mhurhangee/patent-ind-claim-en huggingface dataset:
A solar power generation control device that controls a solar power generation system storing electric power generated by a solar panel in a battery , the solar power generation control device comprising: a detection unit configured to detect a state of the battery ; and a controller configured to control a sleep time for temporarily stopping the solar power generation system when a predetermined sleep condition is satisfied, characterized in that the sleep time is controlled based on the state of charge of the battery . a detection unit configured to detect a state of the battery ; and a controller configured to control a sleep time for temporarily stopping the solar power generation system when a predetermined sleep condition is satisfied, characterized in that the sleep time is controlled based on the state of charge of the battery .
A pressure bulkhead structure of a perforating gun select fire sub assembly, the pressure bulkhead structure comprising: a pressure-isolating enclosure comprising a pressure-isolating enclosure body having a sealed first end , a sealed second end , and an elongated body portion , wherein the elongated body portion extends between the sealed first end and the sealed second end along a longitudinal direction of the enclosure body ; a selective electronic switch circuitry positioned between the sealed first end and the sealed second end of the pressure-isolating enclosure body ; an electrical connector extending from the selective electronic switch circuitry through the sealed first end ; and, a wiring arrangement extending from the selective electronic switch circuitry through the sealed second end wherein the selective electronic switch circuitry is immovable and sealed within the pressure-isolating enclosure body ; characterized in that the pressure bulkhead structure further comprises: a common ground contact extending from the selective electronic switch circuitry through the sealed second end . a pressure-isolating enclosure comprising a pressure-isolating enclosure body having a sealed first end , a sealed second end , and an elongated body portion , wherein the elongated body portion extends between the sealed first end and the sealed second end along a longitudinal direction of the enclosure body ; a selective electronic switch circuitry positioned between the sealed first end and the sealed second end of the pressure-isolating enclosure body ; an electrical connector extending from the selective electronic switch circuitry through the sealed first end ; and, a wiring arrangement extending from the selective electronic switch circuitry through the sealed second end wherein the selective electronic switch circuitry is immovable and sealed within the pressure-isolating enclosure body ; characterized in that the pressure bulkhead structure further comprises: a common ground contact extending from the selective electronic switch circuitry through the sealed second end .
A method of determining tissues and/or cell types giving rise to cell-free DNA (cfDNA) in a subject, the method comprising: a. isolating cfDNA from a biological sample from the subject, the isolated cfDNA comprising a plurality of cfDNA fragments; b. tagging a unique molecular identifier (UMI) to each isolated cfDNA fragment, the UMI comprising an oligomer of at least two nucleotides; c. determining pairs of sequences associated with at least a portion of the plurality of UMI-tagged cfDNA fragments; d. determining the subset of these pairs of sequences for which the sequence associated with the cfDNA fragment has more than one genomic location within a reference genome; and e. determining at least some of the tissues and/or cell types giving rise to the cfDNA fragments as a function of this subset of pairs of sequences. a. isolating cfDNA from a biological sample from the subject, the isolated cfDNA comprising a plurality of cfDNA fragments; b. tagging a unique molecular identifier (UMI) to each isolated cfDNA fragment, the UMI comprising an oligomer of at least two nucleotides; c. determining pairs of sequences associated with at least a portion of the plurality of UMI-tagged cfDNA fragments; d. determining the subset of these pairs of sequences for which the sequence associated with the cfDNA fragment has more than one genomic location within a reference genome; and e. determining at least some of the tissues and/or cell types giving rise to the cfDNA fragments as a function of this subset of pairs of sequences.
A method, comprising: immersing a glass-based substrate comprising a glass ceramic in a molten salt bath to produce a glass-based article, wherein prior to the immersion of any glass-based substrate in the molten salt bath, the molten salt bath comprises: a nitrate salt, and a nitrite salt in an amount of greater than or equal to 0.01 wt% and less than or equal to 1.0 wt%, wherein the nitrite salt comprises NaNO 2 .. immersing a glass-based substrate comprising a glass ceramic in a molten salt bath to produce a glass-based article, wherein prior to the immersion of any glass-based substrate in the molten salt bath, the molten salt bath comprises: a nitrate salt, and a nitrite salt in an amount of greater than or equal to 0.01 wt% and less than or equal to 1.0 wt%, wherein the nitrite salt comprises NaNO 2 .. a nitrate salt, and a nitrite salt in an amount of greater than or equal to 0.01 wt% and less than or equal to 1.0 wt%, wherein the nitrite salt comprises NaNO 2 ..
A connecting device, comprising: a connecting member , a slider and a locking member ; wherein the locking member comprises a limiting cylinder and a limiting button , the limiting button comprises a sliding portion and a transmission portion , and the limiting cylinder is provided with a receiving hole for receiving the transmission portion ; wherein one end of the connecting member is provided with a fastening portion to be fitted with an external supporting device, and the other end of the connecting member is provided with a first sliding slot and a limiting slot for accommodating the limiting cylinder ; wherein one end of the slider is provided with a second sliding slot slidably fitted with the first sliding slot and an accommodating hole for accommodating the limiting cylinder , a side wall of the slider is provided with a through hole which communicates with the accommodating hole and is configured to receive the transmission portion , and the through hole guides a sliding of the received transmission portion ; wherein the other end of the slider is provided with a locking portion for fixing an external device; and characterized in that the receiving hole is provided on the limiting cylinder . a connecting member , a slider and a locking member ; wherein the locking member comprises a limiting cylinder and a limiting button , the limiting button comprises a sliding portion and a transmission portion , and the limiting cylinder is provided with a receiving hole for receiving the transmission portion ; wherein one end of the connecting member is provided with a fastening portion to be fitted with an external supporting device, and the other end of the connecting member is provided with a first sliding slot and a limiting slot for accommodating the limiting cylinder ; wherein one end of the slider is provided with a second sliding slot slidably fitted with the first sliding slot and an accommodating hole for accommodating the limiting cylinder , a side wall of the slider is provided with a through hole which communicates with the accommodating hole and is configured to receive the transmission portion , and the through hole guides a sliding of the received transmission portion ; wherein the other end of the slider is provided with a locking portion for fixing an external device; and characterized in that the receiving hole is provided on the limiting cylinder .
A method carried out by a controller, comprising: receiving input data related to an enclosure, the input data including solar intensity data on an exterior of a wall of the enclosure; generating a thermal model of a wall of the enclosure based at least in part on the input data, the wall modeled as having a plurality of layers wherein physical properties of a material used to construct a respective layer reflect an ability of the material to store heat energy, and the thermal model defines the wall as a physical domain represented by a plurality of nodes, each layer of the plurality of layers being associated with at least one node of the plurality of nodes and each node of the plurality of nodes being thermally coupled to an adjacent node by a thermal resistance; solving an energy balance equation associated with the thermal model including compensating for solar load based on the solar intensity data to determine a predicted temperature for at least one node; and output the predicted temperature to a display device. receiving input data related to an enclosure, the input data including solar intensity data on an exterior of a wall of the enclosure; generating a thermal model of a wall of the enclosure based at least in part on the input data, the wall modeled as having a plurality of layers wherein physical properties of a material used to construct a respective layer reflect an ability of the material to store heat energy, and the thermal model defines the wall as a physical domain represented by a plurality of nodes, each layer of the plurality of layers being associated with at least one node of the plurality of nodes and each node of the plurality of nodes being thermally coupled to an adjacent node by a thermal resistance; solving an energy balance equation associated with the thermal model including compensating for solar load based on the solar intensity data to determine a predicted temperature for at least one node; and output the predicted temperature to a display device.
A pouch-shaped battery cell comprising: a pouch-shaped battery case made of a laminate sheet, wherein the pouch-shaped battery case comprises an outer resin layer , a metal layer , and an inner resin layer ; an electrode assembly received in the pouch-shaped battery case; and a venting portion configured to discharge gas in the pouch-shaped battery case, wherein the venting portion has a structure in which a first layer and a second layer are stacked and made of an identical polytetrafluoroethylene, PTFE, material, wherein the first layer has a structure with open pores formed therein through which the inside and the outside of the first layer communicate with each other, and the second layer has a structure in which the surface of the second layer has no pores formed therein, wherein the venting portion is attached to the pouch-shaped battery case such that the first layer and the inner resin layer contact each other, wherein the pouch-shaped battery case is provided with an opening, and the opening is opened or closed by the venting portion attached to an inside of the opening. a pouch-shaped battery case made of a laminate sheet, wherein the pouch-shaped battery case comprises an outer resin layer , a metal layer , and an inner resin layer ; an electrode assembly received in the pouch-shaped battery case; and a venting portion configured to discharge gas in the pouch-shaped battery case, wherein the venting portion has a structure in which a first layer and a second layer are stacked and made of an identical polytetrafluoroethylene, PTFE, material, wherein the first layer has a structure with open pores formed therein through which the inside and the outside of the first layer communicate with each other, and the second layer has a structure in which the surface of the second layer has no pores formed therein, wherein the venting portion is attached to the pouch-shaped battery case such that the first layer and the inner resin layer contact each other, wherein the pouch-shaped battery case is provided with an opening, and the opening is opened or closed by the venting portion attached to an inside of the opening.
A device for wiping and cleaning a glazed surface (S) of a motor vehicle, comprising at least: - a direct current electric motor rotating in a single direction and capable of moving at least one "wiper arm" unit (BB) formed by a drive arm and a wiper blade by means of a linkage , said "wiper arm" unit being moved according to an angular to-and-fro movement between a rest position and an end position opposite the rest position in relation to an angular sector of the glazed surface (S), - a device for dispensing an active liquid onto the glazed surface (S), the active liquid preferably being a de-icing liquid or an inset-removing liquid, - a control means configured to control, on the one hand, the operation of the motor in order to stop the "wiper arm" unit (BB) for a non-zero duration and, on the other hand, the dispensing of the active liquid by the dispensing device , the device is characterized in that the control means is configured to control the dispensing of active liquid and the motor with a non-zero time shift between them and to activate the motor and the dispensing of active liquid simultaneously during a period of the method. - a direct current electric motor rotating in a single direction and capable of moving at least one "wiper arm" unit (BB) formed by a drive arm and a wiper blade by means of a linkage , said "wiper arm" unit being moved according to an angular to-and-fro movement between a rest position and an end position opposite the rest position in relation to an angular sector of the glazed surface (S), - a device for dispensing an active liquid onto the glazed surface (S), the active liquid preferably being a de-icing liquid or an inset-removing liquid, - a control means configured to control, on the one hand, the operation of the motor in order to stop the "wiper arm" unit (BB) for a non-zero duration and, on the other hand, the dispensing of the active liquid by the dispensing device ,
An electrosurgical device comprising: a. forceps including: i. a first working arm and ii. a second working arm ; b. a blade electrode ; c. an immobilization feature that is slidable along the electrosurgical device; wherein the electrosurgical device is capable of being switched between a first electrical configuration so that the electrosurgical device delivers a first therapy current through the first working arm , the second working arm , or both, and a second electrical configuration so that the electrosurgical device delivers a second therapy current through the blade electrode ; and wherein the first working arm and the second working arm of the forceps are immobilized in the second electrical configuration by the immobilization feature being moved from a first position to a second position so that both the forceps and the first therapy current are disabled, and wherein the blade electrode extends between and beyond the first working arm and the second working arm in the second electrical configuration. a. forceps including: i. a first working arm and ii. a second working arm ; i. a first working arm and ii. a second working arm ; b. a blade electrode ; c. an immobilization feature that is slidable along the electrosurgical device;
An apparatus for managing full-duplex communication between a base station (BS 0 ) and a set of user equipments (101a,b), the base station (BS 0 ) comprising a plurality of transmitter antennas, the plurality of transmitter antennas being associated with a downlink communication channel H between the base station (BS 0 ) and the set of user equipments (101a,b) and a plurality of interference channels G i between the base station (BS 0 ) and a plurality of neighboring base stations (BS i ), the apparatus comprising: a determiner configured to determine an aggregate interference channel G on the basis of the plurality of interference channels G i ; a modifier configured to modify the aggregate interference channel G to obtain a modified aggregate interference channel F under the constraint that a performance measure depending on the downlink communication channel H and the modified aggregate interference channel F meets a performance measure criterion, wherein the modified aggregate interference channel F spans a subspace of the space spanned by the aggregate interference channel G ; and a precoder configured to precode signals to be transmitted by the plurality of transmitter antennas on the basis of a precoder matrix W , wherein the precoder matrix W depends on the modified aggregate interference channel F . a determiner configured to determine an aggregate interference channel G on the basis of the plurality of interference channels G i ; a modifier configured to modify the aggregate interference channel G to obtain a modified aggregate interference channel F under the constraint that a performance measure depending on the downlink communication channel H and the modified aggregate interference channel F meets a performance measure criterion, wherein the modified aggregate interference channel F spans a subspace of the space spanned by the aggregate interference channel G ; and a precoder configured to precode signals to be transmitted by the plurality of transmitter antennas on the basis of a precoder matrix W , wherein the precoder matrix W depends on the modified aggregate interference channel F .
A pipe for a turbine engine, the pipe being a pump outlet volute or a gas turbine inlet volute, characterized in that the pipe comprises a wall including an internal edge (14; 14A, 14B) having in section a radius of curvature (R) greater than or equal to 0.5 mm, preferably greater than or equal to 1 mm, and less than or equal to 5 mm, preferably less than or equal to 4 mm.
A nanoparticle for delivering a medically useful agent comprising: a biodegradable and clinically compatible core comprising magnesium phosphate; and a medically useful agent, wherein the medically useful agent is an aiRNA, siRNA, or a mixture thereof; and a shell around the core, wherein the shell comprises a protein or peptide. a biodegradable and clinically compatible core comprising magnesium phosphate; and a medically useful agent, wherein the medically useful agent is an aiRNA, siRNA, or a mixture thereof; and a shell around the core, wherein the shell comprises a protein or peptide.
A method for detecting radioactive sources, comprising: measuring (S610), by a detector, a count rate curve of an inspection object while the inspection object moves through the detector; determining (S810) whether a maximum count rate value in the count rate curve of the inspection object is higher than an alarm threshold; performing pattern recognition (S620, S830) on the count rate curve only if the maximum count rate value in the count rate curve of the inspection object is higher than the alarm threshold; and on the basis of a result of the pattern recognition, determining (S630) whether there are radioactive sources in the inspection object and whether the radioactive sources are bulk radioactive sources or point radioactive sources, wherein the operation of performing the pattern recognition (S620, S830) comprises performing pattern matching with a plurality of predetermined patterns. measuring (S610), by a detector, a count rate curve of an inspection object while the inspection object moves through the detector; determining (S810) whether a maximum count rate value in the count rate curve of the inspection object is higher than an alarm threshold; performing pattern recognition (S620, S830) on the count rate curve only if the maximum count rate value in the count rate curve of the inspection object is higher than the alarm threshold; and on the basis of a result of the pattern recognition, determining (S630) whether there are radioactive sources in the inspection object and whether the radioactive sources are bulk radioactive sources or point radioactive sources, wherein the operation of performing the pattern recognition (S620, S830) comprises performing pattern matching with a plurality of predetermined patterns.
An apparatus comprising: a wireless-power-providing (WPP) circuit configured to provide wireless power to a WPP-compliant wireless device , the wireless-power-providing circuit including: a transmitter circuit configured to: generate, in a wireless-power-providing mode, a first radio frequency (RF) signal at a first frequency, the first RF signal inductively coupling the transmitter circuit to the compliant wireless device; and generate a second RF signal at a second frequency; a detection circuit configured to detect the presence of a WPP-noncompliant wireless device , the detection circuit including: a receiver circuit configured to detect a third RF signal at a third frequency that is a harmonic of the second frequency; and a control circuit configured to: control, for the wireless-power-providing mode, the generation each of the first RF signal and the second RF signal by the transmitter circuit; reduce, in response to detecting the third RF signal, a signal strength for the first RF signal; and cause the transmitter circuit to generate the second RF signal for a burst having a duration that is set based upon a setup time for generation of the third RF signal by the noncompliant wireless device and a hold time for the detection circuit to detect the third RF signal. a wireless-power-providing (WPP) circuit configured to provide wireless power to a WPP-compliant wireless device , the wireless-power-providing circuit including: a transmitter circuit configured to: generate, in a wireless-power-providing mode, a first radio frequency (RF) signal at a first frequency, the first RF signal inductively coupling the transmitter circuit to the compliant wireless device; and generate a second RF signal at a second frequency; generate, in a wireless-power-providing mode, a first radio frequency (RF) signal at a first frequency, the first RF signal inductively coupling the transmitter circuit to the compliant wireless device; and generate a second RF signal at a second frequency; a detection circuit configured to detect the presence of a WPP-noncompliant wireless device , the detection circuit including: a receiver circuit configured to detect a third RF signal at a third frequency that is a harmonic of the second frequency; and a control circuit configured to: control, for the wireless-power-providing mode, the generation each of the first RF signal and the second RF signal by the transmitter circuit; a receiver circuit configured to detect a third RF signal at a third frequency that is a harmonic of the second frequency; and a control circuit configured to: control, for the wireless-power-providing mode, the generation each of the first RF signal and the second RF signal by the transmitter circuit;