mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless communication system , comprising one or more monitoring devices and one or more asset tag devices , wherein the one or more monitoring devices are configured to: - transmit a beacon frame on at least one first communication channel, at least once per beacon interval, the beacon frame comprising information of a second communication channel, and - listen to the second communication channel, the one or more asset tag devices operating in a high-capacity mode are configured to: - scan at least one first communication channel to receive at least one beacon frame transmitted by the one or more monitoring devices , - select a monitoring device based on at least one selection criterion, - switch to the second communication channel indicated in the beacon frame transmitted by the selected monitoring device , and - transmit an initialization message to the selected monitoring device to initiate communication with the selected monitoring device on the second communication channel, wherein the selected monitoring device is further configured to communicate with the one or more asset tag devices on the second communication channel in response to receiving the initialization message from the one or more asset tag devices . the one or more monitoring devices are configured to: - transmit a beacon frame on at least one first communication channel, at least once per beacon interval, the beacon frame comprising information of a second communication channel, and - listen to the second communication channel, - transmit a beacon frame on at least one first communication channel, at least once per beacon interval, the beacon frame comprising information of a second communication channel, and - listen to the second communication channel, the one or more asset tag devices operating in a high-capacity mode are configured to: - scan at least one first communication channel to receive at least one beacon frame transmitted by the one or more monitoring devices , - select a monitoring device based on at least one selection criterion, - switch to the second communication channel indicated in the beacon frame transmitted by the selected monitoring device , and - transmit an initialization message to the selected monitoring device to initiate communication with the selected monitoring device on the second communication channel, - scan at least one first communication channel to receive at least one beacon frame transmitted by the one or more monitoring devices , - select a monitoring device based on at least one selection criterion, - switch to the second communication channel indicated in the beacon frame transmitted by the selected monitoring device , and - transmit an initialization message to the selected monitoring device to initiate communication with the selected monitoring device on the second communication channel, wherein the selected monitoring device is further configured to communicate with the one or more asset tag devices on the second communication channel in response to receiving the initialization message from the one or more asset tag devices .
Process for the continuous preparation of a polyolefin in a reactor from one or more α-olefin monomers of which at least one is ethylene or propylene, wherein the reactor comprises a fluidized bed, an expanded section located at or near the top of the reactor, a distribution plate located at the lower part of the reactor and an inlet for a recycle stream located under the distribution plate wherein the process comprises - feeding a polymerization catalyst to the fluidized bed in the area above the distribution plate - feeding the one or more α-olefin monomers to the reactor - withdrawing the polyolefin from the reactor - circulating fluids from the top of the reactor to the bottom of the reactor, wherein the circulating fluids are compressed using a compressor and subsequently cooled using a heat exchanger to form a cooled recycle stream comprising liquid, and wherein the cooled recycle stream is introduced into the reactor using the inlet for the recycle stream wherein a part of the cooled recycle stream is drawn to form a liquid comprising stream, wherein the liquid comprising stream is introduced into the expanded section during at least part of the polymerization process, and wherein the liquid comprising stream is brought into contact with at least part of the interior surface of the expanded section. - feeding a polymerization catalyst to the fluidized bed in the area above the distribution plate - feeding the one or more α-olefin monomers to the reactor - withdrawing the polyolefin from the reactor - circulating fluids from the top of the reactor to the bottom of the reactor, wherein the circulating fluids are compressed using a compressor and subsequently cooled using a heat exchanger to form a cooled recycle stream comprising liquid, and wherein the cooled recycle stream is introduced into the reactor using the inlet for the recycle stream
A transport refrigeration unit, TRU, system , comprising: a TRU comprising components which are configured to control an environment of an interior of a container and a TRU controller configured to control the components in accordance with component operating settings; and a non-diesel energy storage device, ESD, comprising an ESD controller , the ESD controller being receptive of identification data identifying the components , current condition data reflective of current conditions of the interior of the container and control data reflective of a temperature profile of the interior of the container , characterized in that the ESD controller is configured to determine the component operating settings in accordance with the identification, current condition and control data and to issue the component operating settings to the TRU controller . a TRU comprising components which are configured to control an environment of an interior of a container and a TRU controller configured to control the components in accordance with component operating settings; and a non-diesel energy storage device, ESD, comprising an ESD controller , the ESD controller being receptive of identification data identifying the components , current condition data reflective of current conditions of the interior of the container and control data reflective of a temperature profile of the interior of the container , characterized in that the ESD controller is configured to determine the component operating settings in accordance with the identification, current condition and control data and to issue the component operating settings to the TRU controller .
Drilling tool with - a base body having a central axis, a diameter (D) and a front side , - at least two main cutting edges provided on the front side , which - each have a plurality of partial sections , of which - a first partial section of the at least two main cutting edges is arranged closer to the central axis , and a second partial section adjoins the end of the first partial section facing away from the central axis and is at a greater distance from the central axis than the first partial section , wherein - the first partial sections of the at least two main cutting edges include a point angle si ≥ 180° and the second partial sections include a point angle Sa ≤ 180° with each other, whereby - a point is formed in the transition region between the first partial section and the second partial section at a distance from the central axis , and wherein - the cutting edges of the at least two main cutting edges having a below-center position in the first partial section , wherein - the cutting edges of the at least two main cutting edges having a ahead-ofcenter position in the second partial section , characterized in that - the drilling tool has a central chisel edge which connects the first partial sections of the main cutting edges to each other. - a base body having a central axis, a diameter (D) and a front side , - at least two main cutting edges provided on the front side , which - each have a plurality of partial sections , of which - a first partial section of the at least two main cutting edges is arranged closer to the central axis , and a second partial section adjoins the end of the first partial section facing away from the central axis and is at a greater distance from the central axis than the first partial section , wherein - the first partial sections of the at least two main cutting edges include a point angle si ≥ 180° and the second partial sections include a point angle Sa ≤ 180° with each other, whereby - a point is formed in the transition region between the first partial section and the second partial section at a distance from the central axis , and wherein - the cutting edges of the at least two main cutting edges having a below-center position in the first partial section , wherein - the cutting edges of the at least two main cutting edges having a ahead-ofcenter position in the second partial section , - the drilling tool has a central chisel edge which connects the first partial sections of the main cutting edges to each other.
A corona discharge component, comprising: an ionization discharge chamber, wherein the ionization discharge chamber comprises a metal corona cylinder , and the metal corona cylinder is provided with a to-be-analyzed gas inlet and an ion outlet which forms a non-uniform electric field with corona pins and is provided with a circular hole at the center; and characterised by : a rotating shaft insulatively mounted on the cylinder wall of the metal corona cylinder , the rotating shaft is vertical to the axial line of the metal corona cylinder , and a turntable having multiple corona pins at the outer edge is installed at the end part of the rotating shaft , the axial line of the metal corona cylinder passes in parallel through the rotation plane of the turntable ; wherein a closed metal shielding cylinder is arranged inside the metal corona cylinder , and the metal shielding cylinder includes a trumpet-shaped focusing electrode configured to form a gathered static electric field. an ionization discharge chamber, wherein the ionization discharge chamber comprises a metal corona cylinder , and the metal corona cylinder is provided with a to-be-analyzed gas inlet and an ion outlet which forms a non-uniform electric field with corona pins and is provided with a circular hole at the center; and characterised by : a rotating shaft insulatively mounted on the cylinder wall of the metal corona cylinder , the rotating shaft is vertical to the axial line of the metal corona cylinder , and a turntable having multiple corona pins at the outer edge is installed at the end part of the rotating shaft , the axial line of the metal corona cylinder passes in parallel through the rotation plane of the turntable ; wherein a closed metal shielding cylinder is arranged inside the metal corona cylinder , and the metal shielding cylinder includes a trumpet-shaped focusing electrode configured to form a gathered static electric field. a rotating shaft insulatively mounted on the cylinder wall of the metal corona cylinder , the rotating shaft is vertical to the axial line of the metal corona cylinder , and a turntable having multiple corona pins at the outer edge is installed at the end part of the rotating shaft , the axial line of the metal corona cylinder passes in parallel through the rotation plane of the turntable ; wherein a closed metal shielding cylinder is arranged inside the metal corona cylinder , and the metal shielding cylinder includes a trumpet-shaped focusing electrode configured to form a gathered static electric field.
A drive system configured for reciprocating, between an extended position and a retracted position, a roll-up truck bed cover above a truck bed , said roll-up truck bed cover being composed of a rear profile , a plurality of elongate slats that are hinged together wherein the plurality of elongate slats has a foremost front slat , said drive system comprising at least one reciprocating means adapted for reciprocating the roll-up truck bed cover , and at least one reversible electric motor adapted for driving the reciprocating means , the at least one reciprocating means comprises at least one pulley system comprising at least one set of pulleys and at least one drive belt , which at least one set of pulleys includes a driven pulley and an idle pulley , characterised in that the drive belt is secured to the rear profile of the roll-up truck bed cover via an intermediate component that protrudes from the rear profile to detachably engage a resiliently extensible belt tensioner on the drive belt . the at least one reciprocating means comprises at least one pulley system comprising at least one set of pulleys and at least one drive belt , which at least one set of pulleys includes a driven pulley and an idle pulley , characterised in that the drive belt is secured to the rear profile of the roll-up truck bed cover via an intermediate component that protrudes from the rear profile to detachably engage a resiliently extensible belt tensioner on the drive belt .
A nucleic acid construct comprising a nucleic acid sequence that encodes a chimeric protein comprising a ligand, an extracellular hinge domain, a transmembrane domain, a co-stimulatory signaling region, and a signaling endodomain; wherein the ligand comprises a follicle stimulating hormone (FSH) or fragment or modification thereof, wherein the FSH or fragment or modification thereof binds to human follicle stimulating hormone receptor (FSHR), and wherein the chimeric protein is capable of activating a modified human T cell expressing the chimeric protein.
A method of processing a tissue sample for deep imaging, the method comprising the steps of: obtaining a tissue sample; simultaneously dehydrating and staining the tissue sample by contacting the tissue sample with a fixative solution comprising methacarn as a fixative and a fluorescent dye comprising 10μm of 2-(4-amidinophenyl)-1H-indole-6-carboxamidine (DAPI) and 0.5% by volume eosin; and clearing the tissue sample with a clearing solution of 100% benzyl alcohol and benzyl benzoate (BABB). obtaining a tissue sample; simultaneously dehydrating and staining the tissue sample by contacting the tissue sample with a fixative solution comprising methacarn as a fixative and a fluorescent dye comprising 10μm of 2-(4-amidinophenyl)-1H-indole-6-carboxamidine (DAPI) and 0.5% by volume eosin; and clearing the tissue sample with a clearing solution of 100% benzyl alcohol and benzyl benzoate (BABB).
A system for global alignment of a spine during spinal surgery, the system comprising an imaging device , a spatial tracking system , a bending device , a mobile hand held communication device configured to calculate one or more cervical parameters based on identification of spinal markers in a preoperative image, wherein the spinal markers correspond to (i) cervical vertebrae and (ii) the first thoracic vertebra, and, a control unit configured to: receive the one or more cervical parameters; receive a planned target value of one or more spinal parameters; based on the planned target value of the one or more spinal parameters, determine one or more ranges corresponding to a desired correction in at least one of (i) a sagittal alignment and (ii) a coronal alignment of the spine; capture, via the imaging device , one or more intraoperative fluoroscopy images; measure an intraoperative value of the one or more spinal parameters according to the one or more captured intraoperative fluoroscopy images; compare the intraoperative value of the one or more spinal parameters with the planned target value of the spinal parameters and the one or more cervical parameters; based on the comparison, determine that the intraoperative value of the one or more spinal parameters is within the one or more ranges and receive, via the spatial tracking system , a measurement of a location of one or more screws; and calculate an instruction to bend a rod, via the bending device , to the location of the one or more screws. receive the one or more cervical parameters; receive a planned target value of one or more spinal parameters; based on the planned target value of the one or more spinal parameters, determine one or more ranges corresponding to a desired correction in at least one of (i) a sagittal alignment and (ii) a coronal alignment of the spine; capture, via the imaging device , one or more intraoperative fluoroscopy images; measure an intraoperative value of the one or more spinal parameters according to the one or more captured intraoperative fluoroscopy images; compare the intraoperative value of the one or more spinal parameters with the planned target value of the spinal parameters and the one or more cervical parameters; based on the comparison, determine that the intraoperative value of the one or more spinal parameters is within the one or more ranges and receive, via the spatial tracking system , a measurement of a location of one or more screws; and calculate an instruction to bend a rod, via the bending device , to the location of the one or more screws.
A 3D image display method, comprising: obtaining a millimeter wave measurement signal; identifying a user and determining a feature parameter of the user according to the millimeter wave measurement signal and a reference signal using an array antenna; and switching a display parameter of a 3D image according to the feature parameter of the user, wherein, a plurality of users are included, and the feature parameter of each of the plurality of the users comprises an orientation of the user, a user distance and user's own feature parameters, wherein, identifying the user and determining the feature parameter of the user according to the millimeter wave measurement signal and the reference signal comprises: determining, for each of the plurality of users respectively, the orientation of the user and the user distance according to the millimeter wave measurement signal and the reference signal and the user's own feature parameters; wherein determining, for each of the plurality of users, the user's own feature parameters comprises: determining a pupil distance corresponding to the user, wherein the pupil distance is determined through a front camera together with a head contour scanning by the array antenna; and wherein, switching the display parameter of the 3D image according to the feature parameter of the user comprises setting a display parameter of the 3D image applicable to each of the users respectively according to the feature parameter, and switching and displaying the display parameter of the 3D image applicable to each of the users in turn. obtaining a millimeter wave measurement signal; identifying a user and determining a feature parameter of the user according to the millimeter wave measurement signal and a reference signal using an array antenna; and switching a display parameter of a 3D image according to the feature parameter of the user, wherein, a plurality of users are included, and the feature parameter of each of the plurality of the users comprises an orientation of the user, a user distance and user's own feature parameters, wherein, identifying the user and determining the feature parameter of the user according to the millimeter wave measurement signal and the reference signal comprises: determining, for each of the plurality of users respectively, the orientation of the user and the user distance according to the millimeter wave measurement signal and the reference signal and the user's own feature parameters; wherein determining, for each of the plurality of users, the user's own feature parameters comprises: determining a pupil distance corresponding to the user, wherein the pupil distance is determined through a front camera together with a head contour scanning by the array antenna; and wherein, switching the display parameter of the 3D image according to the feature parameter of the user comprises setting a display parameter of the 3D image applicable to each of the users respectively according to the feature parameter, and switching and displaying the display parameter of the 3D image applicable to each of the users in turn.
A method performed in a wireless communication device for selecting cell and Radio Access Technology, RAT, in an idle operating mode in a wireless communication system , wherein the wireless communication device comprises multiple receiving modules and comprises at least two Subscriber Identity Modules, SIMs, the method comprising: determining a first cell and a first RAT to camp on using a first receiving module for a first SIM based on estimating a performance of a number of RATs and cells in the wireless communication system ; determining a second cell and a second RAT to camp on using the first receiving module or a second receiving module for a second SIM based on estimating a performance of the number of RATs and cells in the wireless communication system ; determining whether idle mode tasks of the first and second SIMs with the determined cells and RATs overlap at least partly in time; when the idle mode tasks of the first and second SIMs do not overlap in time, handling the idle mode tasks of the first and second SIMs using a same one of the multiple receiving modules; when the idle mode tasks of the first and second SIMs overlap at least partly in time, enabling one of the receiving modules to handle the idle mode tasks of one of the first and second SIMs and enabling a different one of the receiving modules to handle the idle mode tasks of a different one of the first and second SIMs. determining a first cell and a first RAT to camp on using a first receiving module for a first SIM based on estimating a performance of a number of RATs and cells in the wireless communication system ; determining a second cell and a second RAT to camp on using the first receiving module or a second receiving module for a second SIM based on estimating a performance of the number of RATs and cells in the wireless communication system ; determining whether idle mode tasks of the first and second SIMs with the determined cells and RATs overlap at least partly in time; when the idle mode tasks of the first and second SIMs do not overlap in time, handling the idle mode tasks of the first and second SIMs using a same one of the multiple receiving modules; when the idle mode tasks of the first and second SIMs overlap at least partly in time, enabling one of the receiving modules to handle the idle mode tasks of one of the first and second SIMs and enabling a different one of the receiving modules to handle the idle mode tasks of a different one of the first and second SIMs.
An apparatus , comprising: a sensor insertable into a dermal layer of skin of a subject and adapted to sense an analyte level in the dermal layer; a base from which the sensor extends, the base being adapted to contact the skin of the subject with the sensor inserted into the dermal layer; an insertion needle ; and a perfusion modulator adapted to increase perfusion in the dermal layer, wherein the perfusion modulator is at least one protrusion located on the base, wherein the at least one protrusion is adapted to apply pressure to increase perfusion in an area local to the sensor when inserted into the dermal layer, and wherein the insertion needle extends from the at least one protrusion adjacent to the sensor. a sensor insertable into a dermal layer of skin of a subject and adapted to sense an analyte level in the dermal layer; a base from which the sensor extends, the base being adapted to contact the skin of the subject with the sensor inserted into the dermal layer; an insertion needle ; and a perfusion modulator adapted to increase perfusion in the dermal layer, wherein the perfusion modulator is at least one protrusion located on the base, wherein the at least one protrusion is adapted to apply pressure to increase perfusion in an area local to the sensor when inserted into the dermal layer, and wherein the insertion needle extends from the at least one protrusion adjacent to the sensor.