mhurhangee/ep-ind-claims huggingface dataset:
A phosphor comprising: an inorganic compound comprising: a crystal represented by A 2 (D, E) 5 X 9; a crystal represented by Ca 2 Si 5 O 3 N 6; or an inorganic crystal having a same crystal structure as the crystal represented by the Ca 2 Si 5 O 3 N 6, which includes an A element, a D element, an E element, and an X element (wherein A is one or two or more kinds of elements selected from the group consisting of Mg, Ca, Sr, and Ba; D is one or two or more kinds of elements selected from the group consisting of Si, Ge, Sn, Ti, Zr, and Hf; E is one or two or more kinds of elements selected from the group consisting of B, Al, Ga, In, Sc, Y, and La; and X is a combination of O and N), wherein an M element (wherein M is one or two or more kinds of elements selected from the group consisting of Mn, Ce, Pr, Nd, Sm, Eu, Tb, Dy, and Yb) is solid-solved into each of the crystals. a crystal represented by A 2 (D, E) 5 X 9; a crystal represented by Ca 2 Si 5 O 3 N 6; or an inorganic crystal having a same crystal structure as the crystal represented by the Ca 2 Si 5 O 3 N 6, which includes an A element, a D element, an E element, and an X element (wherein A is one or two or more kinds of elements selected from the group consisting of Mg, Ca, Sr, and Ba; D is one or two or more kinds of elements selected from the group consisting of Si, Ge, Sn, Ti, Zr, and Hf; E is one or two or more kinds of elements selected from the group consisting of B, Al, Ga, In, Sc, Y, and La; and X is a combination of O and N), wherein an M element (wherein M is one or two or more kinds of elements selected from the group consisting of Mn, Ce, Pr, Nd, Sm, Eu, Tb, Dy, and Yb) is solid-solved into each of the crystals.
A hybrid drive module, comprising a housing enclosing a chain drive connecting an electrical motor with a crank shaft of an associated internal combustion engine via at least one coupling (130, 140), characterized in that said housing is formed by an end section of an engine block of an associated internal combustion engine, an ear structure attached to the end section and extending outwards from the engine block, and a cassette sealing the housing, the ear structure being arranged at a vertical position slightly above the lowermost point of a circular area of the end section and that the housing further comprises a reservoir formed by means of an insert arranged within the ear structure and being provided around and behind a first sprocket of the chain drive, said first sprocket being driven directly by the electrical motor, the reservoir having an inlet configured to receive oil from the chain during operation, and an outlet (214, 214') arranged to distribute oil back to the chain.,
An electromagnetic sensing apparatus for measuring, using electromagnetic induction, a position of an object with respect to a device including the electromagnetic sensing apparatus, the apparatus comprising: a loop unit including a first sub-loop unit and a second sub-loop unit; and a controller configured to control the first sub-loop unit to receive a current for generating an electromagnetic field transmitted to the object and the second sub-loop unit to sense an electromagnetic change generated based on the position of the object during a first time period and control the second sub-loop unit to receive a current for generating an electromagnetic field transmitted to the object and the first sub-loop unit to sense an electromagnetic change generated based on the position of the object during a second time period; wherein each of the first and the second sub-loop units (111, 112) includes a plurality of loops, and the controller is further configured to select a first maximum signal loop having a sensing signal, generated by the electromagnetic change, with a maximum magnitude among the plurality of the loops of the second sub-loop unit during the first time period and to provide the current only through the first maximum signal loop during the second time period. a loop unit including a first sub-loop unit and a second sub-loop unit; and a controller configured to control the first sub-loop unit to receive a current for generating an electromagnetic field transmitted to the object and the second sub-loop unit to sense an electromagnetic change generated based on the position of the object during a first time period and control the second sub-loop unit to receive a current for generating an electromagnetic field transmitted to the object and the first sub-loop unit to sense an electromagnetic change generated based on the position of the object during a second time period; wherein each of the first and the second sub-loop units (111, 112) includes a plurality of loops, and the controller is further configured to select a first maximum signal loop having a sensing signal, generated by the electromagnetic change, with a maximum magnitude among the plurality of the loops of the second sub-loop unit during the first time period and to provide the current only through the first maximum signal loop during the second time period.
A system (110, 200) comprising: a set of authentication modules (120, 210); a data store (130, 220) to store data describing disruption ratings of members of the set of authentication modules, wherein the disruption ratings describe a likelihood of the members of the set of authentication modules to interrupt a current user operating a device; a user confidence module (140, 230) to maintain a confidence rating that the current user of the device is an authenticated user of the device, and to control execution of authentication modules based on the confidence rating and the disruption ratings of the authentication modules, where the user confidence module controls execution of relatively less disruptive authentication modules, based on the disruption ratings, when the user confidence module is confident, based on the confidence rating, that the current user of the device is the authenticated user of the device, and where the user confidence module maintains the confidence rating based on feedback received from authentication modules. a set of authentication modules (120, 210); a data store (130, 220) to store data describing disruption ratings of members of the set of authentication modules, wherein the disruption ratings describe a likelihood of the members of the set of authentication modules to interrupt a current user operating a device; a user confidence module (140, 230) to maintain a confidence rating that the current user of the device is an authenticated user of the device, and to control execution of authentication modules based on the confidence rating and the disruption ratings of the authentication modules, where the user confidence module controls execution of relatively less disruptive authentication modules, based on the disruption ratings, when the user confidence module is confident, based on the confidence rating, that the current user of the device is the authenticated user of the device, and where the user confidence module maintains the confidence rating based on feedback received from authentication modules.
A cup holder for a car, comprising: a storage tray 100 in which a storage space 111 for storing a cup is formed; a cup support 200 installed rotatably in one or the other direction in the storage space 111 formed in the storage tray 100; a flap link 300 installed to make a back-and-forth movement while compressing a link spring 600 depending on the rotation amount of the cup support 200; an auxiliary cup support 500 installed, the lower end of the auxiliary cup support 500 rotating around a hinge axis 510 rotatably coupled to a flap housing 400 and the upper portion thereof being drawn into or out of the storage space 111 depending on the amount of the back-and-forth movement of the flap link 300, wherein the cup support 200 comprises: a bottom portion 220 in the storage space 111 of the storage tray 100 rotating around an axis; a support portion 210 which is erected from the bottom portion 220 and supports the outer circumferential surface of a cup in close contact therewith, wherein a coupling protrusion 320 into which the other side of the link spring 600 one side of which is supported by the flap housing 400 is inserted, and a connecting protrusion 310 brought into contact with the auxiliary cup support 500 installed, the lower end of the auxiliary cup support 500 rotating around the hinge axis 510 rotatably coupled to a flap housing 400, are formed on the flap link 300, characterized in that the cup support 200 further comprises a guide rib 230 formed, in a non-circular shape with the starting end and the finishing end thereof having different widths, at the bottom surface of the bottom portion 220 from which the support portion 210 is erected such that the guide rib 230 protrudes outward, the upper portion of the auxiliary cup support 500 is drawn into or out of the storage space 111 depending on the amount of the back-and-forth movement of the flap link 300, and the flap link 300 makes a back-and-forth movement with a side thereof in contact with the guide rib 230.
An adhesive composition comprising multi-stage latex polymer particles comprising (i) a first-stage polymer comprising acrylic acid monomer; a first vinyl monomer; (ii) a second-stage polymer bound to the first-stage polymer, the second-stage polymer comprising meth acrylic acid monomer; a second vinyl monomer, with the proviso that the second vinyl monomer is different than the meth acrylic acid monomer; a linear diamine base; and an ethoxylated surfactant. multi-stage latex polymer particles comprising (i) a first-stage polymer comprising acrylic acid monomer; a first vinyl monomer; (ii) a second-stage polymer bound to the first-stage polymer, the second-stage polymer comprising meth acrylic acid monomer; a second vinyl monomer, with the proviso that the second vinyl monomer is different than the meth acrylic acid monomer; (i) a first-stage polymer comprising acrylic acid monomer; a first vinyl monomer; acrylic acid monomer; a first vinyl monomer; (ii) a second-stage polymer bound to the first-stage polymer, the second-stage polymer comprising meth acrylic acid monomer; a second vinyl monomer, with the proviso that the second vinyl monomer is different than the meth acrylic acid monomer; meth acrylic acid monomer; a second vinyl monomer, with the proviso that the second vinyl monomer is different than the meth acrylic acid monomer; a linear diamine base; and an ethoxylated surfactant.
An autonomous coverage robot (100,101) comprising: a chassis having a forward portion and a rearward portion, the forward portion defining a substantially rectangular shape and the rearward portion defining an arcuate shape when viewed from above; a body attached to the chassis; a drive system carried by the rearward portion of the chassis and configured to maneuver the robot (100,101) over a cleaning surface; at least one proximity sensor disposed on a lateral side of the robot for detecting when an object is proximate that side; a bump sensor configured to detect movement in multiple directions; a controller in communication with the drive system, the controller configured to maneuver the robot (100,101), the controller being configured to alter a drive direction in response to a signal received from the at least one proximity sensor or in response to a contact between the body and an obstacle; a cleaning assembly mounted on the forward portion of the chassis; a bin disposed adjacent the cleaning assembly and configured to receive debris agitated by the cleaning assembly, characterized in that the autonomous coverage robot (100, 101) further comprises right and left front cliff sensors (710A, 710B) disposed at the respective right and left corners of the forward portion (210, 310) of the robot (100, 101). a chassis having a forward portion and a rearward portion, the forward portion defining a substantially rectangular shape and the rearward portion defining an arcuate shape when viewed from above; a body attached to the chassis; a drive system carried by the rearward portion of the chassis and configured to maneuver the robot (100,101) over a cleaning surface; at least one proximity sensor disposed on a lateral side of the robot for detecting when an object is proximate that side; a bump sensor configured to detect movement in multiple directions; a controller in communication with the drive system, the controller configured to maneuver the robot (100,101), the controller being configured to alter a drive direction in response to a signal received from the at least one proximity sensor or in response to a contact between the body and an obstacle; a cleaning assembly mounted on the forward portion of the chassis; a bin disposed adjacent the cleaning assembly and configured to receive debris agitated by the cleaning assembly, characterized in that the autonomous coverage robot (100, 101) further comprises right and left front cliff sensors (710A, 710B) disposed at the respective right and left corners of the forward portion (210, 310) of the robot (100, 101).
A beverage maker brewing system, comprising (a) a beverage maker body; (b) a drawer configured to cooperate with the beverage maker, the drawer having an interior space to receive one of a series of interchangeable components; (c) a series of interchangeable brewing components, each of the series of interchangeable brewing components specifically designed to contain different types of brewing capsules or modules and comprising (i) a base with a receiving portion for receiving a brewing capsule or a pod or loose coffee grounds; characterised in that each of the series of interchangeable brewing components further comprises (ii) a cover such that the interchangeable component is openable to receive the brewing capsule or the pod or loose coffee grounds and closable for insertion into the beverage maker body. (a) a beverage maker body; (b) a drawer configured to cooperate with the beverage maker, the drawer having an interior space to receive one of a series of interchangeable components; (c) a series of interchangeable brewing components, each of the series of interchangeable brewing components specifically designed to contain different types of brewing capsules or modules and comprising (i) a base with a receiving portion for receiving a brewing capsule or a pod or loose coffee grounds;
A process for producing a catalyst support particle, comprising: adding a salt solution containing a cerium salt and an aluminum salt to an alkaline solution having a pH value more than 11 and mixing to produce a precipitate containing cerium and aluminum, wherein said salt solution is added to said alkaline solution over 10 seconds to 10 minutes, and said salt solution and said alkaline solution are mixed each in an amount allowing the mixed solution to have a final pH of 9.0 to 10.8, and drying and then firing the obtained precipitate to obtain a catalyst support particle, wherein in the catalyst support particle alumina is in an amorphous state without having a distinct crystal structure. adding a salt solution containing a cerium salt and an aluminum salt to an alkaline solution having a pH value more than 11 and mixing to produce a precipitate containing cerium and aluminum, wherein said salt solution is added to said alkaline solution over 10 seconds to 10 minutes, and said salt solution and said alkaline solution are mixed each in an amount allowing the mixed solution to have a final pH of 9.0 to 10.8, and drying and then firing the obtained precipitate to obtain a catalyst support particle, wherein in the catalyst support particle alumina is in an amorphous state without having a distinct crystal structure.
A controlled pressure release system for a pressurized container comprising: a non-reclosing pressure release device comprising: a valve exposed to a pressure within a pressurized container, and a failure pin; wherein the valve is configured to transmit a force from the pressure within a pressurized container to the failure pin; and wherein the failure pin is configured to activate automatically in response to a predetermined force from the valve; characterized in that the system comprises a sensor operatively disposed in the pressurized container, the sensor configured to generate a monitoring signal representative of at least one operating condition of the pressurized container; a control configured to receive the monitoring signal; and a pin-activating mechanism configured to cause the failure pin to fail, thereby allowing the valve to open; wherein the control is further configured to trigger the pin-activating mechanism when the at least one operating condition of the pressurized container reaches a predetermined limit. a non-reclosing pressure release device comprising: a valve exposed to a pressure within a pressurized container, and a failure pin; wherein the valve is configured to transmit a force from the pressure within a pressurized container to the failure pin; and wherein the failure pin is configured to activate automatically in response to a predetermined force from the valve; characterized in that the system comprises a sensor operatively disposed in the pressurized container, the sensor configured to generate a monitoring signal representative of at least one operating condition of the pressurized container; a control configured to receive the monitoring signal; and a pin-activating mechanism configured to cause the failure pin to fail, thereby allowing the valve to open; wherein the control is further configured to trigger the pin-activating mechanism when the at least one operating condition of the pressurized container reaches a predetermined limit. a valve exposed to a pressure within a pressurized container, and a failure pin; wherein the valve is configured to transmit a force from the pressure within a pressurized container to the failure pin; and wherein the failure pin is configured to activate automatically in response to a predetermined force from the valve; characterized in that the system comprises a sensor operatively disposed in the pressurized container, the sensor configured to generate a monitoring signal representative of at least one operating condition of the pressurized container; a control configured to receive the monitoring signal; and a pin-activating mechanism configured to cause the failure pin to fail, thereby allowing the valve to open; wherein the control is further configured to trigger the pin-activating mechanism when the at least one operating condition of the pressurized container reaches a predetermined limit.
Electrical device, in particular mechatronic transmission, engine or brake controller for a motor vehicle, comprising: - an electronic component which comprises at least one electrical contact area (3, 4) for making electrical contact with the component; - a flexible printed circuit in which a conductor track structure comprising at least two contact pads (6, 7) and conductor tracks are arranged between two flexible, nonconductive films (27, 28), wherein, for the purpose of forming at least one contact point (8, 9), a respective contact pad (6, 7) of the flexible printed circuit is electrically connected, in particular by welding, to a respective contact area (3, 4) of the component; and - a sealing element which is arranged on a side of the flexible printed circuit, which side is situated opposite the component, and has an interior which is delimited by a wall, wherein the sealing element is pressed against the flexible printed circuit by way of an edge of the wall, so that the edge surrounds at least one of the contact points (8, 9); - the wall is of twin design and comprises an outer side wall and an inner side wall (15, 16) which adjoins the interior, wherein a section of the wall, which section connects the outer and the inner side wall (14, 15, 16), forms the edge; characterized in that a groove is formed in the edge between the outer side wall and the inner side wall (15, 16). - an electronic component which comprises at least one electrical contact area (3, 4) for making electrical contact with the component; - a flexible printed circuit in which a conductor track structure comprising at least two contact pads (6, 7) and conductor tracks are arranged between two flexible, nonconductive films (27, 28), wherein, for the purpose of forming at least one contact point (8, 9), a respective contact pad (6, 7) of the flexible printed circuit is electrically connected, in particular by welding, to a respective contact area (3, 4) of the component; and - a sealing element which is arranged on a side of the flexible printed circuit, which side is situated opposite the component, and has an interior which is delimited by a wall, wherein the sealing element is pressed against the flexible printed circuit by way of an edge of the wall, so that the edge surrounds at least one of the contact points (8, 9); - the wall is of twin design and comprises an outer side wall and an inner side wall (15, 16) which adjoins the interior, wherein a section of the wall, which section connects the outer and the inner side wall (14, 15, 16), forms the edge;
An ultrasound transducer probe, comprising: a transducer array including a plurality of transducer elements configured to emit an ultrasound signal and receive echo signals produced in response thereto, each of the transducer elements generating an analog signal indicative of an echo received thereby; and a beamformer, housed by the probe, the beamformer comprising: for each of the transducer elements, a Sigma-Delta modulator configured to convert a corresponding analog signal to a digital signal; for each of the Sigma-Delta modulators, a buffer configured to add a predetermined fixed delay to a corresponding digital signal; and an adder configured to sum the delayed digital signals from the buffers and produce a value of a bit stream of data, characterized in that the ultrasound transducer probe further comprises a variable feedback control configured to provide individual gains to the individual Sigma-Delta modulators, the Sigma-Delta modulator for each of the transducer elements being configured to apodize the individual analog signals, the individual gains controlling the apodization by scaling feedback of a feedback loop of the Sigma-Delta modulators to control sensitivities thereof. a transducer array including a plurality of transducer elements configured to emit an ultrasound signal and receive echo signals produced in response thereto, each of the transducer elements generating an analog signal indicative of an echo received thereby; and a beamformer, housed by the probe, the beamformer comprising: for each of the transducer elements, a Sigma-Delta modulator configured to convert a corresponding analog signal to a digital signal; for each of the Sigma-Delta modulators, a buffer configured to add a predetermined fixed delay to a corresponding digital signal; and an adder configured to sum the delayed digital signals from the buffers and produce a value of a bit stream of data, for each of the transducer elements, a Sigma-Delta modulator configured to convert a corresponding analog signal to a digital signal; for each of the Sigma-Delta modulators, a buffer configured to add a predetermined fixed delay to a corresponding digital signal; and an adder configured to sum the delayed digital signals from the buffers and produce a value of a bit stream of data, characterized in that the ultrasound transducer probe further comprises a variable feedback control configured to provide individual gains to the individual Sigma-Delta modulators, the Sigma-Delta modulator for each of the transducer elements being configured to apodize the individual analog signals, the individual gains controlling the apodization by scaling feedback of a feedback loop of the Sigma-Delta modulators to control sensitivities thereof.
A movable control surface for an aircraft, having a hinge line for rotation, and comprising at least one composite layer (4, 6), and at least one sheet having a density of at least 10 g/cm 3 laid over the at least one composite layer (4, 6), wherein the sheet is extended along the wingspan of the control surface ahead of the hinge line covering the outermost area of the leading edge of the control surface.