mhurhangee/patent-ind-claim-en huggingface dataset:
A device comprising: an extrusion head for use in a three-dimensional printer, the extrusion head including an axis aligned to a feedpath of the three-dimensional printer when placed for use in the three-dimensional printer; a housing about the extrusion head , the housing having a surface configured to support the extrusion head against displacement along the axis under a force applied by a build material along the feedpath when the housing is placed into a complementary surface of the three-dimensional printer; circuitry to identify the extrusion head , the circuitry coupled to a three-dimensional printer when placed for use in the three-dimensional printer; and one or more magnets disposed on a vertical surface of the housing and positioned to magnetically couple to a corresponding vertical wall of the three-dimensional printer to resist rotational displacement of the housing when placed in the three-dimensional printer. an extrusion head for use in a three-dimensional printer, the extrusion head including an axis aligned to a feedpath of the three-dimensional printer when placed for use in the three-dimensional printer; a housing about the extrusion head , the housing having a surface configured to support the extrusion head against displacement along the axis under a force applied by a build material along the feedpath when the housing is placed into a complementary surface of the three-dimensional printer; circuitry to identify the extrusion head , the circuitry coupled to a three-dimensional printer when placed for use in the three-dimensional printer; and one or more magnets disposed on a vertical surface of the housing and positioned to magnetically couple to a corresponding vertical wall of the three-dimensional printer to resist rotational displacement of the housing when placed in the three-dimensional printer.
A node in a distributed antenna system having a host node , the node comprising: a node processor configured to execute program instructions that cause the node processor to: calculate an additional forward path delay and an additional reverse path delay necessary to meet a selected path delay value based on a signal path delay value at least in part by reducing the selected path delay value by the signal path delay value; wherein the selected path delay value is received at the node , wherein the selected path delay value identifies a desired end-to-end path transport delay between the node and the host node ; and wherein the signal path delay value is received at the node , wherein the signal path delay value identifies a delay for signals communicated between the node and the host node , wherein the signal path delay value includes an aggregation of at least one path transport delay calculated by at least one further node adjacent to the node for at least one segment of the distributed antenna system between the node and the host node , wherein each path transport delay of the at least one path transport delay identifies travel time between two adjacent nodes in the distributed antenna system . calculate an additional forward path delay and an additional reverse path delay necessary to meet a selected path delay value based on a signal path delay value at least in part by reducing the selected path delay value by the signal path delay value; wherein the selected path delay value is received at the node , wherein the selected path delay value identifies a desired end-to-end path transport delay between the node and the host node ; and wherein the signal path delay value is received at the node , wherein the signal path delay value identifies a delay for signals communicated between the node and the host node , wherein the signal path delay value includes an aggregation of at least one path transport delay calculated by at least one further node adjacent to the node for at least one segment of the distributed antenna system between the node and the host node , wherein each path transport delay of the at least one path transport delay identifies travel time between two adjacent nodes in the distributed antenna system .
A header assembly for a leadless biostimulator , comprising: a flange including a flange channel extending along a longitudinal axis ; an insulator in the flange channel and including an insulator cavity ; an electrode extending longitudinally through the insulator cavity ; and a monolithic controlled release device (MCRD) in the insulator cavity , characterized in that the MCRD is within a space radially between the insulator in the flange channel and the electrode to elute therapeutic agent into the space when the leadless biostimulator is implanted. a flange including a flange channel extending along a longitudinal axis ; an insulator in the flange channel and including an insulator cavity ; an electrode extending longitudinally through the insulator cavity ; and a monolithic controlled release device (MCRD) in the insulator cavity , characterized in that the MCRD is within a space radially between the insulator in the flange channel and the electrode to elute therapeutic agent into the space when the leadless biostimulator is implanted.
A system comprising: a local compute resource ; an authorization engine configured to authorize a resource request to the local compute resource from a source; an interface engine configured to assign a data property to the local compute resource in response to a determination that the resource request is authorized to access the local compute resource ; and a manager engine configured to: determine an authorization level of the resource request; and assign access of the local compute resource to the resource request based on a comparison of the data property of the local compute resource and an access term associated with the authorization level . a local compute resource ; an authorization engine configured to authorize a resource request to the local compute resource from a source; an interface engine configured to assign a data property to the local compute resource in response to a determination that the resource request is authorized to access the local compute resource ; and a manager engine configured to: determine an authorization level of the resource request; and assign access of the local compute resource to the resource request based on a comparison of the data property of the local compute resource and an access term associated with the authorization level . determine an authorization level of the resource request; and assign access of the local compute resource to the resource request based on a comparison of the data property of the local compute resource and an access term associated with the authorization level .
A method for monitoring and controlling a pump, comprising: defining at least one processing target ; deriving a first actuator control signal Yc from the at least one processing target ; deriving at least one actual operating parameter ; comparing the at least one actual operating parameter to at least one predefined system and pump limit to determine a second actuator control signal Y'c ; comparing the at least one actual operating parameter to at least one predefined fluid limit to determine a third actuator control signal Y"c ; comparing the at least one actual operating parameter to at least one predefined normal processing limit to determine a fourth actuator control signal Y'''c ; comparing the at least one actual operating parameter to at least one predefined abnormal processing limit to determine a fifth actuator control signal Y""c ; determining which of the second actuator control signal Y'c, third actuator control signal Y"c, fourth actuator control signal Y'''c, and fifth actuator control Y""c signals is a most conservative actuator control signal ; and driving the pump in accordance with the most conservative actuator control signal . defining at least one processing target ; deriving a first actuator control signal Yc from the at least one processing target ; deriving at least one actual operating parameter ; comparing the at least one actual operating parameter to at least one predefined system and pump limit to determine a second actuator control signal Y'c ; comparing the at least one actual operating parameter to at least one predefined fluid limit to determine a third actuator control signal Y"c ; comparing the at least one actual operating parameter to at least one predefined normal processing limit to determine a fourth actuator control signal Y'''c ; comparing the at least one actual operating parameter to at least one predefined abnormal processing limit to determine a fifth actuator control signal Y""c ; determining which of the second actuator control signal Y'c, third actuator control signal Y"c, fourth actuator control signal Y'''c, and fifth actuator control Y""c signals is a most conservative actuator control signal ; and driving the pump in accordance with the most conservative actuator control signal .
A method comprising: receiving a first radio frequency signal, first RF signal, associated with a frequency band; allocating a portion of a plurality of processing units to perform at least one processing stage of a plurality of processing stages based on a configuration mode (350a-e) associated with the frequency band; mixing input data of the first RF signal at the plurality of processing units with a plurality of coefficients, the plurality of coefficients specific to the configuration mode associated with the frequency band, wherein the input data is associated with a data stream to be transmitted; and transmitting a second RF signal including an output data stream , the output data stream based on the input data being mixed using the plurality of coefficients, the output data stream representative of the input data being processed according to the at least one processing stage, characterized in that the plurality of coefficients correspond to a non-linear mapping of the input data (210a-c) to output data (220a-c), the non-linear mapping representative of a portion of the data stream to be transmitted being processed according to the configuration mode selection. receiving a first radio frequency signal, first RF signal, associated with a frequency band; allocating a portion of a plurality of processing units to perform at least one processing stage of a plurality of processing stages based on a configuration mode (350a-e) associated with the frequency band; mixing input data of the first RF signal at the plurality of processing units with a plurality of coefficients, the plurality of coefficients specific to the configuration mode associated with the frequency band, wherein the input data is associated with a data stream to be transmitted; and transmitting a second RF signal including an output data stream , the output data stream based on the input data being mixed using the plurality of coefficients, the output data stream representative of the input data being processed according to the at least one processing stage, characterized in that the plurality of coefficients correspond to a non-linear mapping of the input data (210a-c) to output data (220a-c), the non-linear mapping representative of a portion of the data stream to be transmitted being processed according to the configuration mode selection.
A signal processing device comprising: an acquisition means configured to acquire a first shake detection signal indicating a detection result of a first angular velocity sensor included in a first device and a second shake detection signal indicating a detection result of a second angular velocity sensor included in a second device different from the first device, wherein the first device and the second device are a lens device and a body unit of an imaging device; and a determination means configured to determine a correction amount which is used to correct the first shake detection signal based on the first shake detection signal and the second shake detection signal, wherein the correction amount is determined for reducing a difference between the first shake detection signal from the first angular velocity sensor and the second shake detection signal from the second angular velocity sensor, characterized in that the determination means is configured to change a process parameter for determining the correction amount in accordance with information regarding the second angular velocity sensor or information regarding the second shake detection signal, wherein the process parameter to be changed includes at least one of a cutoff frequency of a filter and a gain for the correction amount. an acquisition means configured to acquire a first shake detection signal indicating a detection result of a first angular velocity sensor included in a first device and a second shake detection signal indicating a detection result of a second angular velocity sensor included in a second device different from the first device, wherein the first device and the second device are a lens device and a body unit of an imaging device; and a determination means configured to determine a correction amount which is used to correct the first shake detection signal based on the first shake detection signal and the second shake detection signal, wherein the correction amount is determined for reducing a difference between the first shake detection signal from the first angular velocity sensor and the second shake detection signal from the second angular velocity sensor, characterized in that the determination means is configured to change a process parameter for determining the correction amount in accordance with information regarding the second angular velocity sensor or information regarding the second shake detection signal, wherein the process parameter to be changed includes at least one of a cutoff frequency of a filter and a gain for the correction amount.
A method comprising: identifying one or more current contextual attributes of a current context of a user; setting a current value of a stored interestedness threshold based at least in part on the one or more identified current contextual attributes, wherein setting the current value of the stored interestedness threshold comprises adjusting the current value of the stored interestedness threshold to offset an impact that an identified current contextual attribute of the one or more identified current contextual attributes is expected to have on measured physiological parameters of the user; obtaining one or more current physiological measurements of the user; deriving an interestedness score based at least in part on the one or more obtained current physiological measurements; comparing the derived interestedness score to the current value of the stored interestedness threshold; and initiating video recording of a scene by a wearable computing device when the derived interestedness score exceeds the current value of the stored interestedness threshold. identifying one or more current contextual attributes of a current context of a user; setting a current value of a stored interestedness threshold based at least in part on the one or more identified current contextual attributes, wherein setting the current value of the stored interestedness threshold comprises adjusting the current value of the stored interestedness threshold to offset an impact that an identified current contextual attribute of the one or more identified current contextual attributes is expected to have on measured physiological parameters of the user; obtaining one or more current physiological measurements of the user; deriving an interestedness score based at least in part on the one or more obtained current physiological measurements; comparing the derived interestedness score to the current value of the stored interestedness threshold; and initiating video recording of a scene by a wearable computing device when the derived interestedness score exceeds the current value of the stored interestedness threshold.
A fluid ejection device comprising: a body defining an interior bore ; a fluid reservoir forming an interior passage that receives a fluid, the interior passage in fluid communication with the interior bore of the body ; and a fluid ejection chip coupled with the body and comprising one or more fluid ejection actuators , the fluid ejection chip having one or more interior fluid paths in fluid communication with the interior bore of the body to cause ejection of the fluid upon activation of the one or more fluid ejection actuators , characterized in that the fluid reservoir comprises a wall and one or more fluid control surfaces disposed along an interior surface of the wall, wherein the one or more interior fluid paths are axially aligned and are adapted to gravity feed the fluid to the fluid ejection chip upon entry into the interior passage of the fluid reservoir , and wherein the one or more fluid control surfaces are disposed along the interior passage of the fluid reservoir , and the fluid adheres to the one or more fluid control surfaces at points of contact such that surface tension is generated across the fluid. a body defining an interior bore ; a fluid reservoir forming an interior passage that receives a fluid, the interior passage in fluid communication with the interior bore of the body ; and a fluid ejection chip coupled with the body and comprising one or more fluid ejection actuators , the fluid ejection chip having one or more interior fluid paths in fluid communication with the interior bore of the body to cause ejection of the fluid upon activation of the one or more fluid ejection actuators , characterized in that the fluid reservoir comprises a wall and one or more fluid control surfaces disposed along an interior surface of the wall, wherein the one or more interior fluid paths are axially aligned and are adapted to gravity feed the fluid to the fluid ejection chip upon entry into the interior passage of the fluid reservoir , and wherein the one or more fluid control surfaces are disposed along the interior passage of the fluid reservoir , and the fluid adheres to the one or more fluid control surfaces at points of contact such that surface tension is generated across the fluid.
A vibration and noise mapping system , which enables to generate the vibration and acoustic maps of the vibration and noise sources, and to quickly determine areas that are wanted to be worked on and/or areas with problems quickly in order to improve the vibration and acoustic performance, comprising - at least one mobile arm which can move in different axes and directions at preferred speeds, - at least one vibration measurement unit which moves together with the mobile arm , which is adapted to measure the vibrations created on a test object (O) in three axes, in other words as three-dimensional, - at least one geometric scanning unit , which moves together with the mobile arm , which is adapted to scan the surfaces of the object (O), and to create three-dimensional vibration shell model of the object (O), and characterized by - at least one acoustic measurement unit which moves together with the mobile arm , which is adapted to measure tri-directional particle speed and sound pressure on the test object (O), - at least one contactless acoustic excitation unit which moves together with the mobile arm , and enables the preferred points on the test object (O) to be excited without contact, - at least one control unit which is adapted to operate the vibration measurement unit and the acoustic measurement unit at the same time or separately, to generate the vibration and noise map of the test object (O) according to the data it receives from the units , and preferably determine the areas that are wanted to be improved on the test object (O) and/or the problematic areas. - at least one mobile arm which can move in different axes and directions at preferred speeds, - at least one vibration measurement unit which moves together with the mobile arm , which is adapted to measure the vibrations created on a test object (O) in three axes, in other words as three-dimensional, - at least one geometric scanning unit , which moves together with the mobile arm , which is adapted to scan the surfaces of the object (O), and to create three-dimensional vibration shell model of the object (O), and characterized by - at least one acoustic measurement unit which moves together with the mobile arm , which is adapted to measure tri-directional particle speed and sound pressure on the test object (O), - at least one contactless acoustic excitation unit which moves together with the mobile arm , and enables the preferred points on the test object (O) to be excited without contact, - at least one control unit which is adapted to operate the vibration measurement unit and the acoustic measurement unit at the same time or separately, to generate the vibration and noise map of the test object (O) according to the data it receives from the units , and preferably determine the areas that are wanted to be improved on the test object (O) and/or the problematic areas.
Method for evacuating hydrocarbons from pockets within a subsea process module , the subsea process module having an upper fluid connection point and a lower fluid connection point , the method comprising: connecting a receiving container line to the upper fluid connection point of the subsea process module ; connecting a liquid adding line to the lower fluid connection point of the subsea process module ; displacing hydrocarbon by a liquid displacement medium added through the liquid adding line ; removing the liquid adding line from the lower fluid connection point ; connecting a gas adding line to either the upper fluid connection point or a lower fluid connection point ; connecting a receiving container line to the lower fluid connection point and or another lower fluid connection point; diluting the remaining hydrocarbon by a gas medium added through the gas adding line by diluting a gas-phase portion of the hydrocarbon that has been trapped in a pocket in the subsea process module . connecting a receiving container line to the upper fluid connection point of the subsea process module ; connecting a liquid adding line to the lower fluid connection point of the subsea process module ; displacing hydrocarbon by a liquid displacement medium added through the liquid adding line ; removing the liquid adding line from the lower fluid connection point ; connecting a gas adding line to either the upper fluid connection point or a lower fluid connection point ; connecting a receiving container line to the lower fluid connection point and or another lower fluid connection point; diluting the remaining hydrocarbon by a gas medium added through the gas adding line by diluting a gas-phase portion of the hydrocarbon that has been trapped in a pocket in the subsea process module .
Weapon barrel with a weapon arranged in the weapon barrel and with a calibre ring , characterised in that the calibre ring is movable from a first position into a second position, wherein the calibre ring in the first position reduces the gap between the wall of the weapon barrel and the weapon arranged in the weapon barrel , wherein in the second position the calibre ring abuts the wall of the weapon barrel , characterised in that the calibre ring comprises at least a first part ring and a second part ring , wherein the calibre ring is foldable from a first position into a second position.