mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for supplying electric power to an electric device , the apparatus comprising: means for obtaining an indication of a desired power level to be supplied to the electric device ; an input for receiving electric power as DC power; an inverter for inverting the DC power to AC power; means for supplying the AC power to a reactance (T1) to be transformed to an output power to be supplied to the electric device , means for adjusting the AC power supplied to the reactance (T1) by using at least two of the following: - voltage level of the AC power; - the frequency of the AC power; - a waveform of the AC power; characterized in that the apparatus further comprises: means for comparing the desired power level to a first threshold (th, th1) and to a second threshold (th2); wherein the means for adjusting the AC power are adapted to: - adjust the frequency of the AC power to obtain the desired power level, if the desired power level is between the first threshold (th, th1) and the second threshold (th2); - adjust the waveform of the AC power to obtain the desired power level, if the desired power level is below the second threshold (th2); and - adjust the voltage level of the AC power to obtain the desired power level, if the desired power level is higher than the first threshold (th, th1). means for obtaining an indication of a desired power level to be supplied to the electric device ; an input for receiving electric power as DC power; an inverter for inverting the DC power to AC power; means for supplying the AC power to a reactance (T1) to be transformed to an output power to be supplied to the electric device , means for adjusting the AC power supplied to the reactance (T1) by using at least two of the following: - voltage level of the AC power; - the frequency of the AC power; - a waveform of the AC power; - voltage level of the AC power; - the frequency of the AC power; - a waveform of the AC power; means for comparing the desired power level to a first threshold (th, th1) and to a second threshold (th2); wherein the means for adjusting the AC power are adapted to: - adjust the frequency of the AC power to obtain the desired power level, if the desired power level is between the first threshold (th, th1) and the second threshold (th2); - adjust the waveform of the AC power to obtain the desired power level, if the desired power level is below the second threshold (th2); and - adjust the voltage level of the AC power to obtain the desired power level, if the desired power level is higher than the first threshold (th, th1). - adjust the frequency of the AC power to obtain the desired power level, if the desired power level is between the first threshold (th, th1) and the second threshold (th2); - adjust the waveform of the AC power to obtain the desired power level, if the desired power level is below the second threshold (th2); and - adjust the voltage level of the AC power to obtain the desired power level, if the desired power level is higher than the first threshold (th, th1).
computer-implemented method of determining tinting instructions for one or more electrochromic windows to reduce power usage at a site , the method comprising: (a) determining that a reduced power event has occurred at the site ; (b) determining a current amount of power available at the site ; (c) performing reduced power operations to determine new tinting instructions for the one or more electrochromic windows based on the current amount of power available at the site ; and (d) repeating (b) and (c) at intervals during a period of the reduced power event. (a) determining that a reduced power event has occurred at the site ; (b) determining a current amount of power available at the site ; (c) performing reduced power operations to determine new tinting instructions for the one or more electrochromic windows based on the current amount of power available at the site ; and (d) repeating (b) and (c) at intervals during a period of the reduced power event.
A composition for external application to the skin comprising: a solute which is 5-adamantan-1-yl-N-(2,4-dihydroxybenzyl)-2,4-dimethoxybenzoic acid amide, an isomer thereof, a pharmaceutically acceptable salt thereof, a hydrate thereof or a solvate thereof; and a first solubilizer which is cyclodextrin, wherein the cyclodextrin comprises at least one of γ-cyclodextrin and hydroxypropyl-β-cyclodextrin, and wherein the weight ratio of the solute and the first solubilizer is 1: 1 to 20. a solute which is 5-adamantan-1-yl-N-(2,4-dihydroxybenzyl)-2,4-dimethoxybenzoic acid amide, an isomer thereof, a pharmaceutically acceptable salt thereof, a hydrate thereof or a solvate thereof; and a first solubilizer which is cyclodextrin, wherein the cyclodextrin comprises at least one of γ-cyclodextrin and hydroxypropyl-β-cyclodextrin, and wherein the weight ratio of the solute and the first solubilizer is 1: 1 to 20.
A balloon catheter comprising a balloon having an exterior surface, an intermediate layer overlying the exterior surface, and a coating layer overlying the intermediate layer, wherein: the intermediate layer comprises a poly(p-xylylene); and the coating layer comprises a hydrophobic therapeutic agent and at least one additive, wherein the at least one additive comprises a polysorbate and a sugar alcohol. the intermediate layer comprises a poly(p-xylylene); and the coating layer comprises a hydrophobic therapeutic agent and at least one additive, wherein the at least one additive comprises a polysorbate and a sugar alcohol.
A hot water use warning device configured for attachment to a faucet, comprising a water carrying conduit , a housing inner core and a collection of reversible thermochromic pigments having substantially equal activation temperatures and annularly distributed in a ring shaped thermochromic belt along the outer circumference of the water carrying conduit ; wherein said thermochromic belt is substantially symmetrically placed with respect to the general flow path of water in said water carrying conduit, whereby heating of said reversible thermochromic pigments to a predetermined temperature occurs at approximately equal times and is regardless of the rotational alignment around the flow path axis of said thermochromic belt and, wherein said thermochromic belt comprises a low heat conducting material circumferentially encircling the housing inner core having a high heat conductance, whereby a delayed color change of said reversible thermochromic pigments is substantially controllable by varying the thickness of said thermochromic belt, characterized in that said thermochromic belt consists of a composite material having at least one high heat conducting material arranged as part of a layered concentric ring-like structure comprising said low heat conducting material, whereby an evening out effect of heat gradients is achieved. a collection of reversible thermochromic pigments having substantially equal activation temperatures and annularly distributed in a ring shaped thermochromic belt along the outer circumference of the water carrying conduit ; wherein said thermochromic belt is substantially symmetrically placed with respect to the general flow path of water in said water carrying conduit, whereby heating of said reversible thermochromic pigments to a predetermined temperature occurs at approximately equal times and is regardless of the rotational alignment around the flow path axis of said thermochromic belt and, wherein said thermochromic belt comprises a low heat conducting material circumferentially encircling the housing inner core having a high heat conductance, whereby a delayed color change of said reversible thermochromic pigments is substantially controllable by varying the thickness of said thermochromic belt, characterized in that said thermochromic belt consists of a composite material having at least one high heat conducting material arranged as part of a layered concentric ring-like structure comprising said low heat conducting material, whereby an evening out effect of heat gradients is achieved.
A controller suitable for controlling behavior of a motorcycle with a damping device for damping kinetic energy, the controller comprising: an acquisition section that is configured to acquire trigger information generated in accordance with peripheral environment of the motorcycle ; and an execution section that is configured to initiate a control mode in response to the trigger information, the control mode making the motorcycle execute an automatic deceleration operation, characterized in that: before the initiation of the control mode, a damping rate of the damping device is controlled to be a set damping rate that is set in advance; in the control mode, the automatic deceleration operation is executed in a state where the damping rate of the damping device is increased to be higher than that immediately before initiation of the control mode, wherein in the automatic deceleration operation in the control mode, in the case where a lean angle of the motorcycle is large, the damping rate of the damping device is controlled to be the higher damping rate than that when the lean angle is small. an acquisition section that is configured to acquire trigger information generated in accordance with peripheral environment of the motorcycle ; and an execution section that is configured to initiate a control mode in response to the trigger information, the control mode making the motorcycle execute an automatic deceleration operation, characterized in that: before the initiation of the control mode, a damping rate of the damping device is controlled to be a set damping rate that is set in advance; in the control mode, the automatic deceleration operation is executed in a state where the damping rate of the damping device is increased to be higher than that immediately before initiation of the control mode, wherein in the automatic deceleration operation in the control mode, in the case where a lean angle of the motorcycle is large, the damping rate of the damping device is controlled to be the higher damping rate than that when the lean angle is small. before the initiation of the control mode, a damping rate of the damping device is controlled to be a set damping rate that is set in advance; in the control mode, the automatic deceleration operation is executed in a state where the damping rate of the damping device is increased to be higher than that immediately before initiation of the control mode, wherein in the automatic deceleration operation in the control mode, in the case where a lean angle of the motorcycle is large, the damping rate of the damping device is controlled to be the higher damping rate than that when the lean angle is small.
A vehicle lighting device comprising: a high-beam light source to form a high beam light distribution pattern; a low-beam light source to form a low beam light distribution pattern; a high-beam lens to transmit light from the high-beam light source and emit the light to outside; a low-beam lens to transmit light from the low-beam light source and emit the light to outside; a circuit board having the high-beam light source and the low-beam light source mounted thereon together; and a reflector that guides light emitted from the low-beam light source to the low-beam lens , wherein when lens optical axis directions of the high-beam lens and the low-beam lens are in a front-rear direction, the circuit board is inclined in the front-rear direction and an up-down direction perpendicular to the front-rear direction, wherein the up-down direction corresponds to a vertical direction, when the vehicle lighting device is mounted to the vehicle, characterized in that the high-beam light source and the low-beam light source are arranged at an identical height in the vertical direction while installed on the circuit board , and an optical axis of the high-beam lens is located lower than an optical axis of the low-beam lens . a high-beam light source to form a high beam light distribution pattern; a low-beam light source to form a low beam light distribution pattern; a high-beam lens to transmit light from the high-beam light source and emit the light to outside; a low-beam lens to transmit light from the low-beam light source and emit the light to outside; a circuit board having the high-beam light source and the low-beam light source mounted thereon together; and a reflector that guides light emitted from the low-beam light source to the low-beam lens , wherein when lens optical axis directions of the high-beam lens and the low-beam lens are in a front-rear direction, the circuit board is inclined in the front-rear direction and an up-down direction perpendicular to the front-rear direction, wherein the up-down direction corresponds to a vertical direction, when the vehicle lighting device is mounted to the vehicle, characterized in that the high-beam light source and the low-beam light source are arranged at an identical height in the vertical direction while installed on the circuit board , and an optical axis of the high-beam lens is located lower than an optical axis of the low-beam lens .
An unmanned aerial vehicle with an energy accumulator , which is connected releasably to a structural component of the aerial vehicle, and with an accumulator plug , via which electrical energy is conducted from the energy accumulator to a rotor drive of the aerial vehicle, and with a locking element which, in an operating position, locks the energy accumulator in relation to the structural component and which, in a maintenance position, releases the energy accumulator and blocks a full engagement of the accumulator plug , characterized by a plug securing mechanism in order to secure the accumulator plug in the connected state, wherein the plug securing mechanism is configured in such a manner that, on its actuating path, it strikes against the locking element when the locking element is in the maintenance position.
Electropneumatic brake control module for commercial vehicles , comprising: a supply port for connecting a compressed air supply ; a first axle channel port ; a pneumatically controlled inlet/outlet valve unit for outputting a first braking pressure (PB1) at the first axle channel port ; an electropneumatic pilot control unit for outputting at least a first control pressure (P1) at the inlet/outlet valve unit ; wherein the electropneumatic brake control module has a redundancy pressure port for receiving a redundancy pressure (PR) and a redundancy valve unit , connected to the redundancy pressure port , for outputting a redundant braking pressure (PBR) at the first axle channel port in the event that the electropneumatic pilot control unit has a fault, characterized in that the redundancy valve unit has a redundancy valve with a first redundancy valve port (18.1) connected to the redundancy pressure port , a second redundancy valve port (18.2) connectable to the first axle channel port , and a third redundancy valve port (18.3) connected to a vent . a supply port for connecting a compressed air supply ; a first axle channel port ; a pneumatically controlled inlet/outlet valve unit for outputting a first braking pressure (PB1) at the first axle channel port ; an electropneumatic pilot control unit for outputting at least a first control pressure (P1) at the inlet/outlet valve unit ; wherein the electropneumatic brake control module has a redundancy pressure port for receiving a redundancy pressure (PR) and a redundancy valve unit , connected to the redundancy pressure port , for outputting a redundant braking pressure (PBR) at the first axle channel port in the event that the electropneumatic pilot control unit has a fault, characterized in that the redundancy valve unit has a redundancy valve with a first redundancy valve port (18.1) connected to the redundancy pressure port , a second redundancy valve port (18.2) connectable to the first axle channel port , and a third redundancy valve port (18.3) connected to a vent .
Current source, comprising - an input (In) for receiving a brightness signal (Sb), - an output (Out) for providing a driving current (Id) for at least one light-emitting diode, LED, wherein the current source (CS) is configured - to extract a first and a second current value (idac_high, idac_low) from the brightness signal (Sb), - to derive a duty cycle value (Smod) from the brightness signal (Sb) and - to modulate the driving current (Id) as a function of the duty cycle value (Smod) in a pulse-width modulation comprising the first and the second current values (idac_high, idac_low), wherein the brightness signal (Sb) comprises a digital signal and is configured to control a brightness of the at least one LED, wherein the first and second current values (idac_high, idac_low) are extracted from the brightness signal (Sb) using a number of most significant bits, wherein the duty cycle value (Smod) is generated from the brightness signal (Sb) using a number of least significant bits, and the duty cycle value (Smod) represents a value of a duty-cycle of the driving current (Id), and wherein the first current value (idac_high) is set to a first minimum value (Imin1) above zero, and wherein the second current value (idac_low) is set to a second minimum value (Imin2) above zero, wherein the brightness signal (Sb) is divided into segments, and wherein for each segment the upper limit represents the first current value (idac_high) and the lower limit represents the second current value (idac_low), respectively. - an input (In) for receiving a brightness signal (Sb), - an output (Out) for providing a driving current (Id) for at least one light-emitting diode, LED, - to extract a first and a second current value (idac_high, idac_low) from the brightness signal (Sb), - to derive a duty cycle value (Smod) from the brightness signal (Sb) and - to modulate the driving current (Id) as a function of the duty cycle value (Smod) in a pulse-width modulation comprising the first and the second current values (idac_high, idac_low),
A cutting tool comprising: a body ; a first portion of the body having a first diameter and a first radial rake angle ; and a second portion of the body adjacent the first portion , the second portion having a second diameter and a second radial rake angle , wherein the second diameter differs from the first diameter, and wherein the second radial rake angle differs from the first radial rake angle , wherein the first radial rake angle is a positive radial rake angle, and the second radial rake angle is a negative radial rake angle, and characterised in that the first radial rake angle is 10 degrees, and wherein the second radial rake angle is negative 10 degrees. a body ; a first portion of the body having a first diameter and a first radial rake angle ; and a second portion of the body adjacent the first portion , the second portion having a second diameter and a second radial rake angle , wherein the second diameter differs from the first diameter, and wherein the second radial rake angle differs from the first radial rake angle , wherein the first radial rake angle is a positive radial rake angle, and the second radial rake angle is a negative radial rake angle, and characterised in that the first radial rake angle is 10 degrees, and wherein the second radial rake angle is negative 10 degrees.
A contoured display comprising: an image device configured to output an image; and a faceplate configured to propagate the image in a collimated manner from an interface surface of the faceplate to a display surface of the faceplate , wherein the display surface is a curved surface, wherein the faceplate is formed of a plurality of parallel optical fibers , each optical fiber having a first end and a second end opposite the first end , wherein the first ends of the optical fibers cooperate to define the interface surface of the faceplate in a manner effective to couple optically with the image device to propagate the image into the optical fibers , and the second ends of the optical fibers cooperate to define the display surface of the faceplate in a manner effective to display the image on the display surface ; characterized in that the display further comprises an intermediate plate interposed between the image device and the faceplate , and configured to propagate the image in a collimated manner from the image device to the faceplate . an image device configured to output an image; and a faceplate configured to propagate the image in a collimated manner from an interface surface of the faceplate to a display surface of the faceplate , wherein the display surface is a curved surface, wherein the faceplate is formed of a plurality of parallel optical fibers , each optical fiber having a first end and a second end opposite the first end , wherein the first ends of the optical fibers cooperate to define the interface surface of the faceplate in a manner effective to couple optically with the image device to propagate the image into the optical fibers , and the second ends of the optical fibers cooperate to define the display surface of the faceplate in a manner effective to display the image on the display surface ; characterized in that the display further comprises an intermediate plate interposed between the image device and the faceplate , and configured to propagate the image in a collimated manner from the image device to the faceplate .
A slide rail assembly adapted to be mounted to a pair of posts including a first post and a second post in a rack , the rack comprising two first posts and two second posts , each second post as well as each first post having an outer side and an inner side opposite to the outer side , wherein the inner sides of the two first posts and the two second posts are spaced apart by a transverse width (W1), and wherein the first post and the second post of the pair of posts correspond in position to each other and define an accommodation space (S) therebetween, the accommodation space (S) being comprised between a longitudinal extension between the outer sides of the first and second posts and a longitudinal extension between the inner sides of the first and second posts, the slide rail assembly comprising: a first rail configured to be mounted to the first post and the second post via a first bracket and a second bracket respectively, the first rail comprising a longitudinal wall , an upper wall , and a lower wall , wherein the upper wall and the lower wall are connected to two corresponding sides of the longitudinal wall respectively; and the longitudinal wall , the upper wall , and the lower wall of the first rail jointly define a longitudinal channel ; and a second rail longitudinally movably connected to the first rail and located in the longitudinal channel of the first rail , characterized in that at least a portion (W4) of a traverse width (W3) of the slide rail assembly, which is a portion of the longitudinal wall of the first rail , is configured to be arranged within the accommodation space (S) such that the first rail is located between the first post and the second post , when the slide rail assembly is mounted to the pair of posts . a first rail configured to be mounted to the first post and the second post via a first bracket and a second bracket respectively, the first rail comprising a longitudinal wall , an upper wall , and a lower wall , wherein the upper wall and the lower wall are connected to two corresponding sides of the longitudinal wall respectively; and the longitudinal wall , the upper wall , and the lower wall of the first rail jointly define a longitudinal channel ; and a second rail longitudinally movably connected to the first rail and located in the longitudinal channel of the first rail , characterized in that at least a portion (W4) of a traverse width (W3) of the slide rail assembly, which is a portion of the longitudinal wall of the first rail , is configured to be arranged within the accommodation space (S) such that the first rail is located between the first post and the second post , when the slide rail assembly is mounted to the pair of posts .