mhurhangee/patent-ind-claim-en huggingface dataset:
A float level sensing device, comprising: a main body including a magnetic reed switch ; a frame body assembled to the main body , the frame body including an accommodating space , the magnetic reed switch being disposed corresponding to the accommodating space ; and a float member , the float member being rotatably pivotally connected to the frame body , the float member including a ball and a swing arm connected to the ball , the swing arm extending into the accommodating space and being movable with respect to the magnetic reed switch to induce the reed switch , characterized in that the float member further includes annular fastener , which can include a plurality of fastening elements, connected to the ball and the swing arm , and/or wherein the body further includes two holes , the magnetic reed switch is disposed corresponding to the two holes , the swing arm consists of a magnetic material, and the swing arm magnetically inducing the magnetic reed switch . a main body including a magnetic reed switch ; a frame body assembled to the main body , the frame body including an accommodating space , the magnetic reed switch being disposed corresponding to the accommodating space ; and a float member , the float member being rotatably pivotally connected to the frame body , the float member including a ball and a swing arm connected to the ball , the swing arm extending into the accommodating space and being movable with respect to the magnetic reed switch to induce the reed switch , characterized in that the float member further includes annular fastener , which can include a plurality of fastening elements, connected to the ball and the swing arm , and/or wherein the body further includes two holes , the magnetic reed switch is disposed corresponding to the two holes , the swing arm consists of a magnetic material, and the swing arm magnetically inducing the magnetic reed switch .
A central insertion connector, comprising a main body unit , and a corrosion resistant layer coated on and covering the main body unit , wherein the main body unit comprises a penetrating flow channel extending therethrough; the main body unit at least comprises a threaded connection section and an insertion section that is arranged opposite to the threaded connection section ; wherein surfaces of the flow channel , the threaded connection section , and the insertion section of the main body unit are coated with and covered by the corrosion resistant layer , wherein the threaded connection section is provided with a circumferential groove and the corrosion resistant layer is allowed to penetrate into the circumferential groove of the threaded connection section to form a first retention portion and wherein the insertion section is provided with a trough and the corrosion resistant layer penetrates into the trough of the insertion section to form a second retention portion ; characterized in that a portion of the corrosion resistant layer coated on an outer circumference of the threaded connection section is formed with a thread .
A flexible device comprising: a substrate ; a unit cell being disposed on the substrate and generating electric energy; and first and second current collectors disposed at outer side surfaces of the unit cell on the substrate, wherein at least one of the first and second current collectors includes a conductive bonding layer including a conductive material and any one bonding material of an adhesive agent and a sticking agent, wherein the current collector further comprises a guide electrode formed on an outer surface of a first or second electrode and extends therefrom and wherein the conductive bonding layer is disposed on at least one of the first and second electrodes . a substrate ; a unit cell being disposed on the substrate and generating electric energy; and first and second current collectors disposed at outer side surfaces of the unit cell on the substrate, wherein at least one of the first and second current collectors includes a conductive bonding layer including a conductive material and any one bonding material of an adhesive agent and a sticking agent, wherein the current collector further comprises a guide electrode formed on an outer surface of a first or second electrode and extends therefrom and wherein the conductive bonding layer is disposed on at least one of the first and second electrodes .
Device for measuring a powder mass flow for powder cladding, comprising: - at least one powder metering device , - a control unit , - a powder mass flow sensor , - a powder mass determination device , and - a powder switch , wherein the at least one powder metering device is configured to convey a powder mass via the powder mass flow sensor as a function of the powder switch to a powder mass determination device and/or to a process head , and wherein the control unit is configured to calibrate the powder mass flow sensor on the basis of a powder mass flow measured by the powder mass determination device . - at least one powder metering device , - a control unit , - a powder mass flow sensor , - a powder mass determination device , and - a powder switch ,
Security element with an optically variable structure which has an embossed structure and a coating, wherein the embossed structure and the coating are combined in such a way that at least parts of the coating are completely visible when viewed vertically but are hidden when viewed obliquely, so that different information becomes visible as the viewing direction is changed, wherein the embossed structure comprises a multiplicity of embossed elements which are arranged randomly relative to one another, characterized in that between two adjacent embossed elements there is arranged a plateau, the slope of which corresponds approximately to the average of the slopes of the two adjacent embossed elements.
A sensing intravascular device, comprising: a proximal portion and a distal portion , the distal portion including: a core member ; a plurality of communication lines extending along the core member ; a polymer jacket directly formed around the core member and the plurality of communication lines , the polymer jacket extending at least along a portion of the core member and having a uniform outer diameter, wherein the plurality of communication lines are wrapped around the core member , wherein the polymer jacket does not have a constant thickness, but instead conforms to the shape of the communication lines and the core member while maintaining the uniform outer diameter; and a sensing element positioned distal of the polymer jacket and communicatively coupled to the plurality of communication lines . a core member ; a plurality of communication lines extending along the core member ; a polymer jacket directly formed around the core member and the plurality of communication lines , the polymer jacket extending at least along a portion of the core member and having a uniform outer diameter, wherein the plurality of communication lines are wrapped around the core member , wherein the polymer jacket does not have a constant thickness, but instead conforms to the shape of the communication lines and the core member while maintaining the uniform outer diameter; and a sensing element positioned distal of the polymer jacket and communicatively coupled to the plurality of communication lines .
A stripper assembly for a can bodymaker and being configured to remove a can body from a punch mounted on a ram of the can bodymaker, the stripper assembly comprising: a stripper housing (13;113;213) defining an internal bore through which the punch passes; characterised by a radial offset monitor (10;20;30) comprising one or more eddy current sensors , the one or more eddy current sensors being located within the stripper housing or attached thereto, wherein the radial offset monitor is configured to detect misalignment of the ram and/or the punch, or of a can body held on the punch, within said bore. a stripper housing (13;113;213) defining an internal bore through which the punch passes; characterised by a radial offset monitor (10;20;30) comprising one or more eddy current sensors , the one or more eddy current sensors being located within the stripper housing or attached thereto, wherein the radial offset monitor is configured to detect misalignment of the ram and/or the punch, or of a can body held on the punch, within said bore.
An operating method for a vehicle , in which - on a first display panel , which is arranged in the interior of the vehicle in the field of vision of a person sitting on a driving seat of the vehicle , first graphic data are displayed, - on a second display panel , which has a touch-sensitive surface and is arranged separate from the first display panel within the reach of the person sitting on the driving seat , second graphic data are displayed, which show at least one button, and - when the touch-sensitive surface on the second display panel is touched, at the displayed button the first graphic data that are displayed on the first display panel are so changed that additional information (15-1 to 15-4) belonging to the button is displayed on the first display panel , characterized in that the direction of vision of the person is acquired and it is detected whether the person is looking at the first or second display panel , and characterized in that the display content of the first and/or the second graphic data depends on whether the person is looking at the first or second display panel . - on a first display panel , which is arranged in the interior of the vehicle in the field of vision of a person sitting on a driving seat of the vehicle , first graphic data are displayed, - on a second display panel , which has a touch-sensitive surface and is arranged separate from the first display panel within the reach of the person sitting on the driving seat , second graphic data are displayed, which show at least one button, and - when the touch-sensitive surface on the second display panel is touched, at the displayed button the first graphic data that are displayed on the first display panel are so changed that additional information (15-1 to 15-4) belonging to the button is displayed on the first display panel ,
An optoelectronic device comprising: a semiconductor silicon substrate , non-doped or doped with a first conductivity type; a first doped semiconductor silicon region (14; 14 1 , 14 2 ), electrically connected to the substrate, extending inside of the substrate or on top of the substrate in contact with the substrate, of the first conductivity type or of a second conductivity type opposite to the first type, and more heavily doped than the substrate, the first semiconductor region comprising a surface; seed pads or a seed layer in contact with the first semiconductor region and resting on the surface; a first assembly (A; A1, A2) of first light-emitting diodes (DEL; DEL 1 , DEL 2 ) supported by the first semiconductor region, the first light-emitting diodes comprising semiconductor elements, mainly made of a III-V compound, having a wire, conical, or tapered shape and in contact with the seed pads or with the seed layer and comprising active layers covering the lateral faces of the semiconductor elements; a conductive portion (36; 36 1 , 36 2 ) in contact with the first semiconductor region; and a second semiconductor region (98; 103) electrically connected to the substrate and distant from the first semiconductor region, of the same conductivity type as the first semiconductor region , more heavily doped than the substrate , and connected to a first electrode of the first light-emitting diodes (DEL). a semiconductor silicon substrate , non-doped or doped with a first conductivity type; a first doped semiconductor silicon region (14; 14 1 , 14 2 ), electrically connected to the substrate, extending inside of the substrate or on top of the substrate in contact with the substrate, of the first conductivity type or of a second conductivity type opposite to the first type, and more heavily doped than the substrate, the first semiconductor region comprising a surface; seed pads or a seed layer in contact with the first semiconductor region and resting on the surface; a first assembly (A; A1, A2) of first light-emitting diodes (DEL; DEL 1 , DEL 2 ) supported by the first semiconductor region, the first light-emitting diodes comprising semiconductor elements, mainly made of a III-V compound, having a wire, conical, or tapered shape and in contact with the seed pads or with the seed layer and comprising active layers covering the lateral faces of the semiconductor elements; a conductive portion (36; 36 1 , 36 2 ) in contact with the first semiconductor region; and a second semiconductor region (98; 103) electrically connected to the substrate and distant from the first semiconductor region, of the same conductivity type as the first semiconductor region , more heavily doped than the substrate , and connected to a first electrode of the first light-emitting diodes (DEL).
Method for cooling at least one semiconductor , wherein the time profile of the load of the semiconductor is determined over a predefinable period of time, wherein depending on a load cycle of the semiconductor resulting from the determined time profile of the load, a cooling apparatus for cooling the at least one semiconductor is controlled or regulated, characterised in that the cooling apparatus is controlled or regulated as a function of the load averaged over the predefinable period of time.
A linear combustion engine comprising: a main cylinder comprising a combustion section ; an outer cylinder , separate from the main cylinder , comprising a driver section configured to provide at least some compression work during a compression stroke of the linear combustion engine, the driver section comprising a gas spring, wherein the main cylinder and the outer cylinder are configured such that blow-by gas from the combustion section does not flow into the driver section ; a gas bearing ; a piston assembly configured to travel linearly, the piston assembly comprising: a first piston within the main cylinder between a top dead center position and a bottom dead center position, a second piston within the outer cylinder, and a piston rod coupled to the first piston and to the second piston, and configured to move along the gas bearing ; a translator configured to move with the piston assembly; and a stator configured to: convert kinetic energy of the piston assembly into electrical energy based on relative motion of the translator , and convert electrical energy into kinetic energy of the piston assembly, wherein the linear combustion engine is configured to operate using compression ignition. a main cylinder comprising a combustion section ; an outer cylinder , separate from the main cylinder , comprising a driver section configured to provide at least some compression work during a compression stroke of the linear combustion engine, the driver section comprising a gas spring, wherein the main cylinder and the outer cylinder are configured such that blow-by gas from the combustion section does not flow into the driver section ; a gas bearing ; a piston assembly configured to travel linearly, the piston assembly comprising: a first piston within the main cylinder between a top dead center position and a bottom dead center position, a second piston within the outer cylinder, and a piston rod coupled to the first piston and to the second piston, and configured to move along the gas bearing ; a first piston within the main cylinder between a top dead center position and a bottom dead center position, a second piston within the outer cylinder, and a piston rod coupled to the first piston and to the second piston, and configured to move along the gas bearing ; a translator configured to move with the piston assembly; and a stator configured to: convert kinetic energy of the piston assembly into electrical energy based on relative motion of the translator , and convert electrical energy into kinetic energy of the piston assembly, convert kinetic energy of the piston assembly into electrical energy based on relative motion of the translator , and convert electrical energy into kinetic energy of the piston assembly, wherein the linear combustion engine is configured to operate using compression ignition.
Method for cladding a wall with stone strips , comprising the following steps: - applying a reinforcement mesh against the wall ; - applying a layer of plaster over the reinforcement mesh ; characterised in that the method further comprises the following steps: - providing an impression mould with parallel grooves at a relative distance (A) from each other which is slightly greater than the width of the base (E) of the stone strips to be applied, said base being intended to be applied against the wall ; - pressing the impression mould into the still wet plaster , such that the wet plaster penetrates into the grooves of the impression mould to form parallel ribs ; - removing the impression mould after full or partial curing of the plaster , such that a plaster structure with parallel ribs remains against the wall ; - applying an adhesive mortar directly between the ribs and/or to the base of the stone strips ; - pressing the stone strips into the still wet adhesive mortar between the ribs , whereby the superfluous adhesive mortar can escape through the gap between the stone strip and the ribs ; - optional pointing of the gaps between the stone strips with jointing mortar . - applying a reinforcement mesh against the wall ; - applying a layer of plaster over the reinforcement mesh ; - providing an impression mould with parallel grooves at a relative distance (A) from each other which is slightly greater than the width of the base (E) of the stone strips to be applied, said base being intended to be applied against the wall ; - pressing the impression mould into the still wet plaster , such that the wet plaster penetrates into the grooves of the impression mould to form parallel ribs ; - removing the impression mould after full or partial curing of the plaster , such that a plaster structure with parallel ribs remains against the wall ; - applying an adhesive mortar directly between the ribs and/or to the base of the stone strips ; - pressing the stone strips into the still wet adhesive mortar between the ribs , whereby the superfluous adhesive mortar can escape through the gap between the stone strip and the ribs ; - optional pointing of the gaps between the stone strips with jointing mortar .
A catalytic treatment process for exhaust gases from a turbocharged internal combustion engine, ICE, comprising the steps of: providing a catalytic treatment device, AT, connected to an exhaust conduit carrying exhaust gases from the ICE; providing a secondary air pump, SAP, comprising a single-stage centrifugal compressor, CC, comprising a compressor wheel affixed to a shaft rotatable about an axis, a compressor housing enclosing the compressor wheel and defining an air inlet, IN, that leads air into the compressor wheel, the compressor housing defining a volute that receives pressurized air from the compressor wheel, and a recirculation passage, RP, connected between the volute and the air inlet for causing a first portion of the pressurized air produced by the compressor wheel to recirculate back to the air inlet; providing an air injection line connected between the SAP and the exhaust conduit at a point upstream of the catalytic treatment device for injecting a second portion of the pressurized air into the exhaust gases proceeding toward the catalytic treatment device; operating the SAP to supply pressurized air into the volute such that the first portion of the pressurized air continuously recirculates so as to heat up the pressurized air in the volute, thereby heating the second portion of the pressurized air that is injected into the exhaust gases proceeding toward the catalytic treatment device. providing a catalytic treatment device, AT, connected to an exhaust conduit carrying exhaust gases from the ICE; providing a secondary air pump, SAP, comprising a single-stage centrifugal compressor, CC, comprising a compressor wheel affixed to a shaft rotatable about an axis, a compressor housing enclosing the compressor wheel and defining an air inlet, IN, that leads air into the compressor wheel, the compressor housing defining a volute that receives pressurized air from the compressor wheel, and a recirculation passage, RP, connected between the volute and the air inlet for causing a first portion of the pressurized air produced by the compressor wheel to recirculate back to the air inlet; providing an air injection line connected between the SAP and the exhaust conduit at a point upstream of the catalytic treatment device for injecting a second portion of the pressurized air into the exhaust gases proceeding toward the catalytic treatment device; operating the SAP to supply pressurized air into the volute such that the first portion of the pressurized air continuously recirculates so as to heat up the pressurized air in the volute, thereby heating the second portion of the pressurized air that is injected into the exhaust gases proceeding toward the catalytic treatment device.
A torque sensing device comprising: a shaft having a first magnetically conditioned region and a second, oppositely polarized magnetically conditioned region ; a first magnetic field sensing device having a first sensitivity direction (m A ) substantially axially aligned with and positioned proximate to the first magnetically conditioned region ; a second magnetic field sensing device having a second sensitivity direction (m B ) substantially axially aligned with and positioned proximate to the second magnetically conditioned region ; and characterized in that the torque sensing unit further comprises an electrical or mechanical switching device for switching between a first electrical connection state for signal detection and a second electrical connection state for noise detection, wherein the switching device is adapted to switch at a frequency greater than a bandwidth of the circuit incorporating the magnetic field sensors , such that in the first electrical connection state, the first magnetic field sensing device and the second magnetic field sensing device have their sensitivity directions (m A , m B ) oppositely oriented, and, in the second electrical connection state, the first magnetic field sensing device and the second magnetic field sensing device have their sensitivity directions (m A , m B ) oriented in the same direction. a shaft having a first magnetically conditioned region and a second, oppositely polarized magnetically conditioned region ; a first magnetic field sensing device having a first sensitivity direction (m A ) substantially axially aligned with and positioned proximate to the first magnetically conditioned region ; a second magnetic field sensing device having a second sensitivity direction (m B ) substantially axially aligned with and positioned proximate to the second magnetically conditioned region ; and characterized in that the torque sensing unit further comprises an electrical or mechanical switching device for switching between a first electrical connection state for signal detection and a second electrical connection state for noise detection, wherein the switching device is adapted to switch at a frequency greater than a bandwidth of the circuit incorporating the magnetic field sensors , such that in the first electrical connection state, the first magnetic field sensing device and the second magnetic field sensing device have their sensitivity directions (m A , m B ) oppositely oriented, and, in the second electrical connection state, the first magnetic field sensing device and the second magnetic field sensing device have their sensitivity directions (m A , m B ) oriented in the same direction.