mhurhangee/ep-ind-claims huggingface dataset:
A measuring apparatus comprising: a blood pressure calculating section configured to calculate a pulse pressure of a subject; and a pulse wave measuring section configured to measure a pulse wave of the subject, characterized by further comprising a respiration-induced fluctuation calculating section configured to calculate a ratio of a respiration-induced blood pressure fluctuation of a subject to the pulse pressure, based on a maximum value and a minimum value of the pulse wave in a given time period and an amplitude, in terms of pressure value, of a pulse in the pulse wave in the given time period, and to calculate the respiration-induced blood pressure fluctuation as a pressure value by multiplying the pulse pressure by said ratio. a blood pressure calculating section configured to calculate a pulse pressure of a subject; and a pulse wave measuring section configured to measure a pulse wave of the subject, characterized by further comprising a respiration-induced fluctuation calculating section configured to calculate a ratio of a respiration-induced blood pressure fluctuation of a subject to the pulse pressure, based on a maximum value and a minimum value of the pulse wave in a given time period and an amplitude, in terms of pressure value, of a pulse in the pulse wave in the given time period, and to calculate the respiration-induced blood pressure fluctuation as a pressure value by multiplying the pulse pressure by said ratio.
A mower, comprising: a main body; a blade housing depending from the main body and having an open lower end; at least one cutting blade supported in the blade housing in a rotatable manner in a horizontal plane; an engine mounted on the main body for driving the cutting blade; a grass collection bag attached to a rear end of the main body; a chute extending in a fore and aft direction rearward with an upward slant to communicate an interior of the blade housing with an interior of the grass collection bag; a pair of rear wheels provided in a rear part of the main body; a pair of electric motors mounted in a rear part of the main body and connected to the respective rear wheels in a power transmitting relationship; and a battery for supplying electric power to the electric motors and positioned under the chute in a space surrounded by the electric motors and the chute, characterized in that the chute is bent in a middle part thereof corresponding to the position of the battery in side view in such a manner that a concave side thereof opposes the battery which is positioned centrally with respect to the lateral direction. a main body; a blade housing depending from the main body and having an open lower end; at least one cutting blade supported in the blade housing in a rotatable manner in a horizontal plane; an engine mounted on the main body for driving the cutting blade; a grass collection bag attached to a rear end of the main body; a chute extending in a fore and aft direction rearward with an upward slant to communicate an interior of the blade housing with an interior of the grass collection bag; a pair of rear wheels provided in a rear part of the main body; a pair of electric motors mounted in a rear part of the main body and connected to the respective rear wheels in a power transmitting relationship; and a battery for supplying electric power to the electric motors and positioned under the chute in a space surrounded by the electric motors and the chute, characterized in that the chute is bent in a middle part thereof corresponding to the position of the battery in side view in such a manner that a concave side thereof opposes the battery which is positioned centrally with respect to the lateral direction.
A controlled free radical polymerization process for the preparation of block copolymers, comprising: polymerizing first free radically copolymerizable monomers to form a first block of a polymer chain; polymerizing second free radically copolymerizable monomers into the polymer chain, wherein the second free radically copolymerizable monomers are added to the polymerization process while some of the first free radically copolymerizable monomers remain unpolymerized, to form a second block of the polymer chain, wherein the second block of the polymer chain comprises the first and second free radically copolymerizable monomers, and wherein polymerizing the first free radically copolymerizable monomers and the second free radically copolymerizable monomers comprises a persistent free radical, a deactivator, or a redox conjugate of the catalyst. polymerizing first free radically copolymerizable monomers to form a first block of a polymer chain; polymerizing second free radically copolymerizable monomers into the polymer chain, wherein the second free radically copolymerizable monomers are added to the polymerization process while some of the first free radically copolymerizable monomers remain unpolymerized, to form a second block of the polymer chain, wherein the second block of the polymer chain comprises the first and second free radically copolymerizable monomers, and wherein polymerizing the first free radically copolymerizable monomers and the second free radically copolymerizable monomers comprises a persistent free radical, a deactivator, or a redox conjugate of the catalyst.
A compound having the formula: or a pharmaceutically acceptable salt thereof, wherein: E is: W is a bond or -C -O-; R 3 is alkyl, cycloalkyl or heteroaryl, wherein a cycloalkyl or heteroaryl group can be unsubstituted or optionally substituted with R 9; R 6 is halo; R 9 is alkyl; R 15 is alkyl; and each occurrence of m is 0 or 1. E is: W is a bond or -C -O-; R 3 is alkyl, cycloalkyl or heteroaryl, wherein a cycloalkyl or heteroaryl group can be unsubstituted or optionally substituted with R 9; R 6 is halo; R 9 is alkyl; R 15 is alkyl; and each occurrence of m is 0 or 1.
A localization system, comprising: a first anchor configured to transmit a first localization signal; and a second anchor configured to transmit a second localization signal; wherein the first localization signal and the second localization signal can be received within a common region; characterised by: the first localization signal being a first timestampable localization signal comprising a preamble followed by a payload; the second localization signal being a second timestampable localization signal comprising a preamble followed by a payload; the localization system being configured to transmit the second timestampable localization signal to partially overlap with the transmission of the first timestampable localization signal such that the second timestampable localization signal does not overlap the preamble of the first timestampable localization signal. a first anchor configured to transmit a first localization signal; and a second anchor configured to transmit a second localization signal; wherein the first localization signal and the second localization signal can be received within a common region; characterised by: the first localization signal being a first timestampable localization signal comprising a preamble followed by a payload; the second localization signal being a second timestampable localization signal comprising a preamble followed by a payload; the localization system being configured to transmit the second timestampable localization signal to partially overlap with the transmission of the first timestampable localization signal such that the second timestampable localization signal does not overlap the preamble of the first timestampable localization signal. the first localization signal being a first timestampable localization signal comprising a preamble followed by a payload; the second localization signal being a second timestampable localization signal comprising a preamble followed by a payload; the localization system being configured to transmit the second timestampable localization signal to partially overlap with the transmission of the first timestampable localization signal such that the second timestampable localization signal does not overlap the preamble of the first timestampable localization signal.
An implantable medical device, comprising: a planar conductive case with a resistance (R case); a resonant circuit within the case for transmitting, receiving, or transmitting and receiving data at at least two frequencies (f 0, f 1) each representing a digital logic state, the resonant circuit comprising: a telemetry coil with an inductance (L coil) of the coil and a native resistance (R self) of the wire used to form the coil, wherein the telemetry coil is wound in a plane parallel to a plane of the case, and spaced from the plane of the case by a distance (d) to cause coupling between the case and the telemetry coil; and a capacitor, wherein the resistance (R case) of the case, the inductance (L coil) of the coil, the resistance (R self) of the wire, the capacitor and the distance (d) are configured such that the coupling between the case and the coil at least doubles a bandwidth of the resonant circuit as compared to the resonant circuit in isolation. a planar conductive case with a resistance (R case); a resonant circuit within the case for transmitting, receiving, or transmitting and receiving data at at least two frequencies (f 0, f 1) each representing a digital logic state, the resonant circuit comprising: a telemetry coil with an inductance (L coil) of the coil and a native resistance (R self) of the wire used to form the coil, wherein the telemetry coil is wound in a plane parallel to a plane of the case, and spaced from the plane of the case by a distance (d) to cause coupling between the case and the telemetry coil; and a capacitor, wherein the resistance (R case) of the case, the inductance (L coil) of the coil, the resistance (R self) of the wire, the capacitor and the distance (d) are configured such that the coupling between the case and the coil at least doubles a bandwidth of the resonant circuit as compared to the resonant circuit in isolation. a telemetry coil with an inductance (L coil) of the coil and a native resistance (R self) of the wire used to form the coil, wherein the telemetry coil is wound in a plane parallel to a plane of the case, and spaced from the plane of the case by a distance (d) to cause coupling between the case and the telemetry coil; and a capacitor, wherein the resistance (R case) of the case, the inductance (L coil) of the coil, the resistance (R self) of the wire, the capacitor and the distance (d) are configured such that the coupling between the case and the coil at least doubles a bandwidth of the resonant circuit as compared to the resonant circuit in isolation.
An inhaler article comprising: a body extending along a longitudinal axis from a mouthpiece end to a distal end; an endpiece element at the distal end; a capsule cavity defined within the body and extending along the longitudinal axis a cavity length; an air inlet region between the endpiece element and the capsule cavity, the air inlet region having an air inlet and an air passageway defining a vortex tunnel extending from the air inlet to the capsule cavity, the air passageway comprising an inner diameter less than an inner diameter of the capsule cavity, the vortex tunnel extending longitudinally along the longitudinal axis of the inhaler article body; a porous support element defining a downstream end of the capsule cavity, the porous support element formed of a porous material, the porous support element extending along a longitudinal axis a length, the porous support element comprises one or more apertures extending the length of the porous support element; a mouthpiece air channel extending from the capsule cavity, through the porous element to the mouthpiece end; wherein the porous support element apertures form helical features along the length of the support element. a body extending along a longitudinal axis from a mouthpiece end to a distal end; an endpiece element at the distal end; a capsule cavity defined within the body and extending along the longitudinal axis a cavity length; an air inlet region between the endpiece element and the capsule cavity, the air inlet region having an air inlet and an air passageway defining a vortex tunnel extending from the air inlet to the capsule cavity, the air passageway comprising an inner diameter less than an inner diameter of the capsule cavity, the vortex tunnel extending longitudinally along the longitudinal axis of the inhaler article body; a porous support element defining a downstream end of the capsule cavity, the porous support element formed of a porous material, the porous support element extending along a longitudinal axis a length, the porous support element comprises one or more apertures extending the length of the porous support element; a mouthpiece air channel extending from the capsule cavity, through the porous element to the mouthpiece end; wherein the porous support element apertures form helical features along the length of the support element.
A liquid discharge apparatus comprising: a liquid discharge head configured to discharge liquid onto an object in accordance with a discharge cycle signal, image data, and a drive waveform; and a carriage on which the liquid discharge head is mounted, the carriage configured to scan the object in a predetermined direction; characterized by a pattern data output unit configured to output pattern data for decimating the discharge cycle signal and the image data in accordance with a number of scans performed by the carriage to form a line of an image; and a discharge cycle signal generation unit configured to decimate the discharge cycle signal in accordance with the pattern data. a liquid discharge head configured to discharge liquid onto an object in accordance with a discharge cycle signal, image data, and a drive waveform; and a carriage on which the liquid discharge head is mounted, the carriage configured to scan the object in a predetermined direction; characterized by a pattern data output unit configured to output pattern data for decimating the discharge cycle signal and the image data in accordance with a number of scans performed by the carriage to form a line of an image; and a discharge cycle signal generation unit configured to decimate the discharge cycle signal in accordance with the pattern data.
A method for preparing one or more peptide ligands, comprising polypeptides covalently linked to a molecular scaffold at two or more amino acid residues, comprising the steps of: (a) displaying one or more peptide ligands in a genetic display system, wherein the polypeptide comprises two or more reactive groups which form a covalent linkage to the molecular scaffold, and at least one loop which comprises a sequence of two or more amino acids subtended between two of said reactive groups; (b) exposing the peptide ligands to more than one protease; and (c) screening the peptide ligands for binding against a target, and selecting the ligands which bind to the target and are resistant to cleavage by said more than one proteases. (a) displaying one or more peptide ligands in a genetic display system, wherein the polypeptide comprises two or more reactive groups which form a covalent linkage to the molecular scaffold, and at least one loop which comprises a sequence of two or more amino acids subtended between two of said reactive groups; (b) exposing the peptide ligands to more than one protease; and (c) screening the peptide ligands for binding against a target, and selecting the ligands which bind to the target and are resistant to cleavage by said more than one proteases.
A screen unlocking method, comprising: a first terminal sending a key information acquisition message to a network server, wherein the key information is used to unlock the first terminal, and the key information is previously sent to a second terminal and stored in the second terminal; the network server encrypting and sending the key information acquisition message to the second terminal; the second terminal sending the previously stored key information to the network server; the network server decrypting and sending the key information to the first terminal; and the first terminal unlocking a screen of the first terminal according to the key information from the second terminal. a first terminal sending a key information acquisition message to a network server, wherein the key information is used to unlock the first terminal, and the key information is previously sent to a second terminal and stored in the second terminal; the network server encrypting and sending the key information acquisition message to the second terminal; the second terminal sending the previously stored key information to the network server; the network server decrypting and sending the key information to the first terminal; and the first terminal unlocking a screen of the first terminal according to the key information from the second terminal.
Shaft for a medical instrument, in particular a mono- or bipolar medical instrument, having a shaft body which receives a tool at the distal end, said tool having a first mouth part and a second mouth part which are transferrable relative to each other from an opening position into a closing position with a pull/push rod which is guided in the shaft body, the shaft body having a connecting piece on the proximal end for fastening to a handling device, by means of which the pull/push rod is moveable backwards and forwards, and the at least one mouth part (19, 21) at the distal end in the shaft body is pivotably guided by at least one connecting link (49, 60) which has an arcuate segment-shaped track and a guideway running coaxially thereto, and an actuating member of the mouth part (19, 21) is formed to be curved in a complementary manner and is guided, with an outer and inner guide surface (41, 42), along the track and the guideway (51, 63) in the connecting link (49, 60), characterised in that, in the shaft body, a carriage is displaceably guided along the longitudinal axis of the shaft body, said carriage being moveable by means of a pull/push rod and transferring at least one mouth part (16, 21) into an opening position and a closing position.
Circumcision set comprising a male member and a female member that are releasably connectable to each other and that define a released position and a connected position with respect to each other, wherein in the connected position the male member and the female member define a longitudinal tube for receiving therein a forward end of a human's penis, wherein the female member is construed to arrange that the penis' foreskin is positionable over said female member's outer circumference, and wherein the set further comprises a closure device for placement circumferentially around the foreskin's outer side opposite to the female member so as to entrap the foreskin between the closure device and the female member to prevent blood flowing to the foreskin, wherein the closure device is embodied as a spring comprising two legs (7, 8) at opposite sides of the spring's turn or turns, wherein during use each turn fully envelopes the foreskin, characterized in that said legs (7, 8) are connectable to each other wherein a first leg of the legs of the closure device supports a head provided with an opening for receiving a strap, and the second leg of said legs supports the strap, which is equipped with at least one protrusion (15, 16) which is arranged to hook behind an edge of said opening through which the strap is insertable, and that the strap is provided with first and second protrusions (15, 16) respectively defining temporary and final closing positions.
A method for sending configuration information of a Synchronization Signal Block, SSB, applied to sidelink communication, the method comprising: determining, by a base station, according to a frequency band for transmitting an SSB, a maximum number of SSBs that can be transmitted; determining, by the base station, according to a relationship between the maximum number and a first preset number, a number of bits of configuration information, generating, by the base station, configuration information, wherein the configuration information corresponds to the number of bits, and the configuration information is used to indicate an SSB to be transmitted of the maximum number of SSBs, and the first preset number is less than or equal to a maximum number of bits that can be transmitted via a physical sidelink broadcast channel; and sending, by the base station, the configuration information through the physical sidelink broadcast channel. determining, by a base station, according to a frequency band for transmitting an SSB, a maximum number of SSBs that can be transmitted; determining, by the base station, according to a relationship between the maximum number and a first preset number, a number of bits of configuration information, generating, by the base station, configuration information, wherein the configuration information corresponds to the number of bits, and the configuration information is used to indicate an SSB to be transmitted of the maximum number of SSBs, and the first preset number is less than or equal to a maximum number of bits that can be transmitted via a physical sidelink broadcast channel; and sending, by the base station, the configuration information through the physical sidelink broadcast channel.
Method for coupling a first sensor as a master sensor to at least one second sensor as a slave sensor, wherein the method comprises the following steps: transmitting a first signal from the first sensor to the at least one second sensor; providing a second signal by means of the second sensor in response to the first signal, wherein the second signal contains a measured value from the second sensor; and outputting a third signal to a control device by means of the first sensor, wherein the third signal contains at least one measured value from the first sensor, characterized in that the first signal has a different data format to the third signal, wherein the first signal is transmitted by means of an SPI bus and the third signal is transmitted by means of a PSI or CAN bus. transmitting a first signal from the first sensor to the at least one second sensor; providing a second signal by means of the second sensor in response to the first signal, wherein the second signal contains a measured value from the second sensor; and outputting a third signal to a control device by means of the first sensor, wherein the third signal contains at least one measured value from the first sensor, characterized in that the first signal has a different data format to the third signal, wherein the first signal is transmitted by means of an SPI bus and the third signal is transmitted by means of a PSI or CAN bus.