mhurhangee/patent-ind-claim-en huggingface dataset:
A locking assembly for use with a tension member in a drainage catheter , comprising: (a) a connector disposed at a proximal end of the catheter, the connector having an exterior surface profile and a passageway extending longitudinally therethrough; (b) a locking arm having an interior surface profile that corresponds with the exterior surface profile of the connector, the locking arm being pivotably attached to the connector to enable pivoting movement of the locking arm about an axis of rotation , to and between an unlocked position and a locked position whereby when the locking arm is in the locked position, the tension member is secured between the interior surface of the locking arm and the exterior surface of the connector; and (c) a locking mechanism for preventing the locking arm from inadvertently disengaging from the locked position; wherein the shape of the locking arm is at least partially cylindrical and wherein a longitudinal axis of the locking arm is generally aligned with a longitudinal axis of the connector when the locking assembly is in the locked position. (a) a connector disposed at a proximal end of the catheter, the connector having an exterior surface profile and a passageway extending longitudinally therethrough; (b) a locking arm having an interior surface profile that corresponds with the exterior surface profile of the connector, the locking arm being pivotably attached to the connector to enable pivoting movement of the locking arm about an axis of rotation , to and between an unlocked position and a locked position whereby when the locking arm is in the locked position, the tension member is secured between the interior surface of the locking arm and the exterior surface of the connector; and (c) a locking mechanism for preventing the locking arm from inadvertently disengaging from the locked position;
An apparatus for wireless communications, comprising: a transceiver configured to operate in a first operational mode corresponding to a first wireless link type and a second operational mode corresponding to a second wireless link type based on operational parameters of the transceiver; and a controller coupled to the transceiver for selectively activating one of the first and second operational modes of the transceiver by changing the operational parameters of the transceiver, characterized in that wherein the controller is configured to set the operational mode of the transceiver according to an event, the event including receipt of a message indicating a configuration of the transceiver, wherein the message is received by the apparatus across a network it is using; said transceiver including a transmitter portion configured to receive one or more operational parameters from the controller, the transmitter portion including a digital to analog converter having a sampling rate that is determined by one of the one or more operational parameters, said transceiver further including a receiver portion configured to receive one or more operational parameters from the controller, the receiver portion including an analog to digital converter having a sampling rate that is determined by one of the one or more operational parameters. a transceiver configured to operate in a first operational mode corresponding to a first wireless link type and a second operational mode corresponding to a second wireless link type based on operational parameters of the transceiver; and a controller coupled to the transceiver for selectively activating one of the first and second operational modes of the transceiver by changing the operational parameters of the transceiver, characterized in that wherein the controller is configured to set the operational mode of the transceiver according to an event, the event including receipt of a message indicating a configuration of the transceiver, wherein the message is received by the apparatus across a network it is using; said transceiver including a transmitter portion configured to receive one or more operational parameters from the controller, the transmitter portion including a digital to analog converter having a sampling rate that is determined by one of the one or more operational parameters, said transceiver further including a receiver portion configured to receive one or more operational parameters from the controller, the receiver portion including an analog to digital converter having a sampling rate that is determined by one of the one or more operational parameters.
A device for bending metal leaf profiles, comprising at least one module for feeding the profiles onto the device, a module for joining the profiles, a module for advancing and guiding the profiles in the device, a profile bending module having a means for holding the shape of the profiles during the bending, which has a variable-spacing jaw , said jaw forming a first variable-spacing member for holding the shape of the profiles and surrounding a second member for holding the shape of the profiles during bending, a frame finishing module and a module for receiving the finished frames, characterised in that the bending module comprises at least two second members for holding the shape of the profiles and in that the second shape-holding members are of variable spacing (F2).
A method of preparing silica nanoparticles having a diameter of 50 nm to 1000 nm and a particle density of 1.96 g/cm 3 or less, said method comprising: (a) reacting an orthosilicate and an alcohol or a mixture of alcohols in an aqueous medium in the presence of a salt of a metal of Group Ia or Group IIa or in the presence of a metalloid compound, optionally in combination with ammonium hydroxide, (b) isolating the resulting nanoparticles, and (c) treating the nanoparticles from (b) with an acid, characterized in that the metalloid compound is a compound of boron, and in that in step (a) 2 to 25 mol/L of water, 8 to 16 mol/L of ethanol, 0 to 2 mol/L of methanol, 0.1 to 2 mol/L of ammonia, 0.1 to 0.4 mol/L of a tetraalkylorthosilicate, and 0.001 to 0.01 mol/L of a salt of a metal or metalloid compound are mixed; and in step (c) the nanoparticles from step (b) are treated with an acid for a period of about 0.5 hr to about 3 hr, said acid being IN to 2N mineral acid or 10 to 50 weight% organic acid in water. (a) reacting an orthosilicate and an alcohol or a mixture of alcohols in an aqueous medium in the presence of a salt of a metal of Group Ia or Group IIa or in the presence of a metalloid compound, optionally in combination with ammonium hydroxide, (b) isolating the resulting nanoparticles, and (c) treating the nanoparticles from (b) with an acid,
A multi-modality detection system , comprising: a distributed radiation source configured to irradiate an object under detection, characterized by comprising a primary collimator configured to separate rays of the distributed radiation source into two parts, wherein one part is for CT detection and the other part is for XRD detection; a CT detection device configured to perform a CT detection to acquire a CT image of the object under detection; and an XRD detection device comprising at least one XRD transmission detector and configured to perform an XRD detection to acquire an XRD image of the object under detection, wherein the CT detection and the XRD detection are performed simultaneously. a distributed radiation source configured to irradiate an object under detection, characterized by comprising a primary collimator configured to separate rays of the distributed radiation source into two parts, wherein one part is for CT detection and the other part is for XRD detection; a CT detection device configured to perform a CT detection to acquire a CT image of the object under detection; and an XRD detection device comprising at least one XRD transmission detector and configured to perform an XRD detection to acquire an XRD image of the object under detection, wherein the CT detection and the XRD detection are performed simultaneously.
A polymeric polyol composition comprising the reaction product(s) of: (i) a polyamine initiator composition which is the reaction product(s) of the polymerization of aminoethylpiperazine (AEP) comprising one or more of the compounds represented by the structures: where n is from 1 to 10; where n is from 0 to 10 and o is from 1 to 10 with the proviso that n + o is equal to or less than 10; and (ii) at least one epoxide compound having the structure VI: or at least one glycidyl ether compound having the structure VII: or a combination thereof; wherein R 1 is hydrogen, phenyl, cyclohexyl, or a C 1 to C 18 linear or branched alkyl and R 2 is hydrogen, phenyl, a C 1 to C 6 linear or branched alkyl-substituted phenyl, or a C 1 -C 18 linear or branched alkyl. (i) a polyamine initiator composition which is the reaction product(s) of the polymerization of aminoethylpiperazine (AEP) comprising one or more of the compounds represented by the structures: where n is from 1 to 10; where n is from 0 to 10 and o is from 1 to 10 with the proviso that n + o is equal to or less than 10; and (ii) at least one epoxide compound having the structure VI: or at least one glycidyl ether compound having the structure VII: or a combination thereof; wherein R 1 is hydrogen, phenyl, cyclohexyl, or a C 1 to C 18 linear or branched alkyl and R 2 is hydrogen, phenyl, a C 1 to C 6 linear or branched alkyl-substituted phenyl, or a C 1 -C 18 linear or branched alkyl. wherein R 1 is hydrogen, phenyl, cyclohexyl, or a C 1 to C 18 linear or branched alkyl and R 2 is hydrogen, phenyl, a C 1 to C 6 linear or branched alkyl-substituted phenyl, or a C 1 -C 18 linear or branched alkyl.
An electric vehicle charging plug comprising: - a housing for connecting to an electric vehicle, - a main housing , - a sensor comprising: - at least one conductive path embedded in a wall or arranged on the surface of the housing and/or main housing , and - a control unit , wherein the sensor is configured to detect a crack of the housing and/or the main housing , characterized in that the control unit is configured to measure at least one of the characteristics of the least one conductive path and the sensor is configured such that upon at least partial breakage of the least one conductive path the at least one characteristic of the at least one conductive path measured by the control unit changes thereby indicating the crack of the housing and/or the main housing , whereby the at least one conductive path is an electric conductive path and the control unit is configured to measure resistance, impedance, inductance and/or capacitance of the electric conductive path. - a housing for connecting to an electric vehicle, - a main housing , - a sensor comprising: - at least one conductive path embedded in a wall or arranged on the surface of the housing and/or main housing , and - a control unit , - at least one conductive path embedded in a wall or arranged on the surface of the housing and/or main housing , and - a control unit , wherein the sensor is configured to detect a crack of the housing and/or the main housing , characterized in that the control unit is configured to measure at least one of the characteristics of the least one conductive path and the sensor is configured such that upon at least partial breakage of the least one conductive path the at least one characteristic of the at least one conductive path measured by the control unit changes thereby indicating the crack of the housing and/or the main housing , whereby the at least one conductive path is an electric conductive path and the control unit is configured to measure resistance, impedance, inductance and/or capacitance of the electric conductive path.
An anodized decorative rolled product made of an aluminum alloy consisting of, in weight %, Mg : 0 - 1.5, Mn : 0 - 1.5, with Mg + Mn : 0.5 - 3, and wherein either Mn : 0.8 - 1.5 or Mg : 0.5 - 1.1 and Mn ≤ 0.2, Si : ≤ 0.6, Fe : ≤ 0.8, Ti : ≤ 0.1, Cu : ≤ 0.3, Cr : ≤ 0.1, Zn : ≤ 0.25, Zr : ≤ 0.1, other elements ≤ 0.05 each and ≤ 0.15 in total, remainder aluminium, wherein the rolled product has a porous anodic oxide film which is colored electrochemically or chemically and wherein the color of the decorative sheet is different if viewed at an incidence angle 0° and at an incidence angle of 45° and characterized in that the porous anodic oxide film is covered by a sol-gel coating preferably comprising silicon.
A pacing guidewire, comprising: an elongate body configured to receive and to support delivery of an elongate treatment device that is advanced over the pacing guidewire, the elongate body extending from a proximal end portion of the pacing guidewire to a distal end portion of the pacing guidewire and having an intermediate portion therebetween, the distal end portion including a pigtail-shaped region or a J-shaped region; and at least first and second electrodes spaced apart on the pigtail- or J-shaped region such that a portion of the first electrode is positionable away from a ventricular wall of a heart of a patient during pacing and the second electrode is positionable in contact with the ventricular wall of the heart of the patient during pacing while the elongate body supports delivery of the elongate treatment device to the heart of the patient, one of the electrodes serving as an anode and the other electrode serving as a cathode, the elongate body including a first elongate conductor which extends from a proximal end portion to a distal end portion that is electrically connected to the first electrode , and a second elongate conductor , which is insulated from the first elongate conductor , and extends from a proximal end portion to a distal end portion that is electrically connected to the second electrode . an elongate body configured to receive and to support delivery of an elongate treatment device that is advanced over the pacing guidewire, the elongate body extending from a proximal end portion of the pacing guidewire to a distal end portion of the pacing guidewire and having an intermediate portion therebetween, the distal end portion including a pigtail-shaped region or a J-shaped region; and at least first and second electrodes spaced apart on the pigtail- or J-shaped region such that a portion of the first electrode is positionable away from a ventricular wall of a heart of a patient during pacing and the second electrode is positionable in contact with the ventricular wall of the heart of the patient during pacing while the elongate body supports delivery of the elongate treatment device to the heart of the patient, one of the electrodes serving as an anode and the other electrode serving as a cathode, the elongate body including a first elongate conductor which extends from a proximal end portion to a distal end portion that is electrically connected to the first electrode , and a second elongate conductor , which is insulated from the first elongate conductor , and extends from a proximal end portion to a distal end portion that is electrically connected to the second electrode .
A clamping device for a bone-in limb meat comprising: a pair of clamp pieces including a first clamp piece and a second clamp piece , and being openable/closable so as to hold a bone-in limb meat (W); and rotation suppressing portions for suppressing a rotation of the bone-in limb meat, the rotation suppressing portions being disposed at positions deviated with respect to the pair of clamp pieces in a direction perpendicular to a plane (P) including an opening/closing direction (a) of the pair of clamp pieces , wherein the rotation suppressing portions include a projection portion disposed so as to protrude into a space (S) between the pair of clamp pieces and toward the bone-in limb meat (W) when viewed from said direction perpendicular to the plane (P), the projection portion being configured to dig into the bone-in limb meat (W), wherein the rotation suppressing portions further include an abutting portion disposed on a side of the second clamp piece across a center line (C) between the pair of clamp pieces and to the back of the pair of clamp pieces with respect to the projection portion , the abutting portion being configured to contact the bone-in limb meat (W), wherein the abutting portion is formed by a plate-shape body having a normal direction intersecting the center line (C) at a tip side of the clamping device, the plate-shape body extending perpendicular to a direction included in the plane (P), so that the abutting portion heads for the back of the pair of clamp pieces when approaching the first clamp piece . a pair of clamp pieces including a first clamp piece and a second clamp piece , and being openable/closable so as to hold a bone-in limb meat (W); and rotation suppressing portions for suppressing a rotation of the bone-in limb meat, the rotation suppressing portions being disposed at positions deviated with respect to the pair of clamp pieces in a direction perpendicular to a plane (P) including an opening/closing direction (a) of the pair of clamp pieces , wherein the rotation suppressing portions include a projection portion disposed so as to protrude into a space (S) between the pair of clamp pieces and toward the bone-in limb meat (W) when viewed from said direction perpendicular to the plane (P), the projection portion being configured to dig into the bone-in limb meat (W), wherein the rotation suppressing portions further include an abutting portion disposed on a side of the second clamp piece across a center line (C) between the pair of clamp pieces and to the back of the pair of clamp pieces with respect to the projection portion , the abutting portion being configured to contact the bone-in limb meat (W), wherein the abutting portion is formed by a plate-shape body having a normal direction intersecting the center line (C) at a tip side of the clamping device, the plate-shape body extending perpendicular to a direction included in the plane (P), so that the abutting portion heads for the back of the pair of clamp pieces when approaching the first clamp piece .
A pneumatic tire, comprising: an annular tread portion extending in a tire circumferential direction; a pair of sidewall portions disposed on both sides of the tread portion ; a pair of bead portions disposed inward of the pair of sidewall portions in a tire radial direction; a carcass layer mounted between the pair of bead portions ; a belt layer disposed radially outward of the carcass layer in the tread portion ; an innerliner layer disposed on a tire inner surface along the carcass layer ; and a partial tie rubber layer disposed between the carcass layer and the innerliner layer across an entire region excluding end portions near the pair of bead portions ; characterised in that end surfaces of the partial tie rubber layer on both sides in a tire lateral direction are inclined surfaces that form an acute angle with respect to a surface of the partial tie rubber layer on the carcass layer side; and an inclination angle of the inclined surfaces with respect to the surface of the partial tie rubber layer on the carcass layer side is from 20° to 60°. an annular tread portion extending in a tire circumferential direction; a pair of sidewall portions disposed on both sides of the tread portion ; a pair of bead portions disposed inward of the pair of sidewall portions in a tire radial direction; a carcass layer mounted between the pair of bead portions ; a belt layer disposed radially outward of the carcass layer in the tread portion ; an innerliner layer disposed on a tire inner surface along the carcass layer ; and a partial tie rubber layer disposed between the carcass layer and the innerliner layer across an entire region excluding end portions near the pair of bead portions ; characterised in that end surfaces of the partial tie rubber layer on both sides in a tire lateral direction are inclined surfaces that form an acute angle with respect to a surface of the partial tie rubber layer on the carcass layer side; and
Composite slab , comprising a tension layer and a concrete layer connected to the tension layer , the tension layer having, on a tension-layer inner side facing the concrete layer , a predeterminable plurality of predeterminably shaped recesses , in which recesses the concrete layer engages in order to forms a shear-resistant composite between the concrete layer and the tension layer , the tension layer having at least one wooden beam , at least one first recess being arranged in the at least one wooden beam , characterized in that the at least one first recess is embodied as a stepped recess which has at least two different depths.
A method, comprising: obtaining , by a terminal, indication information from a base station; and determining , by the terminal, maximum number of multi-input multi-output (MIMO) layers according to the indication information and band combination of the terminal, wherein the band combination is an information element signaled by the terminal to the base station as part of the access capability, wherein the band combination is a combination of frequency bands which indicates the MIMO capability of the terminal in different frequency bands and the MIMO capability is a maximum number of supported MIMO layers of the terminal; wherein if the band combination comprises at least two times the same band, determining, by the terminal, the maximum number of the MIMO layers according to the indication information and according to a maximum value of the maximum numbers of supported MIMO layers that are indicated by the frequency band. obtaining , by a terminal, indication information from a base station; and determining , by the terminal, maximum number of multi-input multi-output (MIMO) layers according to the indication information and band combination of the terminal, wherein the band combination is an information element signaled by the terminal to the base station as part of the access capability, wherein the band combination is a combination of frequency bands which indicates the MIMO capability of the terminal in different frequency bands and the MIMO capability is a maximum number of supported MIMO layers of the terminal; wherein if the band combination comprises at least two times the same band, determining, by the terminal, the maximum number of the MIMO layers according to the indication information and according to a maximum value of the maximum numbers of supported MIMO layers that are indicated by the frequency band.
A communication method, comprising: obtaining (S110), by a base station, data radio bearer, DRB, configuration information, wherein the DRB configuration information is used to determine a mapping relationship between serving cells and DRBs used to carry data of different service types, wherein a DRB corresponds to one or more serving cells and each serving cell supports one or more numerologies, the DRB configuration information contains a mapping relationship between a DRB and the one or more numerologies supported by each serving cell, each of the one or more numerologies corresponds to a subcarrier spacing; and sending (S120), by the base station, the DRB configuration information to a terminal, for enabling the terminal to communicate with the base station in one or more serving cells by using one or more numerologies corresponding to one or more DRBs carrying data of the terminal. obtaining (S110), by a base station, data radio bearer, DRB, configuration information, wherein the DRB configuration information is used to determine a mapping relationship between serving cells and DRBs used to carry data of different service types, wherein a DRB corresponds to one or more serving cells and each serving cell supports one or more numerologies, the DRB configuration information contains a mapping relationship between a DRB and the one or more numerologies supported by each serving cell, each of the one or more numerologies corresponds to a subcarrier spacing; and sending (S120), by the base station, the DRB configuration information to a terminal, for enabling the terminal to communicate with the base station in one or more serving cells by using one or more numerologies corresponding to one or more DRBs carrying data of the terminal.