mhurhangee/patent-ind-claim-en huggingface dataset:
A pharmaceutical composition for use in a method for treating AXL-related cancer, comprising 6-ethyl-3-({3-methoxy-4-[4-(4-methylpiperazin-1-yl)piperidin-1-yl]phenyl}amino)-5-(tetrahydro-2H-pyran-4-ylamino)pyrazine-2-carboxamide or a pharmaceutically acceptable salt thereof, and a pharmaceutically acceptable excipient, wherein the AXL-related cancer is cancer which has acquired resistance by the activation of AXL against therapy with an anticancer agent.
An image decoding device comprising: a reception section configured to receive: encoded data of a tile of an enhancement layer of image data, the image data including a base layer and at least one enhancement layer, wherein each of the base layer and the at least one enhancement layer comprises one or more tiles, wherein for each of the base layer and the at least one enhancement layer a picture of the image data is divided into the tiles which are independently decodable, and control information designating, for the tile of the enhancement layer, a permitted reference area in the base layer, wherein reference to encoding-related information for the permitted reference area for decoding of the encoded data of the tile of the enhancement layer is permitted, wherein the permitted reference area identifies a set of tiles; and a decoding section configured to decode the encoded data with reference to the permitted reference area according to control of the control information received by the reception section. a reception section configured to receive: encoded data of a tile of an enhancement layer of image data, the image data including a base layer and at least one enhancement layer, wherein each of the base layer and the at least one enhancement layer comprises one or more tiles, wherein for each of the base layer and the at least one enhancement layer a picture of the image data is divided into the tiles which are independently decodable, and control information designating, for the tile of the enhancement layer, a permitted reference area in the base layer, wherein reference to encoding-related information for the permitted reference area for decoding of the encoded data of the tile of the enhancement layer is permitted, wherein the permitted reference area identifies a set of tiles; and a decoding section configured to decode the encoded data with reference to the permitted reference area according to control of the control information received by the reception section.
A paper towel roll holder , comprising: a carrier section mountable to a wall and terminating in a first support arm extending at an angle therefrom, the first support arm including a rounded boss configured to fit into an inner sleeve of a paper towel roll, the carrier section including a plurality of detents set into at least one of a top side and a bottom side, each detent corresponding to a length of the paper towel roll holder; and a sleeve section slidably attached to the carrier section, the sleeve section terminating in a second support arm , the second support arm including a second rounded boss configured to fit into the inner sleeve opposite the first rounded boss, the sleeve section including at least one tab configured to secure the paper towel roll holder at a desired length of a variety of possible desired lengths by removably locking into the plurality of detents, such that the paper towel roll holder is capable of providing a range of adjustments of its length in order to accommodate a range of dimensionally different paper towel rolls, the sleeve section configured to extend the length of the paper towel roll holder by sliding laterally relative to the carrier section. a carrier section mountable to a wall and terminating in a first support arm extending at an angle therefrom, the first support arm including a rounded boss configured to fit into an inner sleeve of a paper towel roll, the carrier section including a plurality of detents set into at least one of a top side and a bottom side, each detent corresponding to a length of the paper towel roll holder; and a sleeve section slidably attached to the carrier section, the sleeve section terminating in a second support arm , the second support arm including a second rounded boss configured to fit into the inner sleeve opposite the first rounded boss, the sleeve section including at least one tab configured to secure the paper towel roll holder at a desired length of a variety of possible desired lengths by removably locking into the plurality of detents, such that the paper towel roll holder is capable of providing a range of adjustments of its length in order to accommodate a range of dimensionally different paper towel rolls, the sleeve section configured to extend the length of the paper towel roll holder by sliding laterally relative to the carrier section.
A suspension system of a vehicle comprising: a first component ; a second component spaced from and movable toward said first component along a jounce axis; a coil spring disposed between said first component and said second component ; and an elastomer spring for absorbing energy between said first component and second component disposed within said coil spring and extending axially between said first component and said second component , wherein the elastomer spring comprises a cylindrical body adapted to be disposed within the coil spring of the vehicle and extend axially between the first component and the second component of the vehicle , the second component being spaced from and moveable toward the first component along an axis of the coil spring , wherein said body has a height greater than a width thereof and a plurality of apertures spaced about said body , wherein said apertures are configured to allow the coil spring to compress axially for absorbing energy as one of the first component and the second component move along the axis, wherein said body includes a passageway having an opening at an upper end thereof, characterised in that the elastomer spring includes a guide disposed in said passageway of said body and extending outwardly of said opening . a first component ; a second component spaced from and movable toward said first component along a jounce axis; a coil spring disposed between said first component and said second component ; and an elastomer spring for absorbing energy between said first component and second component disposed within said coil spring and extending axially between said first component and said second component , wherein the elastomer spring comprises a cylindrical body adapted to be disposed within the coil spring of the vehicle and extend axially between the first component and the second component of the vehicle , the second component being spaced from and moveable toward the first component along an axis of the coil spring , wherein said body has a height greater than a width thereof and a plurality of apertures spaced about said body , wherein said apertures are configured to allow the coil spring to compress axially for absorbing energy as one of the first component and the second component move along the axis, wherein said body includes a passageway having an opening at an upper end thereof, characterised in that the elastomer spring includes a guide disposed in said passageway of said body and extending outwardly of said opening .
An apparatus for operating on tissue, the apparatus comprising: (a) a body assembly ; (b) a shaft extending distally from the body assembly , wherein the shaft defines a longitudinal axis; (c) an acoustic waveguide , wherein the waveguide comprises a flexible portion ; (d) an end effector comprising an ultrasonic blade in acoustic communication with the waveguide ; (e) an articulation section coupled with the shaft , wherein a portion of the articulation section encompasses the flexible portion of the waveguide , wherein the articulation section further comprises: (i) a first member , and (ii) a second member , wherein the first and second members are operable to translate simultaneously in opposite directions to thereby deflect the end effector from the longitudinal axis; and characterized by : (f) a distal portion the ultrasonic blade is disposed in a first direction away from the longitudinal axis at a bend angle; and (g) an articulation drive assembly is operable to drive articulation of the articulation section to thereby deflect the end effector from the longitudinal axis in only the first direction. (a) a body assembly ; (b) a shaft extending distally from the body assembly , wherein the shaft defines a longitudinal axis; (c) an acoustic waveguide , wherein the waveguide comprises a flexible portion ; (d) an end effector comprising an ultrasonic blade in acoustic communication with the waveguide ; (e) an articulation section coupled with the shaft , wherein a portion of the articulation section encompasses the flexible portion of the waveguide , wherein the articulation section further comprises: (i) a first member , and (ii) a second member , wherein the first and second members are operable to translate simultaneously in opposite directions to thereby deflect the end effector from the longitudinal axis; and characterized by : (i) a first member , and (ii) a second member , wherein the first and second members are operable to translate simultaneously in opposite directions to thereby deflect the end effector from the longitudinal axis; and characterized by : (f) a distal portion the ultrasonic blade is disposed in a first direction away from the longitudinal axis at a bend angle; and (g) an articulation drive assembly is operable to drive articulation of the articulation section to thereby deflect the end effector from the longitudinal axis in only the first direction.
A solid-state imaging device , comprising: a plurality of pixels two-dimensionally arranged on a semiconductor substrate , wherein each of the plurality of pixels includes at least one shallow light receiving portion formed near a surface of the semiconductor substrate and at least one deep light receiving portion formed under the shallow light receiving portion , one or more of the shallow light receiving portions and one of the deep light receiving portions are connected to each other so as to form a second light receiving portion , and the rest of the shallow light receiving portions forms a first light receiving portion, the deep light receiving portion included in the second light receiving portion extends so as to be located below at least one of the shallow light receiving portions included in the first light receiving portion, wherein the solid-imaging device is configured to discharge excess electric charge in the first light receiving portion to the deep light receiving portion , and characterized in that a potential barrier of a vertical overflow barrier provided under the deep light re ceiving portion is smaller than a potential barrier of a deep horizontal separation portion provided between the deep light receiving portions . a plurality of pixels two-dimensionally arranged on a semiconductor substrate , wherein each of the plurality of pixels includes at least one shallow light receiving portion formed near a surface of the semiconductor substrate and at least one deep light receiving portion formed under the shallow light receiving portion , one or more of the shallow light receiving portions and one of the deep light receiving portions are connected to each other so as to form a second light receiving portion , and the rest of the shallow light receiving portions forms a first light receiving portion, the deep light receiving portion included in the second light receiving portion extends so as to be located below at least one of the shallow light receiving portions included in the first light receiving portion, wherein the solid-imaging device is configured to discharge excess electric charge in the first light receiving portion to the deep light receiving portion , and characterized in that a potential barrier of a vertical overflow barrier provided under the deep light re ceiving portion is smaller than a potential barrier of a deep horizontal separation portion provided between the deep light receiving portions .
Method for adapting an otoplastic of a hearing aid , wherein according to the method - a flexible outer shell formed from a curable and not yet cured material, which forms an outer wall of the otoplastic and defines a housing interior , is provided, - the housing interior is sealed both at its end facing toward the eardrum in the intended worn state in an auditory canal of a hearing aid wearer and also at the opposite end, - the housing interior is connected via a pressure inlet opening to a pressure and curing facilitator , - the outer shell is inserted into the auditory canal of the hearing aid wearer, - an elevated internal pressure value is applied to the housing interior via the pressure and curing facilitator , so that the outer shell presses against the auditory canal wall, and - the curing of the curable material is initiated via the pressure and curing facilitator while maintaining the internal pressure value, characterized in that a ventilation channel between the eardrum side end and the auditory canal outlet side end of the outer shell is moulded into the latter by means of an insert . - a flexible outer shell formed from a curable and not yet cured material, which forms an outer wall of the otoplastic and defines a housing interior , is provided, - the housing interior is sealed both at its end facing toward the eardrum in the intended worn state in an auditory canal of a hearing aid wearer and also at the opposite end, - the housing interior is connected via a pressure inlet opening to a pressure and curing facilitator , - the outer shell is inserted into the auditory canal of the hearing aid wearer, - an elevated internal pressure value is applied to the housing interior via the pressure and curing facilitator , so that the outer shell presses against the auditory canal wall, and - the curing of the curable material is initiated via the pressure and curing facilitator while maintaining the internal pressure value,
A method comprising: generating a plurality of information bits containing downlink control information, DCI, for a user equipment, UE , in a mobile communication network ; performing channel encoding on the plurality of information bits and thereby outputting a plurality of encoded bits; applying cyclic-shifting before the channel encoding using a UE-specific ID; and transmitting the downlink control information over allocated radio resources of a physical downlink control channel, PDCCH, to the UE , characterized in that the plurality of information bits is attached with a plurality of cyclic redundancy check, CRC, bits, wherein the CRC bits are scrambled with a first portion of a UE-ID of the UE , and the cyclic-shifting is based on a second portion of the UE ID; and channel encoding on the plurality of information bits is performed with the plurality of CRC bits. generating a plurality of information bits containing downlink control information, DCI, for a user equipment, UE , in a mobile communication network ; performing channel encoding on the plurality of information bits and thereby outputting a plurality of encoded bits; applying cyclic-shifting before the channel encoding using a UE-specific ID; and transmitting the downlink control information over allocated radio resources of a physical downlink control channel, PDCCH, to the UE , characterized in that the plurality of information bits is attached with a plurality of cyclic redundancy check, CRC, bits, wherein the CRC bits are scrambled with a first portion of a UE-ID of the UE , and the cyclic-shifting is based on a second portion of the UE ID; and channel encoding on the plurality of information bits is performed with the plurality of CRC bits.
A folding container comprising: - a base , - a first mount provided to the base , - a first side wall , and - a translational hinge , which connects the first side wall to the first mount and is configured to facilitate rotational and translational movement of the first side wall in respect to the first mount during transition between: ∘ an erected state, in which the first side wall extends from the first mount in a generally upright orientation in respect to the base , and ∘ a folded state, in which the first side wall extends from the first mount in a generally parallel orientation in respect to the base , - an upright lock , which comprises: ∘ a peg , which is provided to the first side wall , and ∘ a catch , which is provided to the first mount and comprises an elongated recess configured to receive the peg during transition between the erected and folded state of the first side wall and to provide a threshold for keeping the first side wall in the erected state, characterized in that the recess is elongated, at least in part, in a direction that is slanted in respect to the upright orientation. - a base , - a first mount provided to the base , - a first side wall , and - a translational hinge , which connects the first side wall to the first mount and is configured to facilitate rotational and translational movement of the first side wall in respect to the first mount during transition between: ∘ an erected state, in which the first side wall extends from the first mount in a generally upright orientation in respect to the base , and ∘ a folded state, in which the first side wall extends from the first mount in a generally parallel orientation in respect to the base , ∘ an erected state, in which the first side wall extends from the first mount in a generally upright orientation in respect to the base , and ∘ a folded state, in which the first side wall extends from the first mount in a generally parallel orientation in respect to the base , - an upright lock , which comprises: ∘ a peg , which is provided to the first side wall , and ∘ a catch , which is provided to the first mount and comprises an elongated recess configured to receive the peg during transition between the erected and folded state of the first side wall and to provide a threshold for keeping the first side wall in the erected state, ∘ a peg , which is provided to the first side wall , and ∘ a catch , which is provided to the first mount and comprises an elongated recess configured to receive the peg during transition between the erected and folded state of the first side wall and to provide a threshold for keeping the first side wall in the erected state,
An apparatus, comprising: a device (110; 200; 351, 352, 353; 451) including at least one memory adapted to store run-time data for the device, and at least one processor that is adapted to execute processor-executable code that, in response to execution, enables the device to perform actions, including: storing a pre-determined type of blockchain protocol code in a trusted execution environment, TEE, (362, 363; 461) of a processor; using TEE attestation to verify that the blockchain protocol code stored in the TEE is the pre-determined type of blockchain protocol code; receiving a blockchain transaction; processing the blockchain transaction; and updating , for a blockchain network, a state of the processed blockchain based on the processing of the blockchain transaction; characterized in that the actions further including: receiving code for a smart contract; determining whether the code complies with a confidentiality design pattern; and if the code fails to comply with the confidentiality design pattern rejecting the code else deploying the code. storing a pre-determined type of blockchain protocol code in a trusted execution environment, TEE, (362, 363; 461) of a processor; using TEE attestation to verify that the blockchain protocol code stored in the TEE is the pre-determined type of blockchain protocol code; receiving a blockchain transaction; processing the blockchain transaction; and updating , for a blockchain network, a state of the processed blockchain based on the processing of the blockchain transaction; characterized in that the actions further including: receiving code for a smart contract; determining whether the code complies with a confidentiality design pattern; and if the code fails to comply with the confidentiality design pattern rejecting the code else deploying the code. receiving code for a smart contract; determining whether the code complies with a confidentiality design pattern; and if the code fails to comply with the confidentiality design pattern rejecting the code else deploying the code. rejecting the code else deploying the code.
An accelerometer closed loop control system comprising: a capacitive accelerometer comprising a proof mass moveable relative to first and second fixed capacitor electrodes ; a pulse width modulation (PWM) generator arranged to generate in-phase and anti-phase PWM drive signals with a drive frequency and an adjustable mark/space ratio, wherein said in-phase and anti-phase PWM drive signals are applied to the first and second fixed capacitor electrodes respectively such that they are charged alternately; an output signal detector arranged to detect a pick-off signal from the accelerometer representing a displacement of the proof mass from a null position to provide an error signal , wherein the null position is the position of the proof mass relative to the first and second fixed capacitor electrodes when no acceleration is applied; and a PWM servo operating in closed loop arranged to vary the adjustable mark/space ratio of said in-phase and anti-phase PWM drive signals in response to the error signal so that mechanical inertial forces are balanced by electrostatic forces to maintain the operating point of the proof mass at a null position; characterised in that the accelerometer closed loop control system further comprises: a differential voltage servo arranged to vary a difference in amplitude between the in-phase and anti-phase PWM drive signals in response to the error signal . a capacitive accelerometer comprising a proof mass moveable relative to first and second fixed capacitor electrodes ; a pulse width modulation (PWM) generator arranged to generate in-phase and anti-phase PWM drive signals with a drive frequency and an adjustable mark/space ratio, wherein said in-phase and anti-phase PWM drive signals are applied to the first and second fixed capacitor electrodes respectively such that they are charged alternately; an output signal detector arranged to detect a pick-off signal from the accelerometer representing a displacement of the proof mass from a null position to provide an error signal , wherein the null position is the position of the proof mass relative to the first and second fixed capacitor electrodes when no acceleration is applied; and a PWM servo operating in closed loop arranged to vary the adjustable mark/space ratio of said in-phase and anti-phase PWM drive signals in response to the error signal so that mechanical inertial forces are balanced by electrostatic forces to maintain the operating point of the proof mass at a null position; characterised in that the accelerometer closed loop control system further comprises: a differential voltage servo arranged to vary a difference in amplitude between the in-phase and anti-phase PWM drive signals in response to the error signal .