mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless charging system , comprising: a transmitter coil configured to generate a magnetic flux; a receiver coil positioned coaxial with the transmitter coil to receive the generated magnetic flux, wherein electrical interaction between the transmitter coil and the receiver coil generates electric fields; a transmitter shield positioned between the transmitter coil and the receiver coil to intercept some of the electric fields directed away from the transmitter coil and allow the magnetic flux to pass through the transmitter shield ; and a receiver shield positioned between the transmitter shield and the receiver coil to intercept some of the electric fields directed away from the receiver coil and allow the magnetic flux to pass through the receiver shield , the receiver shield defining a gap being adapted to provide space for other components of the system and a cut positioned opposite to and separate from the gap, the gap and the cut each extending completely through the receiver shield from an inner diameter of the receiver shield to an outer diameter of the receiver shield, to electrically separate the receiver shield into a first half and a second half . a transmitter coil configured to generate a magnetic flux; a receiver coil positioned coaxial with the transmitter coil to receive the generated magnetic flux, wherein electrical interaction between the transmitter coil and the receiver coil generates electric fields; a transmitter shield positioned between the transmitter coil and the receiver coil to intercept some of the electric fields directed away from the transmitter coil and allow the magnetic flux to pass through the transmitter shield ; and a receiver shield positioned between the transmitter shield and the receiver coil to intercept some of the electric fields directed away from the receiver coil and allow the magnetic flux to pass through the receiver shield , the receiver shield defining a gap being adapted to provide space for other components of the system and a cut positioned opposite to and separate from the gap, the gap and the cut each extending completely through the receiver shield from an inner diameter of the receiver shield to an outer diameter of the receiver shield, to electrically separate the receiver shield into a first half and a second half .
A washing machine comprising a body ; a top panel which covers the body ; a control card which is positioned between the top panel and the body and which is configured to control the washing programs; and a protective cover which protects the control card against external factors such as fire, water and dust, wherein the protective cover has at least one claw configured to mount directly to the top panel , and the top panel has at least one housing configured to engage with the claw , characterized by the protective cover having at least one centering hole so as to enable the protective cover to be aligned in a position on the top panel in a manner to cover the control card , and the top panel having a post which is inserted into the centering hole .
Filter element for filtering a fluid, in particular for filtering combustion air in a motor vehicle and/or for filtering operating means of a motor vehicle, having a zigzag-folded filter medium comprising plurality of adjacent fold edges , and having at least one thread applied to the fold edges using an adhesive material , characterized in that the thread is designed as plied yarn.
A docking station for a handheld electronic device ; the docking station comprising - a main body comprising a slot ; - one or more feet extending downwards from the main body and enabling the main body to be placed on a ground; and - a detachable back support extending upwards from the main body and enabling an electronic device to be placed into the docking station ; - wherein the slot has dimensions which correspond to dimensions of a lower edge of the back support and the lower edge of the back support is configured to be placed within the slot of the main body for attaching the back support to the main body ; - wherein the back support comprises a first magnetic element at the lower edge of the back support ; - the main body comprises a second magnetic element within the slot ; and - the first magnetic element and the second magnetic element are configured to attract one another, such that the back support is retained within the slot of the main body ; characterized in that - the docking station comprises a control element and a lever connected to the control element , wherein the lever is configured to move the second magnetic element away from the first magnetic element , when the control element is actuated, in order to reduce a magnetic force between the first magnetic element and the second magnetic element , and to allow a user to remove the back support from the slot . - a main body comprising a slot ; - one or more feet extending downwards from the main body and enabling the main body to be placed on a ground; and - a detachable back support extending upwards from the main body and enabling an electronic device to be placed into the docking station ; - wherein the slot has dimensions which correspond to dimensions of a lower edge of the back support and the lower edge of the back support is configured to be placed within the slot of the main body for attaching the back support to the main body ; - wherein the back support comprises a first magnetic element at the lower edge of the back support ; - the main body comprises a second magnetic element within the slot ; and - the first magnetic element and the second magnetic element are configured to attract one another, such that the back support is retained within the slot of the main body ; characterized in that - the docking station comprises a control element and a lever connected to the control element , wherein the lever is configured to move the second magnetic element away from the first magnetic element , when the control element is actuated, in order to reduce a magnetic force between the first magnetic element and the second magnetic element , and to allow a user to remove the back support from the slot .
Device , characterized in that the device serves for reversible mutual mechanical connection of at least two printed-circuit-board plug connectors via at least one coupling element , wherein the device has at least one insertion opening for insertion of the at least one coupling element in an insertion direction, and wherein the device furthermore has at least two push-in openings for pushing-in of the at least two printed-circuit-board plug connectors in a pushing-in direction, wherein the at least one insertion opening is connected to two of the push-in openings to allow the at least one coupling element to be fixed mechanically to in each case two of the printed-circuit-board plug connectors . wherein the device has at least one insertion opening for insertion of the at least one coupling element in an insertion direction, and wherein the device furthermore has at least two push-in openings for pushing-in of the at least two printed-circuit-board plug connectors in a pushing-in direction, wherein the at least one insertion opening is connected to two of the push-in openings to allow the at least one coupling element to be fixed mechanically to in each case two of the printed-circuit-board plug connectors .
A machine tool having a plurality of sensors (20-23) for recording at least one measured variable each, which sensors are integrated into a first network , wherein the machine tool comprises a synchronisation device , with which the sensors (20-23) are connected, for the synchronised and/or triggered recording of measured variables, characterised in that one or a plurality of sensors (20-23) is arranged in a sensor module (40-43) having a timer (44-47) which is connected to the synchronisation device , wherein the sensors (20-23) are designed as acceleration sensors, in particular MEMS sensors, for recording vibrations and an evaluation device is provided which is designed to record a parameter describing the machine condition determined from at least one sensor signal of an acceleration sensor of the plurality of sensors (20-23) and to compare it with a reference variable.
A transparent layered element having two smooth outer main surfaces , characterized in that it comprises: - two outer layers , which each form one of the two outer main surfaces of the layered element and which are constituted of dielectric materials having substantially the same refractive index (n2, n4), and - a central layer inserted between the outer layers, this central layer being formed either by a single layer which is a dielectric layer having a refractive index (n3) different from that of the outer layers or a metal layer, or by a stack of layers (3 1 , 3 2 , ..., 3 k ) which comprises at least one dielectric layer having a refractive index different from that of the outer layers or a metal layer, where each contact surface (S 0 , S 1 , ..., S k ) between two adjacent layers of the layered element which are one a dielectric layer and the other a metal layer, or which are two dielectric layers having different refractive indices, is textured and parallel to the other textured contact surfaces between two adjacent layers which are one a dielectric layer and the other a metal layer or which are two dielectric layers having different refractive indices, characterized in that the or each constituent layer of the central layer is a layer deposited by sputtering onto a textured surface. - two outer layers , which each form one of the two outer main surfaces of the layered element and which are constituted of dielectric materials having substantially the same refractive index (n2, n4), and - a central layer inserted between the outer layers, this central layer being formed either by a single layer which is a dielectric layer having a refractive index (n3) different from that of the outer layers or a metal layer, or by a stack of layers (3 1 , 3 2 , ..., 3 k ) which comprises at least one dielectric layer having a refractive index different from that of the outer layers or a metal layer,
Gas valve for a cooking appliance, comprising a tactile feedback device, the valve comprising a valve body and an axially movable rotating shaft coupled to said valve body , the gas flow through the valve being changed by means of rotation of the shaft , and the tactile feedback device comprising a fixed portion and a rotating portion rotating integrally with the shaft , one of said portions comprising at least one follower arranged radially with respect to the shaft and the other one of said portions comprising at least one circular guide section which comprises a plurality of contiguous housings and guides the follower to provide a tactile sensation during rotation of the shaft , wherein the fixed portion comprises a base fixed to the valve body and wherein the rotating portion comprises a support, characterized in that the tactile feedback device is arranged outside the gas valve , and in that the support of the rotating portion is fixed to the shaft of the valve , such that the rotating portion, in addition to rotating integrally with the shaft of the valve , moves integrally with said shaft in an axial manner.
A needle assembly comprising: a housing having proximal and distal ends; a cannula having an IV end projecting distally from the housing and a non-patient end projecting proximally from the housing; and an IV shield comprising a pair of spaced-apart sidewalls that define a space for receiving a portion of the IV end of the cannula, the IV shield pivotally secured to the housing and having a pre-use position, in which the IV shield covers a portion of the IV end of the cannula, and a use position, in which the IV shield is adapted to move between a non-shielded position and a shielded position, wherein at least one of the sidewalls comprises a first projection adapted to temporarily engage the housing when the IV shield is in the pre-use position, and at least one of the sidewalls comprises a second projection adapted to permanently engage the housing when the IV shield is in the shielded position. a housing having proximal and distal ends; a cannula having an IV end projecting distally from the housing and a non-patient end projecting proximally from the housing; and an IV shield comprising a pair of spaced-apart sidewalls that define a space for receiving a portion of the IV end of the cannula, the IV shield pivotally secured to the housing and having a pre-use position, in which the IV shield covers a portion of the IV end of the cannula, and a use position, in which the IV shield is adapted to move between a non-shielded position and a shielded position, wherein at least one of the sidewalls comprises a first projection adapted to temporarily engage the housing when the IV shield is in the pre-use position, and at least one of the sidewalls comprises a second projection adapted to permanently engage the housing when the IV shield is in the shielded position.
A stacked organic light-emitting diode , comprising: at least two light-emitting units in a stacked arrangement; and a charge generation layer disposed between the adjacent light-emitting units , wherein the charge generation layer comprises a first material layer , an electron injection layer disposed on the first material layer and a second material layer disposed on the electron injection layer , characterized in that the first material layer is made of a first mixed material, which is formed by mixing at least one first material having a first electrical conductivity and at least one second material having a second electrical conductivity, the first electrical conductivity being greater than the second electrical conductivity, and in that the second material layer is made of a second mixed material, which is formed by mixing at least one third material having a third electrical conductivity and at least one fourth material having a fourth electrical conductivity, the third electrical conductivity being greater than the fourth electrical conductivity, wherein the first material is a metal material and the second material is an organic material, and wherein the third material is a metal material and the fourth material is an organic material, and wherein the organic material of the second material is chosen from Alq 3 , Alq, MADN, TPBi, BCP, BPhen, and the organic material of the fourth material is chosen from Alq 3 , Alq, MADN, TPBi, BCP, BPhen. at least two light-emitting units in a stacked arrangement; and a charge generation layer disposed between the adjacent light-emitting units , wherein the charge generation layer comprises a first material layer , an electron injection layer disposed on the first material layer and a second material layer disposed on the electron injection layer , characterized in that the first material layer is made of a first mixed material, which is formed by mixing at least one first material having a first electrical conductivity and at least one second material having a second electrical conductivity, the first electrical conductivity being greater than the second electrical conductivity, and in that the second material layer is made of a second mixed material, which is formed by mixing at least one third material having a third electrical conductivity and at least one fourth material having a fourth electrical conductivity, the third electrical conductivity being greater than the fourth electrical conductivity, wherein the first material is a metal material and the second material is an organic material, and wherein the third material is a metal material and the fourth material is an organic material, and wherein the organic material of the second material is chosen from Alq 3 , Alq, MADN, TPBi, BCP, BPhen, and the organic material of the fourth material is chosen from Alq 3 , Alq, MADN, TPBi, BCP, BPhen.
Apparatus for making a contoured composite hat stringer , comprising: a pair of dies configured to be contoured along a length and defining a die cavity into which a flat composite charge may be formed into a contoured hat section having a cap ; a punch configured to form the composite charge into the die cavity ; and a bladder located within the die cavity between the dies and configured to be arranged beneath the composite charge , the bladder being sized to completely fill the die cavity when the bladder is inflated and being configured to constrain the cap as the contoured hat section is being formed. a pair of dies configured to be contoured along a length and defining a die cavity into which a flat composite charge may be formed into a contoured hat section having a cap ; a punch configured to form the composite charge into the die cavity ; and a bladder located within the die cavity between the dies and configured to be arranged beneath the composite charge , the bladder being sized to completely fill the die cavity when the bladder is inflated and being configured to constrain the cap as the contoured hat section is being formed.
An After Treatment System (ATS) with a thermal management system, the ATS comprising a number of pollutants abatement devices and being conceived to convey and purify exhaust gas produced by an internal combustion engine , the thermal management system comprising: - a jacket wrapping at least a portion of said ATS, - an insulated tank suitable to store a thermal liquid, - moving means for moving said thermal liquid between said jacket and said insulated tank , said moving means comprising a piping connecting a lower portion of said jacket with a lower portion of said insulated tank , and a liquid pump suitable to move said thermal liquid from said jacket to said insulated tank , characterized in that the thermal management system comprises - control means configured to control said moving means • to introduce said thermal liquid in said jacket , so as to exchange heat between the thermal liquid and said at least a portion of the ATS when the engine is operative, and • to move the thermal liquid from said jacket to said insulated tank by said liquid pump and store said thermal liquid in said insulated tank when the engine is shut-off in order to store its heat content. - a jacket wrapping at least a portion of said ATS, - an insulated tank suitable to store a thermal liquid, - moving means for moving said thermal liquid between said jacket and said insulated tank , said moving means comprising a piping connecting a lower portion of said jacket with a lower portion of said insulated tank , and a liquid pump suitable to move said thermal liquid from said jacket to said insulated tank , characterized in that the thermal management system comprises - control means configured to control said moving means • to introduce said thermal liquid in said jacket , so as to exchange heat between the thermal liquid and said at least a portion of the ATS when the engine is operative, and • to move the thermal liquid from said jacket to said insulated tank by said liquid pump and store said thermal liquid in said insulated tank when the engine is shut-off in order to store its heat content. • to introduce said thermal liquid in said jacket , so as to exchange heat between the thermal liquid and said at least a portion of the ATS when the engine is operative, and • to move the thermal liquid from said jacket to said insulated tank by said liquid pump and store said thermal liquid in said insulated tank when the engine is shut-off in order to store its heat content.
A measurement device comprising: a measurement unit including a first mode that measures an electrical resistance of a recording medium used in an image forming apparatus in a first predetermined range of electrical resistance values and a second mode that measures the electrical resistance in a second range of electrical resistance values different from the first range, the second range and the first range being set such that with respect to the electrical resistance of a plurality of brands of recording media, a number of brands belonging to the second range is greater than a number of brands belonging to the first range; and a control unit that controls the measurement unit to prioritize execution of the second mode over the first mode. a measurement unit including a first mode that measures an electrical resistance of a recording medium used in an image forming apparatus in a first predetermined range of electrical resistance values and a second mode that measures the electrical resistance in a second range of electrical resistance values different from the first range, the second range and the first range being set such that with respect to the electrical resistance of a plurality of brands of recording media, a number of brands belonging to the second range is greater than a number of brands belonging to the first range; and a control unit that controls the measurement unit to prioritize execution of the second mode over the first mode.
A microelectromechanical microphone comprising: a supporting substrate (2; 402; 502; 602; 702), having a first face (2a; 402a) and a second face (2b; 502b); a sensor chip (5; 305; 505), bonded to the first face (2a; 402a) of the supporting substrate (2; 402; 502; 602; 702) and integrating a microelectromechanical electroacoustic transducer ; and a control chip (6; 106; 206; 306; 406; 506; 606), having at least one portion between the first face (2a; 402a) and the second face (2b; 502b) of the supporting substrate (2; 402; 702), wherein the control chip houses an integrated control circuit and is operatively coupled to the sensor chip (5; 305; 505); wherein the sensor chip (5; 105) is at least partially arranged on top of the control chip (6; 106); wherein the supporting substrate (2; 402; 502; 602; 702) has a through seat (12; 512; 612) between the first face (2a; 402a) and the second face (2b; 502b), and the control chip (6; 106; 206; 306; 406; 506; 606) is housed at least partially in the through seat (12; 512; 612), wherein the through seat (12; 512; 612) is defined by a through hole in the supporting substrate and extends throughout the thickness of the supporting substrate . a supporting substrate (2; 402; 502; 602; 702), having a first face (2a; 402a) and a second face (2b; 502b); a sensor chip (5; 305; 505), bonded to the first face (2a; 402a) of the supporting substrate (2; 402; 502; 602; 702) and integrating a microelectromechanical electroacoustic transducer ; and a control chip (6; 106; 206; 306; 406; 506; 606), having at least one portion between the first face (2a; 402a) and the second face (2b; 502b) of the supporting substrate (2; 402; 702), wherein the control chip houses an integrated control circuit and is operatively coupled to the sensor chip (5; 305; 505); wherein the sensor chip (5; 105) is at least partially arranged on top of the control chip (6; 106); wherein the supporting substrate (2; 402; 502; 602; 702) has a through seat (12; 512; 612) between the first face (2a; 402a) and the second face (2b; 502b), and the control chip (6; 106; 206; 306; 406; 506; 606) is housed at least partially in the through seat (12; 512; 612), wherein the through seat (12; 512; 612) is defined by a through hole in the supporting substrate and extends throughout the thickness of the supporting substrate .
A device for cleaning a filter cloth in a rotary disc filter , said filter cloth being arranged on disc-shaped filter elements which are arranged side by side along a longitudinal direction (L) of the rotary disc filter and rotatably arranged about a centre axis (C) of the rotary disc filter , said device comprising a flushing ramp , said flushing ramp having a driving device for moving the flushing ramp along the longitudinal direction (L) of the rotary disc filter during cleaning characterised in that two spray nozzles are arranged on the flushing ramp , and said two spray nozzles are fixedly mounted on a flush tube each, which are in turn fixedly connected to the flushing ramp and extend in a plane substantially perpendicular to said axis (C), said nozzles being arranged on both sides of a disc-shaped filter element and being oriented towards each other and towards the filter cloth on one side each of the disc-shaped filter element .