mhurhangee/ep-ind-claims huggingface dataset:
A display device, comprising: a display panel including pixels; a touch sensor disposed on a surface of the display panel; a fingerprint sensor disposed to be spaced apart from the touch sensor; and a sensor driver configured to: calculate a moisture level (MOIS) using a touch sensing signal generated by the touch sensor in a skin measurement mode; generate skin characteristic data using a skin sensing signal generated by the fingerprint sensor in the skin measurement mode, the skin characteristic data comprising wrinkle and dead skin cell information; generate a weight based on a comparison of the skin characteristic data with accumulated past skin characteristic data (PSCD); and correct the moisture level based on the weight. a display panel including pixels; a touch sensor disposed on a surface of the display panel; a fingerprint sensor disposed to be spaced apart from the touch sensor; and a sensor driver configured to: calculate a moisture level (MOIS) using a touch sensing signal generated by the touch sensor in a skin measurement mode; generate skin characteristic data using a skin sensing signal generated by the fingerprint sensor in the skin measurement mode, the skin characteristic data comprising wrinkle and dead skin cell information; generate a weight based on a comparison of the skin characteristic data with accumulated past skin characteristic data (PSCD); and correct the moisture level based on the weight. calculate a moisture level (MOIS) using a touch sensing signal generated by the touch sensor in a skin measurement mode; generate skin characteristic data using a skin sensing signal generated by the fingerprint sensor in the skin measurement mode, the skin characteristic data comprising wrinkle and dead skin cell information; generate a weight based on a comparison of the skin characteristic data with accumulated past skin characteristic data (PSCD); and correct the moisture level based on the weight.
A recalibration device used during the acquisition of images of an anatomical area of a patient during robot-assisted surgery, including: a three dimensional body made of a radiolucent material, said body having an upper surface and an opposite surface forming a bearing surface to be manually placed on a surface of said anatomical area of the patient, said body comprises a volume defined by the upper surface and the bearing surface, the volume including fiducial markers made of radiopaque material, wherein said fiducial markers are spatially distributed within the volume between the upper surface and the bearing surface in a plurality of different specific geometrical patterns permitting a certain detection of the position and the orientation of the recalibration device in a three-dimensional digital model built from the images resulting from the acquisition of the anatomical area, wherein the plurality of different specific geometrical patterns are respectively arranged in a plurality of different parallel planes in the volume defined by the upper surface and the bearing surface. a three dimensional body made of a radiolucent material, said body having an upper surface and an opposite surface forming a bearing surface to be manually placed on a surface of said anatomical area of the patient, said body comprises a volume defined by the upper surface and the bearing surface, the volume including fiducial markers made of radiopaque material, wherein said fiducial markers are spatially distributed within the volume between the upper surface and the bearing surface in a plurality of different specific geometrical patterns permitting a certain detection of the position and the orientation of the recalibration device in a three-dimensional digital model built from the images resulting from the acquisition of the anatomical area, wherein the plurality of different specific geometrical patterns are respectively arranged in a plurality of different parallel planes in the volume defined by the upper surface and the bearing surface.
A computer-implemented method to generate synthetic light detection and ranging, LiDAR, data, the method comprising: obtaining, by a computing system comprising one or more computing devices (102; 130), a three-dimensional map of an environment; determining, by the computing system, a trajectory that describes a series of locations of a virtual object relative to the environment over time; performing, by the computing system, ray casting on the three-dimensional map according to the trajectory to generate an initial three-dimensional point cloud that comprises a plurality of points; the method being characterised by: processing, by the computing system using a machine-learned model (110; 140), the initial three-dimensional point cloud to predict a respective dropout probability for one or more of the plurality of points; and generating, by the computing system, an adjusted three-dimensional point cloud from the initial three-dimensional point cloud based at least in part on the respective dropout probabilities predicted by the machine-learned model for the one or more of the plurality of points of the initial three-dimensional point cloud. obtaining, by a computing system comprising one or more computing devices (102; 130), a three-dimensional map of an environment; determining, by the computing system, a trajectory that describes a series of locations of a virtual object relative to the environment over time; performing, by the computing system, ray casting on the three-dimensional map according to the trajectory to generate an initial three-dimensional point cloud that comprises a plurality of points; the method being characterised by: processing, by the computing system using a machine-learned model (110; 140), the initial three-dimensional point cloud to predict a respective dropout probability for one or more of the plurality of points; and generating, by the computing system, an adjusted three-dimensional point cloud from the initial three-dimensional point cloud based at least in part on the respective dropout probabilities predicted by the machine-learned model for the one or more of the plurality of points of the initial three-dimensional point cloud. processing, by the computing system using a machine-learned model (110; 140), the initial three-dimensional point cloud to predict a respective dropout probability for one or more of the plurality of points; and generating, by the computing system, an adjusted three-dimensional point cloud from the initial three-dimensional point cloud based at least in part on the respective dropout probabilities predicted by the machine-learned model for the one or more of the plurality of points of the initial three-dimensional point cloud.
A fastener delivery tool, comprising: a sheath assembly including a sheath comprising a hollow tube and a position retention member; a retraction assembly including a cover and a retractor member, wherein the cover includes a lumen extending therein; and a handle assembly coupled to a proximal end of the sheath assembly, wherein the sheath assembly is fixed relative to the handle assembly, the handle assembly including a housing and an actuation member; wherein the sheath assembly extends through the lumen of the cover; wherein the retractor member is configured to move relative to the handle assembly between a first position in which the sheath assembly is disposed within a distal portion of the cover and a second position in which the sheath assembly extends out of the distal portion of the cover, wherein the retraction assembly is biased to be in the second position; wherein actuation of the actuation member moves the retractor member from the first position to the second position. a sheath assembly including a sheath comprising a hollow tube and a position retention member; a retraction assembly including a cover and a retractor member, wherein the cover includes a lumen extending therein; and a handle assembly coupled to a proximal end of the sheath assembly, wherein the sheath assembly is fixed relative to the handle assembly, the handle assembly including a housing and an actuation member; wherein the sheath assembly extends through the lumen of the cover; wherein the retractor member is configured to move relative to the handle assembly between a first position in which the sheath assembly is disposed within a distal portion of the cover and a second position in which the sheath assembly extends out of the distal portion of the cover, wherein the retraction assembly is biased to be in the second position; wherein actuation of the actuation member moves the retractor member from the first position to the second position.
A group of compounds for converting glial cells to neurons for use in the treatment of Huntington's disease, the use comprising contacting the glial cells with the group of compounds comprising a combination of at least three of Crizotinib (Cri), Flurbiprofen (Flu), Lithium Chloride (Li), Vitamin C, Ceritinib (Cer) and Pirfenidone.
Radial fan for a household appliance, in particular for a cooking appliance, with a main delivery unit and an additional delivery unit, which have intake areas (AH, AZ) which are spatially separated from one another by a baffle plate in each case, and in which the main delivery unit is provided to deliver the air taken in from the intake areas (AH, AZ) radially outward, wherein the additional delivery unit has rotor blades, characterised in that the additional delivery unit is surrounded by a ring-shaped collar and the collar is arranged on the baffle plate, wherein the additional delivery unit is an axial additional delivery unit and the rotor blades of the additional delivery unit are arranged within the collar.
Reinforcement structure for a vehicle compartment of a heavy goods vehicle, comprising: - at least one elevation reinforcement profile extending along an elevation direction, said elevation reinforcement profile defining an elevation cavity; - at least one transversal reinforcement profile extending along a transversal direction, substantially perpendicular to the elevation direction, said transversal reinforcement profile defining a transversal cavity, and - at least one compartment panel extending against the elevation reinforcement profile and the transversal reinforcement profile such that the compartment panel closes the elevation and transversal cavities (28, 38), characterized in that the reinforcement structure further comprises at least one reinforcement member extending along at least part of the elevation reinforcement profile in the elevation cavity between said elevation reinforcement profile and said compartment panel, said reinforcement member being made of a material having a tensile strength greater than the tensile strength of the material forming the elevation reinforcement profile. - at least one elevation reinforcement profile extending along an elevation direction, said elevation reinforcement profile defining an elevation cavity; - at least one transversal reinforcement profile extending along a transversal direction, substantially perpendicular to the elevation direction, said transversal reinforcement profile defining a transversal cavity, and - at least one compartment panel extending against the elevation reinforcement profile and the transversal reinforcement profile such that the compartment panel closes the elevation and transversal cavities (28, 38),
Audio system comprising a microphone, an audio signal processor, an output transducer, a feedback tone detector which detects a possible feedback tone and the corresponding frequency of the feedback tone in the audio system between the output transducer and the microphone, and means for counteracting feedback, a controller for changing the phase of the audio signal served at the output transducer at a given frequency whenever the feedback tone detector detects a possible feedback tone in the audio system at this frequency, and means for comparing the frequency of the possible feedback tone before and after effecting the change of the phase of the audio signal served at the output transducer, wherein the means for counteracting feedback are turned on or speeded up, if a change of frequency of the possible feedback tone is present.
A method for controlling a wind generation system, wherein the wind generation system comprises a wind turbine for generating mechanical power, a doubly-fed induction generator for converting the mechanical power to electrical power, and a converter for converting the electrical power to a desired electrical power for supplying to a power grid, the converter comprising a rotor-side converter, a line-side converter and a DC link for connecting the rotor-side converter and the line-side converter, the method comprising: calculating a dynamic cut-in rotation speed (ω cutin dyn) of the rotor; determining a DC link voltage margin of the converter when a measured rotation speed feedback from a rotor of the generator is lower than an original cut-in rotation speed of the rotor, wherein the original cut-in rotation speed of the rotor comprises a default lower threshold speed for generating power from the wind turbine; determining a DC link voltage setpoint of the converter based on the determined DC link voltage margin; and controlling the converter based on the determined DC link voltage setpoint so as to lower a cut-in rotation speed of the rotor by choosing the dynamic cut-in rotation speed (ω cutin dyn) of the rotor as the cut-in rotation speed (ω cutin) of the rotor. calculating a dynamic cut-in rotation speed (ω cutin dyn) of the rotor; determining a DC link voltage margin of the converter when a measured rotation speed feedback from a rotor of the generator is lower than an original cut-in rotation speed of the rotor, wherein the original cut-in rotation speed of the rotor comprises a default lower threshold speed for generating power from the wind turbine; determining a DC link voltage setpoint of the converter based on the determined DC link voltage margin; and controlling the converter based on the determined DC link voltage setpoint so as to lower a cut-in rotation speed of the rotor by choosing the dynamic cut-in rotation speed (ω cutin dyn) of the rotor as the cut-in rotation speed (ω cutin) of the rotor.
Base lower part for an electroinstallation device, e.g. an electrical plug socket, comprising a base and a support ring, wherein the support ring is fastened to the base with two flange bushes arranged on the support ring circumference, wherein the flange bushes extend through openings of the support ring, and the support ring is fixed on the base by means of a flange collar created on the flange bushes on the ends of the same facing away from the base and by means of a first contact section of the flange bush, wherein the first contact section lies against the base on the lower side of the same facing away from the flange collar, characterized in that a second contact section is formed on the flange bush in such a manner that the support ring with its support ring lower side facing away from the flange collar directly abuts against the second contact section, wherein the second contact section is formed on the circumference of the flange bush in such a manner that it engages under the passage opening of the support ring on the edge side and is formed of two extensions formed on the circumference of the flange bush offset by 180° to one another.
A surgical system, comprising: a suture anchor configured to be disposed in bone, the suture anchor having a suture-seating feature at a distal end thereof, and the suture anchor having a helical groove (304, 306) formed in an exterior surface thereof, the groove (304, 306) having a maximum depth, having a length, and being configured to seat a suture at least partially therein along the length of the groove (304, 306); a suture configured to be seated in the helical groove (304, 306), the suture having a diameter, the diameter of the suture being greater than the maximum depth of the groove (304, 306); wherein the groove (304, 306) includes first and second independent helical grooves (304, 306), the suture is coupled to the suture-seating feature of the suture anchor such that each of a first length thereof and a second length thereof extends along an exterior surface of the suture anchor, and the suture is configured to move from a first configuration, in which the suture is not seated in the either of the independent helical grooves (304, 306), to a second configuration, in which the first and second lengths (310a, 310b) of the suture are at least partially seated in the first and second independent helical grooves (304, 306) respectively. a suture anchor configured to be disposed in bone, the suture anchor having a suture-seating feature at a distal end thereof, and the suture anchor having a helical groove (304, 306) formed in an exterior surface thereof, the groove (304, 306) having a maximum depth, having a length, and being configured to seat a suture at least partially therein along the length of the groove (304, 306); a suture configured to be seated in the helical groove (304, 306), the suture having a diameter, the diameter of the suture being greater than the maximum depth of the groove (304, 306); wherein the groove (304, 306) includes first and second independent helical grooves (304, 306), the suture is coupled to the suture-seating feature of the suture anchor such that each of a first length thereof and a second length thereof extends along an exterior surface of the suture anchor, and the suture is configured to move from a first configuration, in which the suture is not seated in the either of the independent helical grooves (304, 306), to a second configuration, in which the first and second lengths (310a, 310b) of the suture are at least partially seated in the first and second independent helical grooves (304, 306) respectively.
Arrangement suitable for conducting water, having a functional unit, in particular a valve, and at least one connecting hose, in particular a supply hose and/or a discharge hose, wherein a holding rim is integrally formed in one piece on one end of the connecting hose facing the functional unit, and that the holding rim is suspended on a hose receiver of the functional unit, characterized in that a radially acting tension rod is formed on the holding rim.
A test rig for testing a gearbox and an electromechanical energy converter, the test rig comprising: - a gear system (101, 201) comprising first and second rotatable connection interfaces (102, 103, 202, 203) suitable for being connected to input and output shafts of the gearbox under test, - a power transmission shaft (104, 204) constituting, together with the gear system and the gearbox under test, a mechanical closed power loop when the gearbox under test is connected to the first and second rotatable connection interfaces, - loading equipment (105-107, 205-207) for imposing test torque to the gearbox under test, and - at least one drive motor (108-111, 208-211) for driving the test rig, characterized in that the gear system further comprises a third rotatable connection interface (112, 212) suitable for being connected to a shaft of the electromechanical energy converter under test, and the gear system is arranged to provide gear ratios so that the first rotatable connection interface is arranged to rotate many revolutions during a single revolution of the second rotatable connection interface and during a single revolution of the third rotatable connection interface. - a gear system (101, 201) comprising first and second rotatable connection interfaces (102, 103, 202, 203) suitable for being connected to input and output shafts of the gearbox under test, - a power transmission shaft (104, 204) constituting, together with the gear system and the gearbox under test, a mechanical closed power loop when the gearbox under test is connected to the first and second rotatable connection interfaces, - loading equipment (105-107, 205-207) for imposing test torque to the gearbox under test, and - at least one drive motor (108-111, 208-211) for driving the test rig,
Method of producing hot strip with a dual-phase structure of ferrite and martensite, wherein at least 70% of the austenite is converted into ferrite, from the hot-rolled state by controlled two-stage cooling down after rolling to finished state to a strip temperature below the martensite start temperature in a cooling path (1, 1') consisting of water cooling groups (3 1-7, 4), arranged one behind another at a spacing, characterised in that starting from a steel with the chemical composition consisting of: 0.01 - 0.08% C, 0.9% Si,0.5 - 1.6% Mn, 1.2% Al, 0.3 - 1.2% Cr, the remainder Fe as well as usual incidental elements, in order to achieve a hot strip with a two-phase structure of 70 to 95% ferrite and 30 to 5% martensite with a high mechanical strength and high deforming capability (tensile strength greater than 600 MPa, percent elongation failure at least 25%) in the cooling path of a casting and rolling plant: a) the two-stage controlled cooling is carried out from a final-rolling strip temperature T finish wherein A 3 - 100 K < T finish < A 3 - 50 K, to a coiler strip temperature T coiling < 300° C (< martensite start temperature), wherein the cooling rate V 1,2 in the two cooling stages is between V = 30 - 150 K/s, preferably between V + 50 - 90 K/s, and b) the first cooling state is carried out up to entry of the cooling curve into the ferrite range and then the conversion heat liberated by conversion of the austenite into ferrite is used for isothermic maintenance of the attained strip temperature T const. with a holding time 5 s up to the start of the second cooling stage. 0.01 - 0.08% C, 0.9% Si,0.5 - 1.6% Mn, 1.2% Al, 0.3 - 1.2% Cr, the remainder Fe as well as usual incidental elements, a) the two-stage controlled cooling is carried out from a final-rolling strip temperature T finish wherein A 3 - 100 K < T finish < A 3 - 50 K, to a coiler strip temperature T coiling < 300° C (< martensite start temperature), wherein the cooling rate V 1,2 in the two cooling stages is between V = 30 - 150 K/s, preferably between V + 50 - 90 K/s, and b) the first cooling state is carried out up to entry of the cooling curve into the ferrite range and then the conversion heat liberated by conversion of the austenite into ferrite is used for isothermic maintenance of the attained strip temperature T const. with a holding time 5 s up to the start of the second cooling stage.