mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for treating a heart of a subject, the apparatus comprising: a flexible sleeve having a first-end portion and a second-end portion , and comprising a circumferential wall that circumscribes and defines a longitudinal lumen between the first-end portion and the second-end portion ; an elongate contraction member , defining: a first region that extends along the sleeve from the first-end portion to the second-end portion , and a second region that extends, outside of the sleeve , back from the second-end portion to the first-end portion ; a housing : coupled to the first-end portion of the sleeve and to the contraction member , and defining an eyelet , the contraction member extending through the eyelet such that pulling of the contraction member through the eyelet draws the second-end portion toward the first-end portion by reducing a length of the second region ; and a locking component , coupled to the housing , and having an unlocked state in which the contraction member is pullable through the eyelet , and a locked state in which the locking component inhibits pulling of the contraction member through the eyelet . a flexible sleeve having a first-end portion and a second-end portion , and comprising a circumferential wall that circumscribes and defines a longitudinal lumen between the first-end portion and the second-end portion ; an elongate contraction member , defining: a first region that extends along the sleeve from the first-end portion to the second-end portion , and a second region that extends, outside of the sleeve , back from the second-end portion to the first-end portion ; a first region that extends along the sleeve from the first-end portion to the second-end portion , and a second region that extends, outside of the sleeve , back from the second-end portion to the first-end portion ; a housing : coupled to the first-end portion of the sleeve and to the contraction member , and defining an eyelet , the contraction member extending through the eyelet such that pulling of the contraction member through the eyelet draws the second-end portion toward the first-end portion by reducing a length of the second region ; and coupled to the first-end portion of the sleeve and to the contraction member , and defining an eyelet , the contraction member extending through the eyelet such that pulling of the contraction member through the eyelet draws the second-end portion toward the first-end portion by reducing a length of the second region ; and a locking component , coupled to the housing , and having an unlocked state in which the contraction member is pullable through the eyelet , and a locked state in which the locking component inhibits pulling of the contraction member through the eyelet .
A turbine blade comprising: an airfoil having an airfoil cross-section and extending radially; a platform disposed radially inward from the airfoil ; a root member disposed radially inward from the platform and having a decreased width as it is directed radially inward; a plurality of dovetails formed on both circumferential sides of the root member and each having a contact surface (CS) formed on a radially outer surface thereof, the plurality of dovetails being arranged radially in sequence; and a groove part formed on at least one axial side of the root member , the groove part being recessed inwardly of the root member and extending circumferentially therein, wherein the groove part is formed at a height corresponding to a radially outermost dovetail in the root member , characterized in that the groove part further comprises a planar portion (PS) having a flat surface formed in at least a portion thereof, wherein the planar portion (PS) is a deepest recessed portion of the groove part into the root member . an airfoil having an airfoil cross-section and extending radially; a platform disposed radially inward from the airfoil ; a root member disposed radially inward from the platform and having a decreased width as it is directed radially inward; a plurality of dovetails formed on both circumferential sides of the root member and each having a contact surface (CS) formed on a radially outer surface thereof, the plurality of dovetails being arranged radially in sequence; and a groove part formed on at least one axial side of the root member , the groove part being recessed inwardly of the root member and extending circumferentially therein, wherein the groove part is formed at a height corresponding to a radially outermost dovetail in the root member , characterized in that the groove part further comprises a planar portion (PS) having a flat surface formed in at least a portion thereof, wherein the planar portion (PS) is a deepest recessed portion of the groove part into the root member .
A wind farm aircraft beacon system, comprising: - at least one aircraft beacon device , - at least one camera for recording images, characterized by - an evaluation device for detecting flying object positions by evaluating the camera data, in particular images recorded, and - at least one switching device for switching on or off at least one of the aircraft beacon devices in dependence on the flying object positions detected by the evaluation device. - at least one aircraft beacon device , - at least one camera for recording images, characterized by - an evaluation device for detecting flying object positions by evaluating the camera data, in particular images recorded, and - at least one switching device for switching on or off at least one of the aircraft beacon devices in dependence on the flying object positions detected by the evaluation device.
A draw device , including • two drafting systems each with - an intake section , configured for transporting sliver material from outside with regard to the associated drafting system in the direction of a drafting section of the associated drafting system , - the drafting section itself, configured for drafting and harmonizing the transported sliver material according to predetermined specifications, - an output section configured for delivering the drafted and harmonized sliver material out of the associated drafting system to the outside, as well as - a drive device, configured for driving the section of the associated drafting system , as well as • an operator unit , adapted for allowing a user to configure and/or to control the operation of the two drafting systems independently of each other. • two drafting systems each with - an intake section , configured for transporting sliver material from outside with regard to the associated drafting system in the direction of a drafting section of the associated drafting system , - the drafting section itself, configured for drafting and harmonizing the transported sliver material according to predetermined specifications, - an output section configured for delivering the drafted and harmonized sliver material out of the associated drafting system to the outside, as well as - a drive device, configured for driving the section of the associated drafting system , as well as - an intake section , configured for transporting sliver material from outside with regard to the associated drafting system in the direction of a drafting section of the associated drafting system , - the drafting section itself, configured for drafting and harmonizing the transported sliver material according to predetermined specifications, - an output section configured for delivering the drafted and harmonized sliver material out of the associated drafting system to the outside, as well as - a drive device, configured for driving the section of the associated drafting system , as well as • an operator unit , adapted for allowing a user to configure and/or to control the operation of the two drafting systems independently of each other.
A consumption meter arranged to measure a flow rate (FR) of a fluid, the consumption meter comprising: - a flow tube with a through-going opening for passage of the fluid between an inlet and an outlet, - first and second ultrasonic transducers (T1, T2) arranged at a wall (W) of the flow tube for transmitting and receiving ultrasonic signals transmitted through the fluid, - a control circuit comprising a flow measurement sub-circuit (CC1) arranged for operating the first and second ultrasonic transducers (T1, T2), and being arranged to generate a signal indicative of the flow rate (FR) of the fluid from the transmitted and received ultrasonic signals transmitted through the fluid, and - a communication module arranged for communicating said signal indicative of the flow rate (FR) of the fluid, characterised in that the control circuit further comprises a noise measurement sub-circuit (CC2), arranged for generating a signal indicative of a noise level (NL) of the flow tube or of the fluid therein by means of operating both of the first and second ultrasonic transducers (T1, T2) to detect the acoustic signals of the flow tube or of the fluid therein, wherein the noise measurement sub-circuit (CC2) is arranged to process an output from the transducers (T1, T2) for detection of acoustic signals over a period of time, and to accordingly calculate at least one single value indicative of an average noise level (NL), and in that the communication module is arranged for communicating data representing at least one value indicative of the noise level (NL) of the flow tube. - a flow tube with a through-going opening for passage of the fluid between an inlet and an outlet, - first and second ultrasonic transducers (T1, T2) arranged at a wall (W) of the flow tube for transmitting and receiving ultrasonic signals transmitted through the fluid, - a control circuit comprising a flow measurement sub-circuit (CC1) arranged for operating the first and second ultrasonic transducers (T1, T2), and being arranged to generate a signal indicative of the flow rate (FR) of the fluid from the transmitted and received ultrasonic signals transmitted through the fluid, and - a communication module arranged for communicating said signal indicative of the flow rate (FR) of the fluid, the control circuit further comprises a noise measurement sub-circuit (CC2), arranged for generating a signal indicative of a noise level (NL) of the flow tube or of the fluid therein by means of operating both of the first and second ultrasonic transducers (T1, T2) to detect the acoustic signals of the flow tube or of the fluid therein, wherein the noise measurement sub-circuit (CC2) is arranged to process an output from the transducers (T1, T2) for detection of acoustic signals over a period of time, and to accordingly calculate at least one single value indicative of an average noise level (NL), and in that the communication module is arranged for communicating data representing at least one value indicative of the noise level (NL) of the flow tube.
(+)-5-(3,4-Difluorophenyl)-5-[(3-methyl-2-oxopyridin-1 -yl)methyl]imidazolidine-2,4-dione or a salt thereof.
A method of controlling movement of a robotic cleaning device over an area to be cleaned, being characterized in comprising: the steps: storing (S101) at least one representation of the area over which the robotic cleaning device is to move; receiving (S102) an instruction to execute a cleaning program; localizing (S103), in response to the instruction, the robotic cleaning device relative to the stored representation ; and moving (S104) over the area to be cleaned as stipulated by the cleaning program by taking into account the stored representation . storing (S101) at least one representation of the area over which the robotic cleaning device is to move; receiving (S102) an instruction to execute a cleaning program; localizing (S103), in response to the instruction, the robotic cleaning device relative to the stored representation ; and moving (S104) over the area to be cleaned as stipulated by the cleaning program by taking into account the stored representation .
A data dimension reduction method, performed by a radio remote system, RRS, wherein the RRS is connected to a radio cloud center, RCC, by using a common public radio interface, eCPRI, and the method comprises: receiving an antenna domain received signal, wherein the antenna domain received signal comprises an uplink signal that is sent by a user equipment UE and that is received by an array antenna corresponding to the RRS, the antenna domain received signal is a time domain signal, a dimension of the antenna domain received signal is N 1 , and N 1 is an integer greater than 1; obtaining a received beam weight, wherein the received beam weight is determined based on channel information of the UE, and different received beam weights are determined based on different channel information; and performing dimension reduction on the antenna domain received signal by using the received beam weight, to obtain a beam domain received signal, wherein the beam domain received signal is a frequency domain signal, a dimension of the beam domain received signal is N 2 , and 0 < N 2 < N 1 ; wherein after the beam domain received signal is obtained, the method further comprises: adjusting a data bit width of the eCPRI based on a preset measurement value; and transmitting the beam domain received signal to the RCC by using the eCPRI. receiving an antenna domain received signal, wherein the antenna domain received signal comprises an uplink signal that is sent by a user equipment UE and that is received by an array antenna corresponding to the RRS, the antenna domain received signal is a time domain signal, a dimension of the antenna domain received signal is N 1 , and N 1 is an integer greater than 1; obtaining a received beam weight, wherein the received beam weight is determined based on channel information of the UE, and different received beam weights are determined based on different channel information; and performing dimension reduction on the antenna domain received signal by using the received beam weight, to obtain a beam domain received signal, wherein the beam domain received signal is a frequency domain signal, a dimension of the beam domain received signal is N 2 , and 0 < N 2 < N 1 ; wherein after the beam domain received signal is obtained, the method further comprises: adjusting a data bit width of the eCPRI based on a preset measurement value; and transmitting the beam domain received signal to the RCC by using the eCPRI. adjusting a data bit width of the eCPRI based on a preset measurement value; and transmitting the beam domain received signal to the RCC by using the eCPRI.
A glass article having a thickness t, a center at t/2, and a compressive layer extending from a surface of the glass article to a depth of layer DOL of greater 0.1·t, where t is the thickness of the glass, the glass article having a maximum compressive stress CS of greater than 500 MPa at the surface, and a stress profile having a spike region extending from the surface to 30 μm below the surface, the stress profile in the spike region having a slope, the slope having an absolute value of greater than 20 MPa/μm; wherein the glass article has a tensile region under a physical center tension CT extending from the depth of layer or depth of compression to the center, wherein the physical center tension CT is greater than | -1.956×10 -16 × t 6 + 1.24274×10 -12 × t 5 - 3.09196×10 -9 × t 4 + 3.80391×10 -6 × t 3 -2.35207 × 10 -3 × t 2 + 5.96241×10 -1 × t + 36.5994 |; and wherein the glass article has: a. a total elastic energy normalized per thickness of the glass E total , wherein (E total /t(mm)) < 174.75 J/m 2 ·mm; and b. an elastic energy stored in the interior of the sample in tension normalized per thickness of the glass E interior , wherein (E irterior /t(mm)) < 30 J/m 2 ·mm. a. a total elastic energy normalized per thickness of the glass E total , wherein (E total /t(mm)) < 174.75 J/m 2 ·mm; and b. an elastic energy stored in the interior of the sample in tension normalized per thickness of the glass E interior , wherein (E irterior /t(mm)) < 30 J/m 2 ·mm.
. A 3-dimensional printed part , comprising: a part body comprising a first matrix of fusing agent and thermoplastic polymer powder; a security feature comprising a second matrix of fusing agent, thermoplastic polymer powder, and photoluminescent agent; and a masking feature comprising a third matrix of fusing agent and thermoplastic polymer powder, wherein the security feature is positioned beneath and visible through the masking feature upon photoluminescent emission of the security feature ; characterized in that the third matrix has a lower concentration of fusing agent than the first matrix; and wherein the security feature is encapsulated between the part body and the masking feature , and wherein the masking feature forms a portion of an exterior surface of the 3-dimensional printed part through which a photoluminescent emission of the security feature is visible. a part body comprising a first matrix of fusing agent and thermoplastic polymer powder; a security feature comprising a second matrix of fusing agent, thermoplastic polymer powder, and photoluminescent agent; and a masking feature comprising a third matrix of fusing agent and thermoplastic polymer powder, wherein the security feature is positioned beneath and visible through the masking feature upon photoluminescent emission of the security feature ; characterized in that the third matrix has a lower concentration of fusing agent than the first matrix; and wherein the security feature is encapsulated between the part body and the masking feature , and wherein the masking feature forms a portion of an exterior surface of the 3-dimensional printed part through which a photoluminescent emission of the security feature is visible.
A method of managing workload in a hybrid multi-node compute environment comprising a cluster of computing devices wherein at least one first node of the hybrid multi-node compute environment has a first operating system, comprising a Linux operating system, associated with a first resource manager and at least one second node of the hybrid multi-node compute environment has a second operating system, comprising a Microsoft Windows operating system, associated with a second resource manager, the method comprising: establishing a policy that defines a certain number of nodes in the hybrid multi-node compute environment that run respectively the first operating system and the second operating system to yield an established policy; periodically performing an analysis of the hybrid multi-node compute environment to determine how well the hybrid multi-node compute environment aligns with the established policy; and based on the analysis, provisioning nodes in the hybrid multi-node compute environment to change a first node of the at least one first node from the first operating system to the second operating system according to the established policy to yield a provisioned node. establishing a policy that defines a certain number of nodes in the hybrid multi-node compute environment that run respectively the first operating system and the second operating system to yield an established policy; periodically performing an analysis of the hybrid multi-node compute environment to determine how well the hybrid multi-node compute environment aligns with the established policy; and based on the analysis, provisioning nodes in the hybrid multi-node compute environment to change a first node of the at least one first node from the first operating system to the second operating system according to the established policy to yield a provisioned node.
A method of monitoring a refrigeration system, the method comprising: receiving, by a refrigeration monitoring system , a plurality of real-time temperature data from at least one temperature sensor coupled with the refrigeration system; determining, by the refrigeration monitoring system , at least a first steady state value and a second steady state value based on the plurality of real-time temperature data; computing, by the refrigeration monitoring system , a plurality of defrost cycle parameter values including at least defrost start time value, defrost end time value, peak temperature value, heater OFF time value, and heater ON duration value based on at least the first steady state value and the second steady state values; and generating, by the refrigeration monitoring system , one or more alarm signals based on determination of deviations of at least one of the defrost cycle parameter values from respective predetermined threshold values; characterised in that : determining the first steady state value comprises: comparing each of the plurality of the real-time temperature data with a predetermined percentile temperature value; and determining one of the plurality of the real-time temperature data that exceeds the predetermined percentile temperature value as the first steady state value. receiving, by a refrigeration monitoring system , a plurality of real-time temperature data from at least one temperature sensor coupled with the refrigeration system; determining, by the refrigeration monitoring system , at least a first steady state value and a second steady state value based on the plurality of real-time temperature data; computing, by the refrigeration monitoring system , a plurality of defrost cycle parameter values including at least defrost start time value, defrost end time value, peak temperature value, heater OFF time value, and heater ON duration value based on at least the first steady state value and the second steady state values; and generating, by the refrigeration monitoring system , one or more alarm signals based on determination of deviations of at least one of the defrost cycle parameter values from respective predetermined threshold values; characterised in that : determining the first steady state value comprises: comparing each of the plurality of the real-time temperature data with a predetermined percentile temperature value; and determining one of the plurality of the real-time temperature data that exceeds the predetermined percentile temperature value as the first steady state value. comparing each of the plurality of the real-time temperature data with a predetermined percentile temperature value; and determining one of the plurality of the real-time temperature data that exceeds the predetermined percentile temperature value as the first steady state value.