equal to the sum of said angular clearances (σ, α).
A vacuum cleaner comprising: a cleaner body; and a dust container separably mounted on the cleaner body, wherein the dust container comprises: a dust collection body comprising a dust separation part; a cover arranged to cover the dust collection body, and an opening through which air separated from dust in the dust separation part is discharged, the opening being defined on a bottom wall of the dust collection body; a filter (230, 530) that filters the air before the air is discharged through the opening; and a filter supporter (240, 350) to support the filter (230, 530), wherein the cover includes a cover body covering the dust collection body and a suction hole through which the air containing the dust is suctioned, wherein the vacuum cleaner further comprises an air guide (220, 520) having an inflow hole (221, 524) through which the air separated from the dust in the dust separation part is introduced, wherein at least a portion of the filter (230, 530) is accommodated into the air guide (220, 520), and wherein the filter (230, 530) is insertable into the air guide (220, 520) through the opening. a cleaner body; and a dust container separably mounted on the cleaner body, wherein the dust container comprises: a dust collection body comprising a dust separation part; a cover arranged to cover the dust collection body, and an opening through which air separated from dust in the dust separation part is discharged, the opening being defined on a bottom wall of the dust collection body; a dust collection body comprising a dust separation part; a cover arranged to cover the dust collection body, and an opening through which air separated from dust in the dust separation part is discharged, the opening being defined on a bottom wall of the dust collection body; a filter (230, 530) that filters the air before the air is discharged through the opening; and a filter supporter (240, 350) to support the filter (230, 530), wherein the cover includes a cover body covering the dust collection body and a suction hole through which the air containing the dust is suctioned, wherein the vacuum cleaner further comprises an air guide (220, 520) having an inflow hole (221, 524) through which the air separated from the dust in the dust separation part is introduced, wherein at least a portion of the filter (230, 530) is accommodated into the air guide (220, 520), and wherein the filter (230, 530) is insertable into the air guide (220, 520) through the opening.
A power inductor, comprising: a body comprising a metal powder; at least one substrate provided inside the body; at least one coil pattern (310, 320) provided on at least one surface of the substrate; and an insulation layer formed between the coil pattern (300, 310, 320) and the body, characterized in that the insulation layer is formed of parylene with a thickness of approximately 3 μm to approximately 100 μm, wherein the insulation layer is formed with a constant thickness along a stepped portion of the coil pattern (310, 320), wherein the metal powder has a surface coated with an insulator formed of parylene, wherein the insulator is coated in a thickness of approximately 1 um to approximately 10 um. a body comprising a metal powder; at least one substrate provided inside the body; at least one coil pattern (310, 320) provided on at least one surface of the substrate; and an insulation layer formed between the coil pattern (300, 310, 320) and the body, characterized in that the insulation layer is formed of parylene with a thickness of approximately 3 μm to approximately 100 μm, wherein the insulation layer is formed with a constant thickness along a stepped portion of the coil pattern (310, 320), wherein the metal powder has a surface coated with an insulator formed of parylene, wherein the insulator is coated in a thickness of approximately 1 um to approximately 10 um.