mhurhangee/ep-ind-claims huggingface dataset:
A power tool comprising: a clamp mechanism adapted to fixedly hold a tool; and an operating mechanism adapted to operate the clamp mechanism, the power tool being adapted to drive the tool held by the clamp mechanism; wherein the operating mechanism comprises a grasping part adapted to be grasped by an operator; movement of the grasping part causes the operating mechanism to switch between a first mode, in which the clamp mechanism can fixedly hold the tool, and a second mode, in which the tool can be removed; the operating mechanism is adapted to switch from the first mode to the second mode by pivoting the grasping part in a direction away from the tool, the grasping part is pivotable between a first position and a second position, the operating mechanism is in the first mode at the first position and is in the second mode at the second position, when the grasping part is in the first position, a free end of the grasping part is a first distance from the tool and when the grasping part is in the second position, the free end of the grasping part is a second distance from the tool, the second distance being greater than the first distance, and the grasping part is pivotable from the first position to a third position, which differs from the second position, the grasping part being securable to a power tool main body at the third position, characterized in that the grasping part is securable to the power tool main body at the third position by the elastic force of a protective rubber member. a clamp mechanism adapted to fixedly hold a tool; and an operating mechanism adapted to operate the clamp mechanism, the power tool being adapted to drive the tool held by the clamp mechanism; wherein the operating mechanism comprises a grasping part adapted to be grasped by an operator; movement of the grasping part causes the operating mechanism to switch between a first mode, in which the clamp mechanism can fixedly hold the tool, and a second mode, in which the tool can be removed; the operating mechanism is adapted to switch from the first mode to the second mode by pivoting the grasping part in a direction away from the tool, the grasping part is pivotable between a first position and a second position, the operating mechanism is in the first mode at the first position and is in the second mode at the second position, when the grasping part is in the first position, a free end of the grasping part is a first distance from the tool and when the grasping part is in the second position, the free end of the grasping part is a second distance from the tool, the second distance being greater than the first distance, and the grasping part is pivotable from the first position to a third position, which differs from the second position, the grasping part being securable to a power tool main body at the third position, characterized in that the grasping part is securable to the power tool main body at the third position by the elastic force of a protective rubber member.
A cooling structure (10, 44), comprising: a flow path configuration member made of resin and forming a flow path through which a refrigerant flows; and a bus bar, characterized in that the cooling structure (10, 44) further comprises a heat diffuser having a plate shape, including a metal, and being embedded in the flow path configuration member or joined to an outer wall of the flow path configuration member without being in contact with the flow path; one or more cooling fins extending from the heat diffuser into the flow path and having a surface made of resin; and in that the bus bar, which is cooled by transferring heat to the heat diffuser, is fixed by a bolt and a nut on a side opposite to a side from which the one or more cooling fins of the heat diffuser extend. a flow path configuration member made of resin and forming a flow path through which a refrigerant flows; and a bus bar, characterized in that the cooling structure (10, 44) further comprises a heat diffuser having a plate shape, including a metal, and being embedded in the flow path configuration member or joined to an outer wall of the flow path configuration member without being in contact with the flow path; one or more cooling fins extending from the heat diffuser into the flow path and having a surface made of resin; and in that the bus bar, which is cooled by transferring heat to the heat diffuser, is fixed by a bolt and a nut on a side opposite to a side from which the one or more cooling fins of the heat diffuser extend.
A blade holder assembly for blender, comprising a cup body, a cup base and a blade holder component, the cup body is arranged on the cup base, and the cup base connects the cup body with the blade holder component, wherein, the blade holder component comprises a blade holder arranged right below the cup base and connected with the cup base; a handle is vertically arranged on the bottom of the blade holder; characterized in that, connecting members are arranged on both ends of the handle; a locator is arranged on the bottom of the blade holder to locate the relative position of the handle and the blade holder; a connector is arranged at the center of the locator, and the blade holder, the locator and the connector are coaxial; a guide bone is arranged on the edge of the blade holder, and a rotary button is arranged in the guide bone; on the rotary fastener, two opposing fastening members are arranged; the connecting members at both ends of the handle are connected with the rotary fastener; a guide slot is arranged on the inner edge of the cup base to connect with the guide bone; in the guide slot, a convex button is arranged for fastening the rotary fastener.
A transillumination device configured to be placed near the patient's skin for vein or skin surface imaging, the transillumination device comprising in combination: a housing having a first end, a second end, a top surface, and a bottom surface, a transillumination light generating assembly, said transillumination light generating assembly comprising three light sources, namely a yellow-orange first light source, an amber second light source, and a lime green third light source, the first light source being composed of LEDs producing light having a wavelength in the range of from 585-595 nm for illumination of shallow veins, the second light source being composed of LEDs producing light having a wavelength in the range of approximately 600-610 nm for transillumination of deeper veins, and the third light source being composed of LEDs producing light having a wavelength in the range of approximately 535-545 nm for illumination of arteries, an on/off switch for turning the transillumination device on and off, a light control switch for switching between the first, second, and third light sources, and a power source contained within the housing for powering the first, second, and third light sources. a housing having a first end, a second end, a top surface, and a bottom surface, a transillumination light generating assembly, said transillumination light generating assembly comprising three light sources, namely a yellow-orange first light source, an amber second light source, and a lime green third light source, the first light source being composed of LEDs producing light having a wavelength in the range of from 585-595 nm for illumination of shallow veins, the second light source being composed of LEDs producing light having a wavelength in the range of approximately 600-610 nm for transillumination of deeper veins, and the third light source being composed of LEDs producing light having a wavelength in the range of approximately 535-545 nm for illumination of arteries, an on/off switch for turning the transillumination device on and off, a light control switch for switching between the first, second, and third light sources, and a power source contained within the housing for powering the first, second, and third light sources.
A method for manufacturing at least a portion of a part by successive depositions of layers, comprising the steps consisting of: a) depositing a first layer of molten metal on a substrate, so as to form a first metallic bead on the substrate, b) depositing a second layer of molten metal on said first bead, so as to form a second metallic bead on said first bead, and c) repeating steps a) and b) for each new metallic layer to be deposited on top of the previous bead, until the formation of said at least one portion of the part, characterised in that it comprises, after n step(s) of deposition, n being greater than or equal to 1, a step whereby the formed bead is compressed, and in that the compression step is performed hot, i.e. before the complete cooling of said bead, the compression step being performed by shot peening of said bead at a temperature of more than 100°C. a) depositing a first layer of molten metal on a substrate, so as to form a first metallic bead on the substrate, b) depositing a second layer of molten metal on said first bead, so as to form a second metallic bead on said first bead, and c) repeating steps a) and b) for each new metallic layer to be deposited on top of the previous bead, until the formation of said at least one portion of the part,
An appliance charging stand, comprising: a housing with an upper portion defining a receptacle for an appliance, a base defining a front end, a rear end, a first side, and a second side connected to said upper portion and having a peripheral edge, wherein said base defines at least one corner at an intersection of said front end said first side, and said rear end and said second side, respectively; and a swiveling jack located at one of said at least one corners defining a power cord connection socket and rotatably secured between said upper portion and said base to swivel about a vertical axis between a first position and a second position, wherein in said first position said socket faces one of said front end and said rear end, and in said second position, said socket faces one of said first side and said second side. a housing with an upper portion defining a receptacle for an appliance, a base defining a front end, a rear end, a first side, and a second side connected to said upper portion and having a peripheral edge, wherein said base defines at least one corner at an intersection of said front end said first side, and said rear end and said second side, respectively; and a swiveling jack located at one of said at least one corners defining a power cord connection socket and rotatably secured between said upper portion and said base to swivel about a vertical axis between a first position and a second position, wherein in said first position said socket faces one of said front end and said rear end, and in said second position, said socket faces one of said first side and said second side.
A welding assembly (200; 400) for welding stranded metals and metal alloys, said welding assembly (200; 400) comprising: a current generator; a first electrode electrically coupled to said current generator, said first electrode comprising a first engagement surface; a second electrode (214; 414) electrically coupled to said current generator, said second electrode comprising a second engagement surface; a width-determining fixture positioned to define a welding volume between said first electrode and said second electrode, said welding volume having a width, being characterised in that said width-determining fixture is capable of being adjusted in an axial direction with respect to said first and second electrodes (212, 214), said width-determining fixture comprising a first side stop housed within a first sleeve laterally opposed from a second side stop housed within a second sleeve, said first side stop being connected within the first sleeve by a first biasing element and thereby being outwardly biased from within said first sleeve and the second side stop being connected within said second sleeve by a second biasing element and thereby being outwardly biased from within said second sleeve; and further characterised by an electrically nonconductive material (202; 402) positioned to electrically insulate at least one of said first electrode and said second electrode (214; 414) from an electrical conductor outside said width. a current generator; a first electrode electrically coupled to said current generator, said first electrode comprising a first engagement surface; a second electrode (214; 414) electrically coupled to said current generator, said second electrode comprising a second engagement surface; a width-determining fixture positioned to define a welding volume between said first electrode and said second electrode, said welding volume having a width, being characterised in that said width-determining fixture is capable of being adjusted in an axial direction with respect to said first and second electrodes (212, 214), said width-determining fixture comprising a first side stop housed within a first sleeve laterally opposed from a second side stop housed within a second sleeve, said first side stop being connected within the first sleeve by a first biasing element and thereby being outwardly biased from within said first sleeve and the second side stop being connected within said second sleeve by a second biasing element and thereby being outwardly biased from within said second sleeve; and further characterised by an electrically nonconductive material (202; 402) positioned to electrically insulate at least one of said first electrode and said second electrode (214; 414) from an electrical conductor outside said width.
A control system for controlling an output for at least one compressor, said control system comprising: a control unit configured to receive an indoor set point and an outdoor ambient temperature and configured to determine a load request based on the indoor set point and the outdoor ambient temperature and not based on an indoor room temperature; and at least one compressor configured to receive control commands from the control unit based on the load request; wherein the control unit includes a sensible load determination unit configured to determine a sensible load request based on a sensible load model, the indoor set point, and the outdoor ambient temperature, the sensible load model being determined based on at least one of a type and a location of a plurality of building walls, a size of the building, a number and a size of a plurality of building rooms, a number, a size, and a location of a plurality of building windows, a number and a location of a plurality of air conditioning vents, an amount, a type, and a location of insulation, a type of furniture, a regional location of the building, a number of people living or working in the building, a number of electronics used in the building, and a sun load on the building. a control unit configured to receive an indoor set point and an outdoor ambient temperature and configured to determine a load request based on the indoor set point and the outdoor ambient temperature and not based on an indoor room temperature; and at least one compressor configured to receive control commands from the control unit based on the load request; wherein the control unit includes a sensible load determination unit configured to determine a sensible load request based on a sensible load model, the indoor set point, and the outdoor ambient temperature, the sensible load model being determined based on at least one of a type and a location of a plurality of building walls, a size of the building, a number and a size of a plurality of building rooms, a number, a size, and a location of a plurality of building windows, a number and a location of a plurality of air conditioning vents, an amount, a type, and a location of insulation, a type of furniture, a regional location of the building, a number of people living or working in the building, a number of electronics used in the building, and a sun load on the building.
A method for compressing and transmitting motion data, the method comprising: receiving high fidelity motion data from a motion sensing device, the high fidelity motion data including a plurality of motion data samples; detecting if a high bandwidth network or a constrained network is available; transmitting the high fidelity motion data to a server if it is detected that a high-bandwidth network is available; and if it is detected that a high-bandwidth network is not available: determining if a trigger condition has been met; if the trigger condition has been met, transmitting the high fidelity motion data to the server, while connected to the constrained network; and if the trigger condition has not been met, transmitting low fidelity motion data to the server, while connected to the constrained network; wherein the step of transmitting low fidelity motion data includes compressing the high fidelity motion data, wherein compressing the high fidelity motion data comprises identifying a subset of the motion data samples and generating a value representing the summary of activity based on the subset of the motion data samples, and transmitting the compressed high fidelity motion data to a server. receiving high fidelity motion data from a motion sensing device, the high fidelity motion data including a plurality of motion data samples; detecting if a high bandwidth network or a constrained network is available; transmitting the high fidelity motion data to a server if it is detected that a high-bandwidth network is available; and if it is detected that a high-bandwidth network is not available: determining if a trigger condition has been met; if the trigger condition has been met, transmitting the high fidelity motion data to the server, while connected to the constrained network; and if the trigger condition has not been met, transmitting low fidelity motion data to the server, while connected to the constrained network; determining if a trigger condition has been met; if the trigger condition has been met, transmitting the high fidelity motion data to the server, while connected to the constrained network; and if the trigger condition has not been met, transmitting low fidelity motion data to the server, while connected to the constrained network; wherein the step of transmitting low fidelity motion data includes compressing the high fidelity motion data, wherein compressing the high fidelity motion data comprises identifying a subset of the motion data samples and generating a value representing the summary of activity based on the subset of the motion data samples, and transmitting the compressed high fidelity motion data to a server.
Drive system for a machine tool, in particular for a machine tool for sheet metal machining, • having a spindle arrangement which has two drive spindles (23, 24) which extend parallel with each other and each of which is rotatably supported about a spindle axis (25, 26) and which can be driven about the respective spindle axis (25, 26) and • having two spindle nuts (42, 43), which can be moved by means of the spindle arrangement simultaneously with longitudinal movements in the longitudinal direction of the drive spindle (23, 24), wherein the drive spindles (23, 24) each have at one end a fixed bearing (27, 29) acting in the longitudinal direction of the drive spindles (23, 24), are equally long and structurally identical with regard to their torsional rigidity and their axial rigidity and wherein one of the spindle nuts (42, 43) is seated on each of the drive spindles (23, 24), and the spindle nuts (42, 43) can be moved by means of the spindle arrangement simultaneously with longitudinal movements in the longitudinal direction of the drive spindles (23, 24) by each of the spindle nuts (42, 43) being able to be moved by means of the associated drive spindle (23, 24) with a longitudinal movement, characterised in that, at the start of the simultaneous longitudinal movements, the spindle nuts (42, 43) are spaced apart from each other by a distance value (d), different from zero, in the longitudinal direction of the drive spindles (23, 24), and in that the drive spindles (23, 24) are offset relative to each other, in their longitudinal direction, by the distance value (d) of the spindle nuts (42, 43). • having a spindle arrangement which has two drive spindles (23, 24) which extend parallel with each other and each of which is rotatably supported about a spindle axis (25, 26) and which can be driven about the respective spindle axis (25, 26) and • having two spindle nuts (42, 43), which can be moved by means of the spindle arrangement simultaneously with longitudinal movements in the longitudinal direction of the drive spindle (23, 24),
Centrifugal fan comprising a fan wheel apt to process a fluid between an inlet and an outlet, said fan wheel comprising an array of blades arranged around an axis, a disc-shaped base normal to the axis and to which said blades are rigidly connected, a hub coaxial to the axis and rigidly connected to the disc-shaped base, an air conveyor made in a piece separate from the hub, said air conveyor being apt to gradually convey the fluid from a substantially axial motion at the inlet to a substantially radial motion at the outlet, said disc-shaped base being made of sheet metal and said air conveyor being rigidly connected to the disc-shaped base, characterized by comprising at least one connecting structural element between the hub and the air conveyor, the inlet having the shape of an annulus wherein the inner circumference is separated from the hub.
Device for protecting an electrical consumer from an overload, wherein the device comprises a first current path, which comprises a first and second line (101, 102), and a monitoring facility, for determining the impending overload of the electrical consumer, wherein the monitoring facility comprises a temperature measuring unit, an evaluation unit and a measuring transformer, which connects the first line to the second line in an electrically conducting manner, wherein the temperature measuring unit can detect a temperature of the measuring transformer, wherein the evaluation unit can determine a temporal heating behaviour of the measuring transformer by means of detected temperatures of the temperature measuring unit and can determine an impending overload at the consumer by an evaluation of the determined temporal heating behaviour of the measuring transformer, characterised in that the material of the measuring transformer is at least 50 % CuNi8, CuNi44, CrCl205, CrFeCl135, graphite, steel or a nickel-chrome, nickel-chrome-iron, nickel-chrome-iron-molybdenum, nickel-chrome-molybdenum, nickel-chrome-molybdenum-cobalt, iron-chrome-aluminium or iron-nickel alloy, wherein at the mechanical and electrical connection point of the measuring transformer with the first and/or second line (101, 102), which has a copper content of at least 50%, - the measuring transformer has a coating, which comprises copper, - the measuring transformer is plated and the material of the plated layer is at least 50 % brass or bronze, or - the first and/or second line (101, 102) is plated and the material of the plated layer is an iron alloy or iron, or - a small plate is arranged between the measuring transformer and the first and/or second line (101, 102) in each case, wherein said small plate has one weldable and one solderable surface, which is facing the measuring transformer or the first and/or second line (101, 102) respectively in each case. - the measuring transformer has a coating, which comprises copper, - the measuring transformer is plated and the material of the plated layer is at least 50 % brass or bronze, or - the first and/or second line (101, 102) is plated and the material of the plated layer is an iron alloy or iron, or - a small plate is arranged between the measuring transformer and the first and/or second line (101, 102) in each case, wherein said small plate has one weldable and one solderable surface, which is facing the measuring transformer or the first and/or second line (101, 102) respectively in each case.