mhurhangee/patent-ind-claim-en huggingface dataset:
A power generator for use with a medical tool used to perform a medical ablation procedure comprising: a power supply configured to generate a DC voltage; a phase shifter configured to shift signal transmission phase angles; a plurality of switched-mode amplifiers each comprising N-channel metal-oxide-semiconductor field-effect (MOSFET) transistors , and each configured to convert the DC voltage received from the power supply to an AC voltage signal; and a processor configured to control: the phase shifter to control a phase shift of each AC voltage signal converted by the switched-mode amplifiers; an amplitude of each AC voltage signal converted by the switched-mode amplifiers; and the MOSFET transistors to switch between different states to convert the DC voltage into amplitude pulses. a power supply configured to generate a DC voltage; a phase shifter configured to shift signal transmission phase angles; a plurality of switched-mode amplifiers each comprising N-channel metal-oxide-semiconductor field-effect (MOSFET) transistors , and each configured to convert the DC voltage received from the power supply to an AC voltage signal; and a processor configured to control: the phase shifter to control a phase shift of each AC voltage signal converted by the switched-mode amplifiers; an amplitude of each AC voltage signal converted by the switched-mode amplifiers; and the MOSFET transistors to switch between different states to convert the DC voltage into amplitude pulses. the phase shifter to control a phase shift of each AC voltage signal converted by the switched-mode amplifiers; an amplitude of each AC voltage signal converted by the switched-mode amplifiers; and the MOSFET transistors to switch between different states to convert the DC voltage into amplitude pulses.
An electric working machine comprising: an electric motor provided with a rotor and a stator ; and a tubular housing in which the electric motor is stored, characterized in that the electric working machine further comprises: a first control unit which is provided outside of the tubular housing in a radial direction of a rotation axis (B1) defined at a center of the rotor , and controls the electric motor ; a second control unit which is provided in the tubular housing , and controls the electric motor ; a through hole provided on the tubular housing ; and an electric wire which connects the first control unit with the second control unit , and extends into the through hole . an electric motor provided with a rotor and a stator ; and a tubular housing in which the electric motor is stored, characterized in that the electric working machine further comprises: a first control unit which is provided outside of the tubular housing in a radial direction of a rotation axis (B1) defined at a center of the rotor , and controls the electric motor ; a second control unit which is provided in the tubular housing , and controls the electric motor ; a through hole provided on the tubular housing ; and an electric wire which connects the first control unit with the second control unit , and extends into the through hole . a first control unit which is provided outside of the tubular housing in a radial direction of a rotation axis (B1) defined at a center of the rotor , and controls the electric motor ; a second control unit which is provided in the tubular housing , and controls the electric motor ; a through hole provided on the tubular housing ; and an electric wire which connects the first control unit with the second control unit , and extends into the through hole .
A cemented carbide, comprising a hard phase including WC, a binder phase including Co and Ni and a gamma phase, the cemented carbide consisting of 50 to 70 6a wt% WC; 5-13 wt.% Co; 1-9 wt.% Ni; 10-14 wt.% TiC; 8-12 wt.% NbC; 0.5-2.5 wt.% TaC; 0.1-1.0 wt.% Cr 3 C 2 ; 0.1-1.0 wt.% Mo 2 C; and 1-7 TiCN wt.% and/or 1-5 wt.% TiN, wherein an average grain size of the WC is in a range of 0.8 to 2 μm, 0.8 to 1.8 μm or 0.8 to 1.4 μm measured by a linear-intercept technique according to ISO 4499-2:2008 as described in the description; and a quotient of the average grain size of the WC/an average grain size of the gamma phase is in a range of 0.5 to 1.5. the cemented carbide consisting of 50 to 70 6a wt% WC; 5-13 wt.% Co; 1-9 wt.% Ni; 10-14 wt.% TiC; 8-12 wt.% NbC; 0.5-2.5 wt.% TaC; 0.1-1.0 wt.% Cr 3 C 2 ; 0.1-1.0 wt.% Mo 2 C; and 1-7 TiCN wt.% and/or 1-5 wt.% TiN, wherein an average grain size of the WC is in a range of 0.8 to 2 μm, 0.8 to 1.8 μm or 0.8 to 1.4 μm measured by a linear-intercept technique according to ISO 4499-2:2008 as described in the description; and a quotient of the average grain size of the WC/an average grain size of the gamma phase is in a range of 0.5 to 1.5.
A fluid evacuation apparatus comprising: a platform which is configured to receive at least one component ; a cover comprising a polymeric membrane , the cover configured to be placed over the at least one component and configured to sealingly engage the platform, thereby forming a chamber which defines a chamber volume ; a pump connected to the chamber volume and configured to pump fluid out of the chamber volume; and a permeable spacer configured to prevent contact between the at least one component and the polymeric membrane; characterized in that the permeable spacer comprises a mesh structure that is formed of wires that are intertwined to form a structure of repeating polygons or a foam structure. a platform which is configured to receive at least one component ; a cover comprising a polymeric membrane , the cover configured to be placed over the at least one component and configured to sealingly engage the platform, thereby forming a chamber which defines a chamber volume ; a pump connected to the chamber volume and configured to pump fluid out of the chamber volume; and a permeable spacer configured to prevent contact between the at least one component and the polymeric membrane; characterized in that the permeable spacer comprises a mesh structure that is formed of wires that are intertwined to form a structure of repeating polygons or a foam structure. a permeable spacer configured to prevent contact between the at least one component and the polymeric membrane; characterized in that the permeable spacer comprises a mesh structure that is formed of wires that are intertwined to form a structure of repeating polygons or a foam structure.
An electromagnetic interference (EMI) resistant electronics enclosure , comprising: a first compartment defined by a body ; a second compartment defined by the body ; a septum between the first compartment and the second compartment ; a first aperture with the septum that connects the first compartment and the second compartment ; a feed-through element comprising a first interface region and a second interface region , wherein one or more primary conductors extend between the first interface region and the second interface region , and wherein the first interface region resides in the first compartment , and the second interface region resides in the second compartment ; characterized by : a conductive bar that circumscribes at least a portion of the feed-through element ; a conductive gasket that extends from the body to the conductive bar , wherein a ground path is formed between the body and the conductive bar with the conductive gasket . a first compartment defined by a body ; a second compartment defined by the body ; a septum between the first compartment and the second compartment ; a first aperture with the septum that connects the first compartment and the second compartment ; a feed-through element comprising a first interface region and a second interface region , wherein one or more primary conductors extend between the first interface region and the second interface region , and wherein the first interface region resides in the first compartment , and the second interface region resides in the second compartment ; characterized by : a conductive bar that circumscribes at least a portion of the feed-through element ; a conductive gasket that extends from the body to the conductive bar , wherein a ground path is formed between the body and the conductive bar with the conductive gasket . a conductive bar that circumscribes at least a portion of the feed-through element ; a conductive gasket that extends from the body to the conductive bar , wherein a ground path is formed between the body and the conductive bar with the conductive gasket .
Linear luminaire , extending in the longitudinal direction , for a light strip, - wherein the luminaire has an elongated u-shaped carrier profile and an elongated u-shaped device carrier which is fixed on the carrier profile in a form-fitting manner, - wherein the device carrier closes the carrier profile transversely to the longitudinal direction at least in some regions with a profile closing floor and thereby a profile inner space is formed in the carrier profile , - wherein the luminaire has at least one elongated optic cover which is fixed to the device carrier , - wherein the at least one optic cover closes the device carrier transversely to the longitudinal direction and thereby a carrier inner space is formed in the device carrier , and - wherein the luminaire has at least one elongated luminaire carrying plate having a plurality of light sources , which is fixed in the carrier inner space of the device carrier , characterised in that between the at least one optic cover and the device carrier is arranged a seal which is elastic and extends in the longitudinal direction , which seal rests on the one side on the device carrier and on the other side on the at least one optic cover and presses the at least one optic cover on the device carrier towards the carrier profile and thereby fixes it in the carrier inner space . - wherein the luminaire has an elongated u-shaped carrier profile and an elongated u-shaped device carrier which is fixed on the carrier profile in a form-fitting manner, - wherein the device carrier closes the carrier profile transversely to the longitudinal direction at least in some regions with a profile closing floor and thereby a profile inner space is formed in the carrier profile , - wherein the luminaire has at least one elongated optic cover which is fixed to the device carrier , - wherein the at least one optic cover closes the device carrier transversely to the longitudinal direction and thereby a carrier inner space is formed in the device carrier , and - wherein the luminaire has at least one elongated luminaire carrying plate having a plurality of light sources , which is fixed in the carrier inner space of the device carrier ,
A mounting bracket for connecting with a structural element (B) on which a technical object is to be mounted by means of the bracket , the bracket comprising a slot, a first and a second wall surfaces on its inner side, wherein in the middle of each surface there is at least one hole , in which there are elements fixing the position of the bracket relative to the structural element (B), wherein the bases of the wall surfaces are located at the inlet of the bracket , while a generatrix of the first wall surface and a generatrix of the second wall surface lie on lines intersecting at an angle α, when the mentioned geneatrices are taken along a vertical plane dividing the bracket in half, and in the wall of the bracket , characterised in that the inner surface of the side walls of the bracket consists of two differently shaped surfaces , wherein the first wall surface has a shape of a semicylindrical lateral surface, and the second wall surface , located on the opposite side of the first wall surface , is shaped as the lateral surface of a truncated semi-cone, and in that on both sides of the holes on the first wall surface and the second wall surface of the bracket there are protrusions extending along tangents to the wall surface of the bracket slot .
An implant for effecting a fusion of an SI joint, the implant including: an elongated base member having a base member longitudinal axis (B) extending parallel to an implant width axis (W) and perpendicular to an implant longitudinal axis (L); an elongated first side member extending along a first side longitudinal axis (F); an elongated second side member extending along a second side longitudinal axis (S) wherein the base member , the first side member , and the second side member are connected together and lie in an implant plane defined by the implant width axis (W) and the implant longitudinal axis (L); an internal support structure ; and a plurality of fusion passages defined by the internal support structure in an area between the first side member , second side member , and base member , each fusion passage extending along a thickness axis (T) perpendicular to the implant plane and defining a respective open area through the implant , characterised in that the internal support structure extends in the implant plane from the base member to the first side member and from the base member to the second side member . an elongated base member having a base member longitudinal axis (B) extending parallel to an implant width axis (W) and perpendicular to an implant longitudinal axis (L); an elongated first side member extending along a first side longitudinal axis (F); an elongated second side member extending along a second side longitudinal axis (S) wherein the base member , the first side member , and the second side member are connected together and lie in an implant plane defined by the implant width axis (W) and the implant longitudinal axis (L); an internal support structure ; and a plurality of fusion passages defined by the internal support structure in an area between the first side member , second side member , and base member , each fusion passage extending along a thickness axis (T) perpendicular to the implant plane and defining a respective open area through the implant , characterised in that the internal support structure extends in the implant plane from the base member to the first side member and from the base member to the second side member .
A method of aging a semiconductor laser to determine the reliability of the laser , the method comprising; providing a first drive current to the laser , the first drive current being at least three times greater than a normal operating bias current of the laser ; maintaining the first drive current to the laser for a first period of time, the first period of time being five hours or more; maintaining the ambient temperature of the laser at or below a first temperature during the first period of time, the first temperature being 50 degrees Celsius or lower; characterized by , after providing the first drive current to the laser for the first period of time, performing thermal burn-in on the laser , wherein performing thermal burn-in on the laser includes providing a second drive current to the laser for a second period of time while maintaining the ambient temperature of the laser at a second temperature, the second temperature being 85 degrees Celsius or greater, the second drive current being two times greater than the normal operating bias current of the laser ; and ascertaining the reliability of the laser wherein ascertaining the reliability of the laser includes: prior to providing the first drive current to the laser for the first period of time, measuring the initial optical output power of the laser ; after providing the first drive current to the laser for the first period of time, measuring the final output power of the laser ; and comparing the final optical output power to the initial optical output power, wherein when the final optical output power drops at least 2% compared to the initial optical output power, the laser is determined to be unreliable . prior to providing the first drive current to the laser for the first period of time, measuring the initial optical output power of the laser ; after providing the first drive current to the laser for the first period of time, measuring the final output power of the laser ; and comparing the final optical output power to the initial optical output power, wherein when the final optical output power drops at least 2% compared to the initial optical output power, the laser is determined to be unreliable .
Torque sensor having a main body extending axially and in a circumferential direction, which torque sensor extends in a radial direction of the main body from an annular inner flange with first force introduction points via a mechanically weakened sensor portion , which is provided with measuring transducers for generating output signals, to an annular outer flange with second force introduction points , wherein the second force introduction points are connected to the sensor portion via a radially elastic material portion , wherein - the radially elastic material portion is formed by a plurality of radially elastic bending strips which are arranged distributed over a circumference of the main body , characterized in that - the radially elastic material portion is connected to the mechanically weakened sensor portion via an annular, radially stiff decoupling region . - the radially elastic material portion is formed by a plurality of radially elastic bending strips which are arranged distributed over a circumference of the main body , characterized in that - the radially elastic material portion is connected to the mechanically weakened sensor portion via an annular, radially stiff decoupling region .
A mobile mineral material processing station comprising: a mobile platform comprising tracks or wheels or a skid ; a body supported by or formed by the mobile platform ; supported by the body in line, when the station is in a transport configuration: a feed conveyor ; a screen with multiple layers for separating three or more different fractions of mineral material; a first exit conveyor ; a second exit conveyor ; and a third exit conveyor on top of the first exit conveyor and the second exit conveyor ; and a first turning mechanism configured to enable turning the first exit conveyor from a transport position that is under the third exit conveyor to a first operation direction (a1) onto a first side of the mobile mineral material processing station for operating the mineral material processing station and back to the transport position for transporting the mineral material processing station ; characterized by the station further comprising: a second turning mechanism configured to enable turning the second exit conveyor from a transport position under the third exit conveyor to a second operation direction (a2) onto a second side of the mobile mineral material processing station , opposite to the first side, and back to the transport position for transporting the mineral material processing station . a mobile platform comprising tracks or wheels or a skid ; a body supported by or formed by the mobile platform ; supported by the body in line, when the station is in a transport configuration: a feed conveyor ; a screen with multiple layers for separating three or more different fractions of mineral material; a first exit conveyor ; a second exit conveyor ; and a third exit conveyor on top of the first exit conveyor and the second exit conveyor ; and a first turning mechanism configured to enable turning the first exit conveyor from a transport position that is under the third exit conveyor to a first operation direction (a1) onto a first side of the mobile mineral material processing station for operating the mineral material processing station and back to the transport position for transporting the mineral material processing station ; characterized by the station further comprising: a second turning mechanism configured to enable turning the second exit conveyor from a transport position under the third exit conveyor to a second operation direction (a2) onto a second side of the mobile mineral material processing station , opposite to the first side, and back to the transport position for transporting the mineral material processing station .
A compound of formula (I) : wherein: - Z 1 is a (C 1 -C 6 )alkyl group; - P 5 is selected from the following amino acid residues - P 1 and P 4 , identical or different, are selected from the following amino acid residues in which Z 2 and Z 3 , identical or different, are selected from a hydrogen atom and a (C 1 -C 6 )alkyl group; - P 3 is selected from the following amino acids residues - R 1 is selected from - R 2 is selected from in which • m is 0, 1 or 2; • p is 1, 2, 3 or 4; • Z 4 is a halogen atom ; and • Z 8 and Z 9 , identical or different, are selected from a halogen atom and a (C 1 -C 6 )alkyl group; or one of its salts; said compound of formula (I) being in all the possible racemic, enantiomeric and diastereoisomeric isomer forms. - Z 1 is a (C 1 -C 6 )alkyl group; - P 5 is selected from the following amino acid residues - P 1 and P 4 , identical or different, are selected from the following amino acid residues - P 3 is selected from the following amino acids residues - R 1 is selected from - R 2 is selected from • m is 0, 1 or 2; • p is 1, 2, 3 or 4; • Z 4 is a halogen atom ; and • Z 8 and Z 9 , identical or different, are selected from a halogen atom and a (C 1 -C 6 )alkyl group;
A method for monitoring a battery short circuit, comprising: receiving collected electrical signal information of all cells in each traction battery, wherein the traction battery remains stationary in a battery swap station; performing self-discharge observation and calculating a self-discharge rate based on a cell voltage in electrical signal information of each cell after depolarization is completed, to determine whether there is an internal short circuit in a traction battery where the cell corresponding to the self-discharge rate is located, wherein self-discharge observation and calculating the self-discharge rate are performed in a first phase and a second phase, wherein a first-phase self-discharge rate of each cell is used to determine whether to perform the second phase of self-discharge observation and calculation for the traction battery where the cell is located; and triggering alarm handling for the internal short circuit in the traction battery based on a back-fed result that there is an internal short circuit in the traction battery. receiving collected electrical signal information of all cells in each traction battery, wherein the traction battery remains stationary in a battery swap station; performing self-discharge observation and calculating a self-discharge rate based on a cell voltage in electrical signal information of each cell after depolarization is completed, to determine whether there is an internal short circuit in a traction battery where the cell corresponding to the self-discharge rate is located, wherein self-discharge observation and calculating the self-discharge rate are performed in a first phase and a second phase, wherein a first-phase self-discharge rate of each cell is used to determine whether to perform the second phase of self-discharge observation and calculation for the traction battery where the cell is located; and triggering alarm handling for the internal short circuit in the traction battery based on a back-fed result that there is an internal short circuit in the traction battery.