mhurhangee/ep-ind-claims huggingface dataset:
Race start assistance method for a boat participating in a regatta including a pre-race having a duration before the crossing of the start line, the method including a first step intended to permit the creation and storage of the start line in virtual form, and the determination of the instantaneous speed of the boat and the position thereof with respect to the start line, in order to provide at least one indication on how to proceed in the pre-race, the method being characterized in that: - in a second step, prior to the race, at least one race start is simulated by performing a pre-race test, to measure and store, at least once, a parameter that is the maximum speed (Vm) or test speed of the boat, to deduce therefrom a maximum distance that could be travelled during the pre-race duration if the boat moved at said test speed and thereby to determine the position of a line called the maximum distance line; and - in a third step, after positioning the boat between the maximum distance line and the start line, a countdown period having a duration is started during which, on the one hand, the distance line moves towards the start line at the test speed (Vm) while the boat also moves towards the race line at a lower speed than the maximum test speed and during which, on the other hand, the actual motion parameters of the boat are compared to the movement of the distance line to provide indications on the closeness of the distance line to the boat to enable the boat to adjust the speed and/or route thereof so that when the distance line catches up with the boat, said boat is moving at the same speed as said distance line. - in a second step, prior to the race, at least one race start is simulated by performing a pre-race test, to measure and store, at least once, a parameter that is the maximum speed (Vm) or test speed of the boat, to deduce therefrom a maximum distance that could be travelled during the pre-race duration if the boat moved at said test speed and thereby to determine the position of a line called the maximum distance line; and - in a third step, after positioning the boat between the maximum distance line and the start line, a countdown period having a duration is started during which, on the one hand, the distance line moves towards the start line at the test speed (Vm) while the boat also moves towards the race line at a lower speed than the maximum test speed and during which, on the other hand, the actual motion parameters of the boat are compared to the movement of the distance line to provide indications on the closeness of the distance line to the boat to enable the boat to adjust the speed and/or route thereof so that when the distance line catches up with the boat, said boat is moving at the same speed as said distance line.
A system for detecting electric cardiac events in chambers of a heart comprising: a lead with an electrode (B; LV-tip) adapted for implantation in a coronary vein on the left side of said heart for sensing an electric signals in a left ventricle of said heart, and a lead with at least one electrode (A; RV-ring, RV-tip) adapted for implantation in a right ventricle of said heart for sensing an electric signal therein, a difference forming means (4; 8, 10) provided to supply a difference signal to an event detector, and said event detector arranged to distinguish, after bi-ventricular stimulation and from said difference signal, between capture and non-capture in said left ventricle and from capture and non-capture in said right ventricle, characterized in that said difference forming means (4; 8, 10) is arranged to form said difference signal sensed between said electrode (B; LV-tip) adapted for implantation in said coronary vein and said electrode (A; RV-ring, RV-tip) adapted for implantation in said right ventricle. a lead with an electrode (B; LV-tip) adapted for implantation in a coronary vein on the left side of said heart for sensing an electric signals in a left ventricle of said heart, and a lead with at least one electrode (A; RV-ring, RV-tip) adapted for implantation in a right ventricle of said heart for sensing an electric signal therein, a difference forming means (4; 8, 10) provided to supply a difference signal to an event detector, and said event detector arranged to distinguish, after bi-ventricular stimulation and from said difference signal, between capture and non-capture in said left ventricle and from capture and non-capture in said right ventricle, characterized in that said difference forming means (4; 8, 10) is arranged to form said difference signal sensed between said electrode (B; LV-tip) adapted for implantation in said coronary vein and said electrode (A; RV-ring, RV-tip) adapted for implantation in said right ventricle.
A computer-implemented method of determining a pose of a camera, the method comprising: analyzing changes in an image detected by the camera using a plurality of sensors of the camera, the plurality of sensors comprising a first camera arranged to detect color data, an inertial measurement unit, IMU, and a depth camera; determining if a pose of the camera is incorrect and, if the pose of the camera is determined to be incorrect, determining which sensors of the plurality of sensors are providing reliable image data; and analyzing image data from the sensors providing reliable image data and correcting a pose of the camera by re-localization based on the analyzed image data from the sensors determined to be providing reliable image data, wherein re-localization comprises using color data to localize a pose of the camera to a nearest key frame, and using depth data to perform finer adjustments of the pose to achieve precise re-localization. analyzing changes in an image detected by the camera using a plurality of sensors of the camera, the plurality of sensors comprising a first camera arranged to detect color data, an inertial measurement unit, IMU, and a depth camera; determining if a pose of the camera is incorrect and, if the pose of the camera is determined to be incorrect, determining which sensors of the plurality of sensors are providing reliable image data; and analyzing image data from the sensors providing reliable image data and correcting a pose of the camera by re-localization based on the analyzed image data from the sensors determined to be providing reliable image data, wherein re-localization comprises using color data to localize a pose of the camera to a nearest key frame, and using depth data to perform finer adjustments of the pose to achieve precise re-localization.
A mud motor stator comprising: a tubular outer portion; a number of lobes extending radially inwardly from the tubular outer portion, at least one of which comprises a skeletal structure; characterised in that the skeletal structure is asymmetric and has a load side and a seal side, the skeletal structure configured so as to provide a greater rigidity on the load side versus the seal side. a tubular outer portion; a number of lobes extending radially inwardly from the tubular outer portion, at least one of which comprises a skeletal structure; characterised in that the skeletal structure is asymmetric and has a load side and a seal side, the skeletal structure configured so as to provide a greater rigidity on the load side versus the seal side.
An information tracking system, comprising: a plurality of sources (S1, S2, S3, S4) that subscribe to a workflow management system; a sensor network, that is unaffiliated with the workflow management system; a registry database, including: pre-existing fields configured to store data received from one or more of the plurality of sources (S1, S2, S3, S4) or from the sensor network,; and de novo fields configured to be generated as a result of a sensor data collection event and configured to store sensor data received from one or more of the plurality of sources (S1, S2, S3, S4) or from the sensor network,; and an engine configured to actively collect sensor data from the plurality of sources (S1, S2, S3, S4) and from the sensor network,. a plurality of sources (S1, S2, S3, S4) that subscribe to a workflow management system; a sensor network, that is unaffiliated with the workflow management system; a registry database, including: pre-existing fields configured to store data received from one or more of the plurality of sources (S1, S2, S3, S4) or from the sensor network,; and de novo fields configured to be generated as a result of a sensor data collection event and configured to store sensor data received from one or more of the plurality of sources (S1, S2, S3, S4) or from the sensor network,; and pre-existing fields configured to store data received from one or more of the plurality of sources (S1, S2, S3, S4) or from the sensor network,; and de novo fields configured to be generated as a result of a sensor data collection event and configured to store sensor data received from one or more of the plurality of sources (S1, S2, S3, S4) or from the sensor network,; and an engine configured to actively collect sensor data from the plurality of sources (S1, S2, S3, S4) and from the sensor network,.
A system comprising: an unmanned mobile observation device (20; 20A), the unmanned mobile observation device including: an imaging component configured to acquire image data of an improvement being monitored (2; 2A); a navigation component configured to determine a real-world geographic location of the unmanned mobile observation device (20; 20A) and navigate the unmanned mobile observation device (20; 20A) to an image acquisition geographic location suitable for acquiring the image data of the improvement being monitored (2; 2A); and a geolocation component configured to determine the real-world geographic location of the unmanned mobile observation device (20; 20A) to an accuracy of five centimeters or less when the imaging component acquires the image data wherein the geolocation component is configured to automatically refine the accuracy of the determined real-world geographic location using correction signal data acquired from a real-world geographic location signal source, and wherein geolocation data corresponding to the real-world geographic location is stored with the image data acquired by the imaging component as observation data for the improvement being monitored, characterized in that the unmanned mobile observation device (20; 20A) comprises a monitoring component configured to compare the image data to previously acquired image data using the geolocation data for the image data and the previously acquired image data and generate defect data for each defect (64A; 64B) found as a result of the image data comparison. an imaging component configured to acquire image data of an improvement being monitored (2; 2A); a navigation component configured to determine a real-world geographic location of the unmanned mobile observation device (20; 20A) and navigate the unmanned mobile observation device (20; 20A) to an image acquisition geographic location suitable for acquiring the image data of the improvement being monitored (2; 2A); and a geolocation component configured to determine the real-world geographic location of the unmanned mobile observation device (20; 20A) to an accuracy of five centimeters or less when the imaging component acquires the image data wherein the geolocation component is configured to automatically refine the accuracy of the determined real-world geographic location using correction signal data acquired from a real-world geographic location signal source, and wherein geolocation data corresponding to the real-world geographic location is stored with the image data acquired by the imaging component as observation data for the improvement being monitored, characterized in that the unmanned mobile observation device (20; 20A) comprises a monitoring component configured to compare the image data to previously acquired image data using the geolocation data for the image data and the previously acquired image data and generate defect data for each defect (64A; 64B) found as a result of the image data comparison.
A method of managing a plurality of memory devices having finite data endurance and/or retention, each of the memory devices having a plurality of memory blocks, the method comprising: writing monitor data of known content to the memory devices; reading the monitor data from each memory device to generate error rate information; analysing the error rate information generated for the plurality of memory devices; and taking an action relating to at least one of the devices based on the analysing, the method being characterised in that: writing monitor data comprises writing the monitor data to multiple groups of dedicated blocks on each of the memory devices, the monitor data of each group of the multiple groups on a memory device having a different known write cycle count, the monitor data being write-protected to prevent it from being overwritten with user data; and reading the monitor data comprises reading the monitor data from each group of each memory device to generate error rate information that relates to the age of the monitor data and relates to the different write cycle counts of each group of the multiple groups of the dedicated blocks on each memory device. writing monitor data of known content to the memory devices; reading the monitor data from each memory device to generate error rate information; analysing the error rate information generated for the plurality of memory devices; and taking an action relating to at least one of the devices based on the analysing, the method being characterised in that: writing monitor data comprises writing the monitor data to multiple groups of dedicated blocks on each of the memory devices, the monitor data of each group of the multiple groups on a memory device having a different known write cycle count, the monitor data being write-protected to prevent it from being overwritten with user data; and reading the monitor data comprises reading the monitor data from each group of each memory device to generate error rate information that relates to the age of the monitor data and relates to the different write cycle counts of each group of the multiple groups of the dedicated blocks on each memory device. writing monitor data comprises writing the monitor data to multiple groups of dedicated blocks on each of the memory devices, the monitor data of each group of the multiple groups on a memory device having a different known write cycle count, the monitor data being write-protected to prevent it from being overwritten with user data; and reading the monitor data comprises reading the monitor data from each group of each memory device to generate error rate information that relates to the age of the monitor data and relates to the different write cycle counts of each group of the multiple groups of the dedicated blocks on each memory device.
A measuring cell with - a base body, - a measuring diaphragm which is arranged on the base body, - a measuring device with a first measuring element and a second measuring element, wherein the first measuring element is arranged on the measuring diaphragm, wherein an intermediate diaphragm is provided which is arranged between the measuring diaphragm and the base body and on which the second measuring element is arranged, the measuring elements (10, 11) are measuring electrodes, the measuring electrodes (10, 11) are designed in the form of flat metallized portions of equal size and form a measurement capacity C M, and the measuring electrodes (10, 11) are arranged centrally and have a radius (r) which is between 4 mm and 7 mm, characterized in that reference electrodes (14, 15) are provided which are made annular and which surround the measuring electrodes (10, 11) in an annular manner, wherein the reference electrodes (14, 15) are situated in the region of a soldering ring 16 with which the measuring diaphragm and the intermediate diaphragm are fastened to the base body in a continuous manner at their edges. - a base body, - a measuring diaphragm which is arranged on the base body, - a measuring device with a first measuring element and a second measuring element, wherein the first measuring element is arranged on the measuring diaphragm, wherein an intermediate diaphragm is provided which is arranged between the measuring diaphragm and the base body and on which the second measuring element is arranged, the measuring elements (10, 11) are measuring electrodes, the measuring electrodes (10, 11) are designed in the form of flat metallized portions of equal size and form a measurement capacity C M, and the measuring electrodes (10, 11) are arranged centrally and have a radius (r) which is between 4 mm and 7 mm, characterized in that reference electrodes (14, 15) are provided which are made annular and which surround the measuring electrodes (10, 11) in an annular manner, wherein the reference electrodes (14, 15) are situated in the region of a soldering ring 16 with which the measuring diaphragm and the intermediate diaphragm are fastened to the base body in a continuous manner at their edges.
A communication device comprising: a communication processing unit for performing digital processing and analog processing for transmitting and receiving data; and an intermittent operation control unit for determining whether to enter an intermittent operation period for intermittently operating the communication processing unit dependent on a second cycle by use of information on a first cycle longer than the second cycle, and for intermittently operating the communication processing unit, wherein the intermittent operation control unit generates a first timing signal which first timing signal is switched on or off according to the first cycle and a second timing signal which second timing signal is switched on or off according to the second cycle based on control information on the first and second cycles received from a predetermined base station when being registered in a communication network of the base station, and determines the intermittent operation period based on the first timing signal and intermittently operates the communication processing unit based on the second timing signal during the intermittent operation period. a communication processing unit for performing digital processing and analog processing for transmitting and receiving data; and an intermittent operation control unit for determining whether to enter an intermittent operation period for intermittently operating the communication processing unit dependent on a second cycle by use of information on a first cycle longer than the second cycle, and for intermittently operating the communication processing unit, for determining whether to enter an intermittent operation period for intermittently operating the communication processing unit dependent on a second cycle by use of information on a first cycle longer than the second cycle, and for intermittently operating the communication processing unit, wherein the intermittent operation control unit generates a first timing signal which first timing signal is switched on or off according to the first cycle and a second timing signal which second timing signal is switched on or off according to the second cycle based on control information on the first and second cycles received from a predetermined base station when being registered in a communication network of the base station, and determines the intermittent operation period based on the first timing signal and intermittently operates the communication processing unit based on the second timing signal during the intermittent operation period. generates a first timing signal which first timing signal is switched on or off according to the first cycle and a second timing signal which second timing signal is switched on or off according to the second cycle based on control information on the first and second cycles received from a predetermined base station when being registered in a communication network of the base station, and determines the intermittent operation period based on the first timing signal and intermittently operates the communication processing unit based on the second timing signal during the intermittent operation period.
Substrate for radio-frequency microelectronic devices, comprising: - a carrier substrate, - an intermediate layer, - a useful layer arranged on the intermediate layer, characterized in that the carrier substrate is made of semiconductor material and in that the substrate comprises a sintered composite layer which is arranged on the carrier substrate and is formed from a powder mixture of at least a first dielectric material and a second dielectric material different from the first, the nature of the first material, the nature of the second material, and the proportion of said materials in the powder mixture being selected to provide the sintered composite layer with a thermal expansion coefficient matching that of the carrier substrate within plus or minus 30%, said sintered composite layer having a thickness of between 5 microns and 100 microns, the intermediate layer being arranged on the sintered composite layer. - a carrier substrate, - an intermediate layer, - a useful layer arranged on the intermediate layer,
A flame retardant resin composition comprising: a hydrogenated petroleum resin, being a hydrogenated product of a polymer of an unsaturated hydrocarbon comprising an alicyclic compound having a five-membered ring and an aromatic hydrocarbon compound; a polyolefin; and an inorganic filler. a hydrogenated petroleum resin, being a hydrogenated product of a polymer of an unsaturated hydrocarbon comprising an alicyclic compound having a five-membered ring and an aromatic hydrocarbon compound; a polyolefin; and an inorganic filler.
An electronic module for removable attachment to a device housing of a disposable delivery device holding a container with a liquid drug, including delivery status sensing means (21, 22) for monitoring a delivery status, a status indicator for indicating a status, and a status indicator controller, characterized in that the status indicator controller is configured such that an indicator control signal of the status indicator controller varies monotonically between a minimum and a maximum value in a first interval and between the maximum and the minimum value in a second interval, wherein in the first or in the second interval, the mean value of the indicator control signal is below the average of the maximum and the minimum values of the indicator control signal.