mhurhangee/ep-ind-claims huggingface dataset:
A method for providing a content locking engine, comprising: detecting that a mobile device is in motion above a threshold speed; determining that a user of the mobile device is operating a motor vehicle; and causing the mobile device to enter a locked state, wherein the locked state comprises disabling at least a portion of a user interface, and to exit the locked state if it is determined that the motor vehicle is not in motion, characterized in that the user can listen to or can get directions from at least one application while the mobile device is in the locked state, and the at least one application is an application selected from the list consisting of a music player, a navigation system, and an internet radio player; causing the mobile device to enter the locked state only if it is determined that a user of the mobile device is operating the motor vehicle; wherein determining that the user is operating the motor vehicle comprises communicating with a wearable computing device of the user. detecting that a mobile device is in motion above a threshold speed; determining that a user of the mobile device is operating a motor vehicle; and causing the mobile device to enter a locked state, wherein the locked state comprises disabling at least a portion of a user interface, and to exit the locked state if it is determined that the motor vehicle is not in motion, characterized in that the user can listen to or can get directions from at least one application while the mobile device is in the locked state, and the at least one application is an application selected from the list consisting of a music player, a navigation system, and an internet radio player; causing the mobile device to enter the locked state only if it is determined that a user of the mobile device is operating the motor vehicle; wherein determining that the user is operating the motor vehicle comprises communicating with a wearable computing device of the user.
An isolator for isolating a device driven by an engine via an endless drive member, comprising: a shaft adapter that is connectable with a shaft of the device; a rotary drive member that is engageable with the endless drive member; a first isolation spring arrangement (16, 16a, 16b) that is positioned to transfer torque between the shaft adapter and the rotary drive member; and a position-based damping structure that is positioned to transfer torque via a frictional damping force between the rotary drive member and the shaft adapter at a selected amount of relative movement therebetween, wherein the selected amount of relative movement is selected to be less than a maximum permitted amount of flexure of the first isolation spring arrangement, characterized in that the damping structure includes a first spreader member and first and second force transfer members (114a, 114b), wherein the selected amount of relative movement between the rotary drive member and the shaft adapter drives the spreader member circumferentially into engagement with the force transfer members (114a, 114b), which in turn transfer force from the spreader member into an axial force on first and second friction members (116a, 116b) respectively to generate the frictional damping force. a shaft adapter that is connectable with a shaft of the device; a rotary drive member that is engageable with the endless drive member; a first isolation spring arrangement (16, 16a, 16b) that is positioned to transfer torque between the shaft adapter and the rotary drive member; and a position-based damping structure that is positioned to transfer torque via a frictional damping force between the rotary drive member and the shaft adapter at a selected amount of relative movement therebetween, wherein the selected amount of relative movement is selected to be less than a maximum permitted amount of flexure of the first isolation spring arrangement, characterized in that the damping structure includes a first spreader member and first and second force transfer members (114a, 114b), wherein the selected amount of relative movement between the rotary drive member and the shaft adapter drives the spreader member circumferentially into engagement with the force transfer members (114a, 114b), which in turn transfer force from the spreader member into an axial force on first and second friction members (116a, 116b) respectively to generate the frictional damping force.
A heat exchanger assembly, comprising a core and a bottle connected releasably to the core through a first connection configured for fluid communication, wherein the bottle is further connected to the core through a second connection, which is configured to enable movement between the bottle and the core when the first connection is released, the second connection comprises a hinge joint (41, 42, 43) enabling hinge movement between the core and the bottle, wherein the axis A of the hinge joint (42, 43) is perpendicular to the axis of the bottle, characterised in that the second connection further comprises a fixing arrangement adapted to prevent releasing of the bottle, wherein the second connection comprises a bottle portion adapted to frictionally hold the bottle, wherein the bottle portion comprisis a guiding portion which adapted to guide a component of the fixing arrangement, wherein said guiding portion is angled.
An electronics device (300, 400, 500), comprising one or more circuit boards (410, 510, 511, 512) and a plurality of power converters (310, 325, 415) arranged on one or more of said circuit boards (410, 510, 511, 512), each power converter (310, 325, 415) comprising one or more transducers (315, 330) for measuring a voltage or a current in the power converter, the electronics device (300, 400, 500) additionally comprising a sub-system for locating sources of electromagnetic interference (320, 420, 520), the electronics device (300, 400, 500) being characterized in that the transducers (315, 330) of two or more of the power converters (310, 325, 415) are also connected to the sub-system for locating sources of electromagnetic interference (320, 420, 520) to supply it with measurement data, and in that the sub-system for locating sources of electromagnetic interference (320, 420, 520) is arranged to use the measurement data from the transducers (315, 330) in order to locate sources (505, 705) of electromagnetic interference.
An optical detector scatter cap assembly (201a,201b,301a,301b), the assembly comprising: an optical detector scatter cap (400,500) comprising a housing (401,501) having a proximal end and a distal end; an orifice (402,502) at the distal end of the housing; a scatter bar (403,503) affixed to the housing (401,501) of the optical detector scatter cap (400,500) and extending across the orifice (402,502); and the assembly further comprising a first cover bar (203a,203b,303a,303b,406,506a,506b,506c,506d,506e,506f,506g) that is configured to be reversibly mated with the scatter bar (403,503), wherein the first cover bar (203a,203b,303a,303b,406,506a,506b,506c,506d,506e,506f,506g) has a width that is equal to or greater than the scatter bar(403,503). an optical detector scatter cap (400,500) comprising a housing (401,501) having a proximal end and a distal end; an orifice (402,502) at the distal end of the housing; a scatter bar (403,503) affixed to the housing (401,501) of the optical detector scatter cap (400,500) and extending across the orifice (402,502); and the assembly further comprising a first cover bar (203a,203b,303a,303b,406,506a,506b,506c,506d,506e,506f,506g) that is configured to be reversibly mated with the scatter bar (403,503), wherein the first cover bar (203a,203b,303a,303b,406,506a,506b,506c,506d,506e,506f,506g) has a width that is equal to or greater than the scatter bar(403,503).
An electrode assembly (200, 300) comprising: a catheter shaft (290, 390); an ablation electrode (280, 380) at a distal end of the eletrode assembly; and a plurality of tactile sensors (371, 372), characterized in that the plurality of tactile sensors (371, 372) are located side by side between the ablation electrode (280, 380) and the catheter shaft (290, 390), each of said plurality of tactile sensors (371, 372) lying in a plane that passes transverse to an axis of the electrode assembly (200, 300), wherein the plurality of sensors (371, 372) detect longitudinal compression forces and transverse bending forces applied to the ablation electrode (280, 380). a catheter shaft (290, 390); an ablation electrode (280, 380) at a distal end of the eletrode assembly; and a plurality of tactile sensors (371, 372), characterized in that the plurality of tactile sensors (371, 372) are located side by side between the ablation electrode (280, 380) and the catheter shaft (290, 390), each of said plurality of tactile sensors (371, 372) lying in a plane that passes transverse to an axis of the electrode assembly (200, 300), wherein the plurality of sensors (371, 372) detect longitudinal compression forces and transverse bending forces applied to the ablation electrode (280, 380).
A watercraft comprising a hull which has a flow channel or with which a flow channel is associated, wherein the flow channel is associated with a motor-driven water acceleration arrangement, in particular a propeller, and wherein the motor is connected to an energy store, wherein two energy stores are installed in the hull, and wherein the energy stores are arranged on both sides of the central longitudinal plane running in the longitudinal direction of the hull, wherein a monitoring device is connected to a control electronics unit and monitors one or more operating states of the energy stores, wherein the control electronics unit comprises a switching device, by means of which one or both energy stores can be connected to the motor selectively, characterised in that the monitoring device monitors the temperature of the energy store, and, in the case of an inadmissible exceedance of a maximum temperature, said energy store is switched off by means of the switching device.
A sensor for detecting acceleration and angular velocity, comprising: a weight body; a pedestal arranged in such a manner as to surround the weight body and fixed to a device chassis; a flexible connection for connecting the weight body and the pedestal; a plurality of driving piezoelectric elements and a plurality of detecting piezoelectric elements fixed directly or indirectly to a surface of the flexible connection; an acceleration detecting circuit for detecting an applied acceleration; and an angular velocity detecting circuit for detecting an applied angular velocity based on a signal generated in the detecting piezoelectric elements while supplying an alternating signal to the driving piezoelectric elements to periodically deform the flexible connection and to generate a periodic motion of the weight body characterized in that the sensor further comprises a plurality of piezoresistive elements embedded in a surface layer of the flexible connection; wherein the acceleration detecting circuit is configured to detect the applied acceleration based on a change in an electrical resistance of the piezoresistive elements; and wherein at least some of the piezoresistive elements and at least some of the piezoelectric elements (D, E) are partially laminated together with an insulating layer (512, 513) therebetween. a weight body; a pedestal arranged in such a manner as to surround the weight body and fixed to a device chassis; a flexible connection for connecting the weight body and the pedestal; a plurality of driving piezoelectric elements and a plurality of detecting piezoelectric elements fixed directly or indirectly to a surface of the flexible connection; an acceleration detecting circuit for detecting an applied acceleration; and an angular velocity detecting circuit for detecting an applied angular velocity based on a signal generated in the detecting piezoelectric elements while supplying an alternating signal to the driving piezoelectric elements to periodically deform the flexible connection and to generate a periodic motion of the weight body characterized in that the sensor further comprises a plurality of piezoresistive elements embedded in a surface layer of the flexible connection; wherein the acceleration detecting circuit is configured to detect the applied acceleration based on a change in an electrical resistance of the piezoresistive elements; and wherein at least some of the piezoresistive elements and at least some of the piezoelectric elements (D, E) are partially laminated together with an insulating layer (512, 513) therebetween.
An apparatus for battery electric vehicle charging, comprising: a conductive charging interface, CCI, (802, 852) configured to receive a first AC power signal from an AC power supply system; an antenna circuit configured to wirelessly receive a modulated low frequency, LF, power signal via an electromagnetic near field of a wireless power link from a transmitting device; a power factor correction, PFC, circuit (806, 850) shared by the CCI and the antenna circuit via a switching circuit configured to selectively couple the PFC circuit to the CCI or the antenna circuit; an AC/DC converter (808, 848) operably coupled between the PFC circuit and the switching circuit, and a rectifier circuit operably coupled between the antenna circuit and the switching circuit configured to receive the modulated LF power signal from the antenna circuit and convert the modulated LF power signal into a DC output signal and pass the DC output signal through the AC/DC converter when the PFC circuit is operably coupled to the antenna circuit; wherein the PFC circuit is configured to, when operably coupled to the antenna circuit, receive the DC output signal from the rectifier circuit and reduce harmonics back through the wireless power link to the transmitting device, via presenting a variable impedance to the rectifier circuit. a conductive charging interface, CCI, (802, 852) configured to receive a first AC power signal from an AC power supply system; an antenna circuit configured to wirelessly receive a modulated low frequency, LF, power signal via an electromagnetic near field of a wireless power link from a transmitting device; a power factor correction, PFC, circuit (806, 850) shared by the CCI and the antenna circuit via a switching circuit configured to selectively couple the PFC circuit to the CCI or the antenna circuit; an AC/DC converter (808, 848) operably coupled between the PFC circuit and the switching circuit, and a rectifier circuit operably coupled between the antenna circuit and the switching circuit configured to receive the modulated LF power signal from the antenna circuit and convert the modulated LF power signal into a DC output signal and pass the DC output signal through the AC/DC converter when the PFC circuit is operably coupled to the antenna circuit; wherein the PFC circuit is configured to, when operably coupled to the antenna circuit, receive the DC output signal from the rectifier circuit and reduce harmonics back through the wireless power link to the transmitting device, via presenting a variable impedance to the rectifier circuit.
An article comprising a surface of light metal which is provided with an alkali-resistant protective coat, characterized in that the protective coat comprises a) an oxide layer of silicon and boron as basecoat and b) an oxide layer of silicon optionally comprising color pigments, as vitreous topcoat, obtainable by a method, in which 1) a coating composition which comprises a hydrolysate or condensate of one or more hydrolyzable silicon compounds and one or more hydrolyzable boron compounds is wet-chemically applied to the surface of the light metal and subjected to thermal treatment in order to form the basecoat, and 2) a coating composition which comprises a hydrolysate or condensate of one or more hydrolyzable silicon compounds, at least one hydrolyzable silicon compound containing at least one nonhydrolyzable organic group, is wet-chemically applied to the basecoat and subjected to thermal treatment in order to form the topcoat, it being possible for the thermal treatment to form the basecoat to take place before the application of the coating composition for the topcoat, or thereafter together with the thermal treatment to form the topcoat. a) an oxide layer of silicon and boron as basecoat and b) an oxide layer of silicon optionally comprising color pigments, as vitreous topcoat, obtainable by a method, in which 1) a coating composition which comprises a hydrolysate or condensate of one or more hydrolyzable silicon compounds and one or more hydrolyzable boron compounds is wet-chemically applied to the surface of the light metal and subjected to thermal treatment in order to form the basecoat, and 2) a coating composition which comprises a hydrolysate or condensate of one or more hydrolyzable silicon compounds, at least one hydrolyzable silicon compound containing at least one nonhydrolyzable organic group, is wet-chemically applied to the basecoat and subjected to thermal treatment in order to form the topcoat, it being possible for the thermal treatment to form the basecoat to take place before the application of the coating composition for the topcoat, or thereafter together with the thermal treatment to form the topcoat. 1) a coating composition which comprises a hydrolysate or condensate of one or more hydrolyzable silicon compounds and one or more hydrolyzable boron compounds is wet-chemically applied to the surface of the light metal and subjected to thermal treatment in order to form the basecoat, and 2) a coating composition which comprises a hydrolysate or condensate of one or more hydrolyzable silicon compounds, at least one hydrolyzable silicon compound containing at least one nonhydrolyzable organic group, is wet-chemically applied to the basecoat and subjected to thermal treatment in order to form the topcoat,
Vertical roller mill having at least one grinding roller and one grinding plate, and a nozzle ring which is disposed around the grinding plate and which is in connection with an annular space which is disposed therebelow, wherein the annular space has at least two gas inlets (10, 11, 12, 13) which are disposed so as to be distributed across the circumference thereof and which open out in a tangential manner in the same rotation direction, characterized in that the annular space between the gas inlets (10, 11, 12, 13) is outwardly delimited by in each case one helical wall (14, 15, 16, 17).
A lighting system comprising a lighting unit and a monolithic support element that is a duct for supporting the lighting unit, wherein the monolithic support element comprises: - a support part for supporting the lighting unit, wherein the support part has a first length, wherein the support part has a support part outer shape and support part outer dimensions, wherein the support part optionally includes a support part channel over at least part of the first length having a first cross-sectional area; - a first duct having second length, wherein the first duct has a first duct outer shape and first duct outer dimensions, wherein the first duct comprises a duct channel over at least part of the second length having a second cross-sectional area; - a transition part bridging the support part and the first duct; - wherein the first duct comprises electronics functionally coupled with the lighting unit; - wherein the transition part comprises a cable transit for transit of an electrical cable for a functional coupling to the lighting unit; - wherein the support part comprises a pinched part of the duct; and - wherein (i) when the support part includes the support part channel over at least part of the first length, then the support part channel is filled with thermally conductive material, or (ii) the support part comprises two wall parts of a wall, wherein the wall parts are configured parallel and touch each other. - a support part for supporting the lighting unit, wherein the support part has a first length, wherein the support part has a support part outer shape and support part outer dimensions, wherein the support part optionally includes a support part channel over at least part of the first length having a first cross-sectional area; - a first duct having second length, wherein the first duct has a first duct outer shape and first duct outer dimensions, wherein the first duct comprises a duct channel over at least part of the second length having a second cross-sectional area; - a transition part bridging the support part and the first duct; - wherein the first duct comprises electronics functionally coupled with the lighting unit; - wherein the transition part comprises a cable transit for transit of an electrical cable for a functional coupling to the lighting unit; - wherein the support part comprises a pinched part of the duct; and - wherein (i) when the support part includes the support part channel over at least part of the first length, then the support part channel is filled with thermally conductive material, or (ii) the support part comprises two wall parts of a wall, wherein the wall parts are configured parallel and touch each other.
A method of transmitting a device to device, D2D, signal by a user equipment, UE, in a wireless communication system, the method comprising: determining a first number of transmission attempts of the D2D signal; selecting resource units as many as the first number of transmission attempts among a plurality of the resource units belonging to a resource pool configured to transmit the D2D signal; determining whether the selected resource units are in a busy state or an idle state at a specific timing; and if it is determined that one of the selected resource units is in the idle state, transmitting the D2D signal to a target UE using the one resource unit, wherein, if it is determined that the selected resource units are in the busy state, a second number of transmission attempts of the D2D signal is determined and resource units as many as the second number of transmission attempts are selected among a plurality of the resource units belonging to the resource pool configured to transmit the D2D signal at a following timing, wherein the second number is less than the first number. determining a first number of transmission attempts of the D2D signal; selecting resource units as many as the first number of transmission attempts among a plurality of the resource units belonging to a resource pool configured to transmit the D2D signal; determining whether the selected resource units are in a busy state or an idle state at a specific timing; and if it is determined that one of the selected resource units is in the idle state, transmitting the D2D signal to a target UE using the one resource unit, wherein, if it is determined that the selected resource units are in the busy state, a second number of transmission attempts of the D2D signal is determined and resource units as many as the second number of transmission attempts are selected among a plurality of the resource units belonging to the resource pool configured to transmit the D2D signal at a following timing, wherein the second number is less than the first number.
A thermoforming device, comprising a first mould that is accommodated in a first mould holder and a second mould that is accommodated in a second mould holder, wherein at least the first mould can be moved relative to the other mould into a closed position by means of a driving device of the first mould holder in order to carry out a thermoforming process, characterized in that the device is realized in such a way that the closed position of the movable first mould is mapped in at least a first direction in space by means of at least one length measuring sensor (14, 17, 20), in that the length measuring sensor (14, 17, 20) comprises a sensor, which in an interval delivers a position value for a measuring point correlated with the mould, and in that the direction in space is chosen such that a degree for a parallelism of the moulds in the closed position results from the measurement by means of the length measuring sensor (14, 17, 20).