mhurhangee/patent-ind-claim-en huggingface dataset:
A method for managing alerts during at least one of patient evaluation, diagnosis, and treatment, the method comprising: receiving patient data using an interface ; obtaining, at a processor , a classification decision from a classifier executing a classification model , wherein the classification decision is based on the patient data; determining, using a processor executing instructions stored on a memory , whether the classification decision is a borderline classification decision; applying, using the processor , at least one alert filter to the patient data upon determining the classification decision is a borderline classification decision, wherein the at least one alert filter is applied to determine whether to issue a contextual data alert to a clinician to prompt the clinician to consider contextual data related to the patient, characterized in that applying the at least one alert filter includes analyzing the patient data to determine whether at least one alert filter condition contradicts the obtained borderline classification decision; and further characterized in that the method comprises the step of issuing a contextual data alert to the clinician upon the processor determining an alert filter condition contradicts the obtained borderline classification decision. receiving patient data using an interface ; obtaining, at a processor , a classification decision from a classifier executing a classification model , wherein the classification decision is based on the patient data; determining, using a processor executing instructions stored on a memory , whether the classification decision is a borderline classification decision; applying, using the processor , at least one alert filter to the patient data upon determining the classification decision is a borderline classification decision, wherein the at least one alert filter is applied to determine whether to issue a contextual data alert to a clinician to prompt the clinician to consider contextual data related to the patient, characterized in that applying the at least one alert filter includes analyzing the patient data to determine whether at least one alert filter condition contradicts the obtained borderline classification decision; and further characterized in that the method comprises the step of issuing a contextual data alert to the clinician upon the processor determining an alert filter condition contradicts the obtained borderline classification decision.
A heat exchanger for the heat exchange between a first fluid on the one hand, in particular an exhaust gas and/or a charge air, and a second fluid on the other hand, in particular a coolant, with a heat exchanger block , having: - a housing with at least three flow ports (I, II, III) for the second fluid to a housing interior through which the second fluid can flow, - a heat exchanger core which is arranged for the separated and heat-exchanging guidance of the first and the second fluid in the housing interior , with a number of flow channels through which the first fluid can flow, wherein - the at least three flow ports (I, II, III) are arranged such that, in operation - a flow of the second fluid in the housing interior has a main flow running largely parallel to a flow of the first fluid on the one hand and a minor flow running largely transversely to the flow of the first fluid in a section on the other hand, and characterised in that the main flow runs in a direction opposite to the flow of the first fluid and the first flow port (I) on the underside of the housing on the guidance outlet side of the first fluid , and wherein the second coolant port (II) is arranged as an inlet for the minor flow on the underside of the housing and wherein the third flow port (III) is arranged as an outlet for the main flow and for the minor flow on the upper side of the housing . - a housing with at least three flow ports (I, II, III) for the second fluid to a housing interior through which the second fluid can flow, - a heat exchanger core which is arranged for the separated and heat-exchanging guidance of the first and the second fluid in the housing interior , with a number of flow channels through which the first fluid can flow, wherein - the at least three flow ports (I, II, III) are arranged such that, in operation - a flow of the second fluid in the housing interior has a main flow running largely parallel to a flow of the first fluid on the one hand and a minor flow running largely transversely to the flow of the first fluid in a section on the other hand, and
Detection system in a screening device for screening material, e.g. aggregate, ore or similar, comprising at least one screening deck , said at least one screening deck having a screening surface, said system comprising a sensor arranged at or near at least one screening deck of said screening device , said sensor being configured such that it can detect objects leaving said at least one screening deck characterised in that said sensor comprises an ultrasound sensor, wherein said detection system further comprises a control unit which is connected to the sensor , said control unit being configured to differentiate between signals from the sensor resulting from the material to be screened and signals from the sensor resulting from a foreign object, such as a dislodged screening module or liner element, by applying one or more predefined threshold values, wherein a threshold value is based on the time an object is present in the range of the sensor .
A method of computer memory management in a memory system using data compression and/or deduplication with logical address space being mapped to physical data space, the method comprising: receiving a rate exceeded signal , the rate exceeded signal indicating that memory traffic flow from a traffic source exceeds a threshold; receiving a distress signal from a memory controller that interfaces with a memory device , the distress signal generated by a compression or deduplication engine having information about an utilization of available hardware memory space in the memory device and indicating that the memory device is oversubscribed; and throttling the memory traffic flow from the traffic source when the rate exceeded signal and the distress signal are both asserted. receiving a rate exceeded signal , the rate exceeded signal indicating that memory traffic flow from a traffic source exceeds a threshold; receiving a distress signal from a memory controller that interfaces with a memory device , the distress signal generated by a compression or deduplication engine having information about an utilization of available hardware memory space in the memory device and indicating that the memory device is oversubscribed; and throttling the memory traffic flow from the traffic source when the rate exceeded signal and the distress signal are both asserted.
An electronic device (ED), comprising: a substrate ; a first circuit (DC1) disposed on the substrate , wherein the first circuit (DC1) comprises a switching component (SU) and a capacitor (Cst), and the capacitor (Cst) is electrically connected to the switching component (SU); a plurality of bonding pads (BP) disposed on the substrate ; and a light emitting unit (LE) disposed on the substrate , and the light emitting unit (LE) being electrically connected to the first circuit (DC1) through at least one of the bonding pads (BP); wherein the electronic device (ED) further comprises an insulating cover layer (COL) formed between a conductive layer and the light emitting unit (LE), the at least one of the bonding pads (BP) comprises the conductive layer , the conductive layer has a bonding part (BR) and a connecting part (CTR), the bonding part (BR) is electrically connected to the first circuit (DC1) through the connecting part (CTR), and the insulating cover layer (COL) covers the connecting part (CTR) and exposes the bonding part (BR); and wherein at least a portion of the first circuit (DC1) is located between two of the bonding pads (BP) in a top view, and the capacitor (Cst) does not overlap the bonding part (BR) in the top view. a substrate ; a first circuit (DC1) disposed on the substrate , wherein the first circuit (DC1) comprises a switching component (SU) and a capacitor (Cst), and the capacitor (Cst) is electrically connected to the switching component (SU); a plurality of bonding pads (BP) disposed on the substrate ; and a light emitting unit (LE) disposed on the substrate , and the light emitting unit (LE) being electrically connected to the first circuit (DC1) through at least one of the bonding pads (BP); wherein the electronic device (ED) further comprises an insulating cover layer (COL) formed between a conductive layer and the light emitting unit (LE), the at least one of the bonding pads (BP) comprises the conductive layer , the conductive layer has a bonding part (BR) and a connecting part (CTR), the bonding part (BR) is electrically connected to the first circuit (DC1) through the connecting part (CTR), and the insulating cover layer (COL) covers the connecting part (CTR) and exposes the bonding part (BR); and wherein at least a portion of the first circuit (DC1) is located between two of the bonding pads (BP) in a top view, and the capacitor (Cst) does not overlap the bonding part (BR) in the top view.
A system for producing hydrocarbons from a subterranean well , the system including: an electrical submersible pump assembly with a motor , where the motor has: a motor housing , the motor housing being an elongated member; a stator located within the motor housing , the stator having a stator body with an interior cavity extending along a central axis of the stator (AX); a rotor assembly located within the interior cavity of the stator, the rotor assembly including a rotor shaft , a rotor member , and an intermediate rotor bearing assembly , where the rotor member and the intermediate rotor bearing assembly circumscribe the rotor shaft , and where the rotor shaft is an elongated member that extends along the central axis of the stator (AX); and a liner located along an interior surface of the interior cavity (66v, the liner being a thin walled member that is secured to the motor housing and seals the stator body from a wellbore fluid; where the liner has a polygonal cross section; and the liner is welded at an uphole end of the motor and is welded at a downhole end of the motor . an electrical submersible pump assembly with a motor , where the motor has: a motor housing , the motor housing being an elongated member; a stator located within the motor housing , the stator having a stator body with an interior cavity extending along a central axis of the stator (AX); a rotor assembly located within the interior cavity of the stator, the rotor assembly including a rotor shaft , a rotor member , and an intermediate rotor bearing assembly , where the rotor member and the intermediate rotor bearing assembly circumscribe the rotor shaft , and where the rotor shaft is an elongated member that extends along the central axis of the stator (AX); and a liner located along an interior surface of the interior cavity (66v, the liner being a thin walled member that is secured to the motor housing and seals the stator body from a wellbore fluid; where a motor housing , the motor housing being an elongated member; a stator located within the motor housing , the stator having a stator body with an interior cavity extending along a central axis of the stator (AX); a rotor assembly located within the interior cavity of the stator, the rotor assembly including a rotor shaft , a rotor member , and an intermediate rotor bearing assembly , where the rotor member and the intermediate rotor bearing assembly circumscribe the rotor shaft , and where the rotor shaft is an elongated member that extends along the central axis of the stator (AX); and a liner located along an interior surface of the interior cavity (66v, the liner being a thin walled member that is secured to the motor housing and seals the stator body from a wellbore fluid; where the liner has a polygonal cross section; and the liner is welded at an uphole end of the motor and is welded at a downhole end of the motor .
An implantable bioerodible drug delivery device comprising: a bioerodible drug core comprising a pharmaceutically active agent and polyvinyl alcohol in an amount of 1% to 20% weight of the drug core; a bioerodible outer member that substantially surrounds the drug core wherein the bioerodible outer member comprises poly(lactic-co-glycolic) acid (PLGA) wherein said PLGA bioerodible outer member is not permeable to the pharmaceutically active agent; at least one delivery port that is permeable to the pharmaceutically active agent wherein the device is configured to be injected into the vitreous of an eye; and wherein the device is configured to provide a substantially constant dosing rate of the pharmaceutically active agent over a predetermined period of treatment following implantation. a bioerodible drug core comprising a pharmaceutically active agent and polyvinyl alcohol in an amount of 1% to 20% weight of the drug core; a bioerodible outer member that substantially surrounds the drug core wherein the bioerodible outer member comprises poly(lactic-co-glycolic) acid (PLGA) wherein said PLGA bioerodible outer member is not permeable to the pharmaceutically active agent; at least one delivery port that is permeable to the pharmaceutically active agent wherein the device is configured to be injected into the vitreous of an eye; and wherein the device is configured to provide a substantially constant dosing rate of the pharmaceutically active agent over a predetermined period of treatment following implantation.
A reception apparatus configured to receive a transmitted signal, which is obtained by converting a transmission signal including N, where N is an integer equal to or larger than 2, symbols to a frequency domain signal having a first bandwidth, performing band limitation on the transmission signal converted to the frequency domain signal to obtain a frequency domain signal having a second bandwidth narrower than the first bandwidth, and converting the band-limited transmission signal to a time domain signal, the transmission signal converted to the time domain signal being transmitted at a set transmission interval, wherein the reception apparatus comprises: a reception unit (21; 21a) configured to perform sampling of a received signal, which is obtained by receiving the transmitted signal; a time-frequency conversion unit (23; 23a) configured to convert the sampled received signal to a frequency domain signal; an equalization processing unit (24; 24a) configured to perform frequency domain equalization processing based on the received signal converted to the frequency domain signal; a frequency-time conversion unit (25; 25a) configured to convert the received signal that has undergone the frequency-domain equalization processing to a time domain signal; characterized in that the apparatus further comprises: a demodulation unit (26; 26a) configured to perform interference removal processing and demodulation based on the received signal converted to the time domain signal, repeatedly for a preset number of times. a reception unit (21; 21a) configured to perform sampling of a received signal, which is obtained by receiving the transmitted signal; a time-frequency conversion unit (23; 23a) configured to convert the sampled received signal to a frequency domain signal; an equalization processing unit (24; 24a) configured to perform frequency domain equalization processing based on the received signal converted to the frequency domain signal; a frequency-time conversion unit (25; 25a) configured to convert the received signal that has undergone the frequency-domain equalization processing to a time domain signal; characterized in that the apparatus further comprises: a demodulation unit (26; 26a) configured to perform interference removal processing and demodulation based on the received signal converted to the time domain signal, repeatedly for a preset number of times.
Central ventilation underfloor device for air-conditioning of a room, comprising an induction means which comprises an air distribution box which can be connected to a supply air line at a supply air port , on which distribution box at least one induction nozzle of the induction means is arranged and connected, wherein the air distribution box comprises a plurality of inner wall surfaces and just one single sound damping member in the interior thereof, which sound damping member is integrated in the interior of the air distribution box such that it is matched to the inside contour of the air distribution box , wherein the sound damping member clads just part of an inner wall surface of the air distribution box and is located between the supply air port and the induction nozzle , wherein the air distribution box (19 to 22) has a front wall and a rear wall that is opposite the front wall , wherein the front wall comprises the at least one supply air port and the rear wall comprises the at least one induction nozzle .
A method performed by a network node for selecting a serving Access and Mobility Management Function, AMF, in a wireless communication system, the method comprising: receiving a registration request message of a user equipment, UE, the registration request message including a network slice selection assistance information, NSSAI, for a slice requested by the UE and priority information of the NSSAI, the priority information indicates that the NSSAI is 'required' for the UE; determining whether the NSSAI is valid for the UE; based on (i) the NSSAI being valid for the UE and (ii) the priority information, searching a first AMF which is able to support the NSSAI; based on the NSSAI being not valid for the UE, transmitting to the UE a registration reject message as a response to the registration request message, the registration reject message includes a registration reject cause indicating that the NSSAI is not valid for the UE, and receiving, from the UE, in response to the registration reject message, a retransmitted registration request message including a priority information of the NSSAI updated to 'preferred', based on the first AMF being searched, selecting the first AMF as the serving AMF serving the UE and transmitting the registration request message to the first AMF, and the first AMF which is able to support the NSSAI is an AMF that supports all slices corresponding to the NSSAI indicating that the priority information is the 'required'. receiving a registration request message of a user equipment, UE, the registration request message including a network slice selection assistance information, NSSAI, for a slice requested by the UE and priority information of the NSSAI, the priority information indicates that the NSSAI is 'required' for the UE; determining whether the NSSAI is valid for the UE; based on (i) the NSSAI being valid for the UE and (ii) the priority information, searching a first AMF which is able to support the NSSAI; based on the NSSAI being not valid for the UE, transmitting to the UE a registration reject message as a response to the registration request message, the registration reject message includes a registration reject cause indicating that the NSSAI is not valid for the UE, and receiving, from the UE, in response to the registration reject message, a retransmitted registration request message including a priority information of the NSSAI updated to 'preferred', based on the first AMF being searched, selecting the first AMF as the serving AMF serving the UE and transmitting the registration request message to the first AMF, and the first AMF which is able to support the NSSAI is an AMF that supports all slices corresponding to the NSSAI indicating that the priority information is the 'required'.
An implantable system , comprising: a lead ; and an implantable medical device (IMD) , comprising: an output configured to be connected at least to the lead ; a current generator (CG) circuit configured to generate pacing pulses; a switching circuit coupled between the CG circuit and the output ; one or more capacitors ; and a control circuit coupled to the CG circuit , the control circuit configured to manage the CG circuit during a low voltage mode to generate the pacing pulses with a constant current at the output , characterized in that the lead is a non-transvenous lead configured to be implanted outside of a heart; the one or more capacitors are coupled in parallel with the CG circuit and the switching circuit ; and the control circuit is configured to control the CG circuit and the switching circuit during a high voltage mode to charge the one or more capacitors and use electrical energy stored in the one or more capacitors to deliver one or more shock pulses to the output . a lead ; and an implantable medical device (IMD) , comprising: an output configured to be connected at least to the lead ; a current generator (CG) circuit configured to generate pacing pulses; a switching circuit coupled between the CG circuit and the output ; an output configured to be connected at least to the lead ; a current generator (CG) circuit configured to generate pacing pulses; a switching circuit coupled between the CG circuit and the output ; one or more capacitors ; and a control circuit coupled to the CG circuit , the control circuit configured to manage the CG circuit during a low voltage mode to generate the pacing pulses with a constant current at the output , characterized in that the lead is a non-transvenous lead configured to be implanted outside of a heart; the one or more capacitors are coupled in parallel with the CG circuit and the switching circuit ; and the control circuit is configured to control the CG circuit and the switching circuit during a high voltage mode to charge the one or more capacitors and use electrical energy stored in the one or more capacitors to deliver one or more shock pulses to the output .