mhurhangee/patent-ind-claim-en huggingface dataset:
An orthopedic assembly comprising a positioning device and a guide leg, the positioning device comprising: a ring portion defining an aperture configured to allow the ring portion to seat on a head of a bone ; and a second portion that extends from the ring portion , wherein the second portion defines a slot that is curved along a first length of said slot, the guide leg defining a resection slot configured to guide removal of the head of the bone, wherein the guide leg is configured to couple to the second portion via a first projection that is received in the slot , wherein the guide leg is positionally adjustable relative to the second portion and the bone to reference a saddle of the neck of the bone for positioning the guide leg to guide removal of the head of the bone. a ring portion defining an aperture configured to allow the ring portion to seat on a head of a bone ; and a second portion that extends from the ring portion , wherein the second portion defines a slot that is curved along a first length of said slot, the guide leg defining a resection slot configured to guide removal of the head of the bone, wherein the guide leg is configured to couple to the second portion via a first projection that is received in the slot , wherein the guide leg is positionally adjustable relative to the second portion and the bone to reference a saddle of the neck of the bone for positioning the guide leg to guide removal of the head of the bone.
Electrolysis method comprising the steps of: - applying a pulsed voltage or establishing a pulsed current between an anode and a cathode, characterized by - repeated measurement of a respective current OCP that the cathode possesses in a zero-current state with respect to a reference system, and - controlling the pulsed voltage or the pulsed current between the anode and the cathode such that a working potential of the cathode in the current-carrying state with respect to the reference system has a defined progression (PF) relative to the respective current OCP, wherein - the defined progression (PF) has at least one phase (t k ) at a cathodic level and at least one phase (t a ) at an anodic level. - applying a pulsed voltage or establishing a pulsed current between an anode and a cathode, characterized by - repeated measurement of a respective current OCP that the cathode possesses in a zero-current state with respect to a reference system, and - controlling the pulsed voltage or the pulsed current between the anode and the cathode such that a working potential of the cathode in the current-carrying state with respect to the reference system has a defined progression (PF) relative to the respective current OCP, wherein - the defined progression (PF) has at least one phase (t k ) at a cathodic level and at least one phase (t a ) at an anodic level.
A method for orthodontic treatment planning, executed at least in part by a computer apparatus, comprising: (a) acquiring three-dimensional data from scans of maxillofacial and dental anatomy of a patient; (b) computing a plurality of cephalometric values from the acquired three-dimensional data; (c) processing the computed cephalometric values and generating metrics indicative of initial tooth positioning along a dental arch of the patient; (d) generating metrics indicative of corrected tooth positioning according to a desired dental arch form; (e) analyzing the metrics generated in steps (c) and (d) to calculate desired movement vectors (V) for individual teeth within the dental arch; and (f) displaying the generated metrics for both the initial and corrected tooth positioning and the calculated desired movement vectors (V) along the dental arch in an overlaid manner. (a) acquiring three-dimensional data from scans of maxillofacial and dental anatomy of a patient; (b) computing a plurality of cephalometric values from the acquired three-dimensional data; (c) processing the computed cephalometric values and generating metrics indicative of initial tooth positioning along a dental arch of the patient; (d) generating metrics indicative of corrected tooth positioning according to a desired dental arch form; (e) analyzing the metrics generated in steps (c) and (d) to calculate desired movement vectors (V) for individual teeth within the dental arch; and (f) displaying the generated metrics for both the initial and corrected tooth positioning and the calculated desired movement vectors (V) along the dental arch in an overlaid manner.
A dialysis system for carrying out a dialysis treatment, the dialysis system including: - an apparatus comprising a housing in which is arranged at least one component for controlling the dialysis treatment, - a first movable container support intended to receive a first solution bag and configured to move relatively to the housing , the first movable container support comprising a receiver part having a concave shape configured to receive and to store the first solution bag during the treatment and - a container receiver configured to receive a second solution bag, wherein the first movable container support including: - a first position required during treatment allowing the container receiver to store the second solution bag below the first movable container support , - a second position allowing a size of the dialysis system for transport, and - a third position providing an access to the container receiver wherein, in the second position, a part of the first movable container support is configured to surround a part of the housing, wherein the shape of the first movable container support and the shape of the container receiver are configured such that, in the second position, the container receiver receives at least a part of the first movable container support. - an apparatus comprising a housing in which is arranged at least one component for controlling the dialysis treatment, - a first movable container support intended to receive a first solution bag and configured to move relatively to the housing , the first movable container support comprising a receiver part having a concave shape configured to receive and to store the first solution bag during the treatment and - a container receiver configured to receive a second solution bag, wherein the first movable container support including: - a first position required during treatment allowing the container receiver to store the second solution bag below the first movable container support , - a second position allowing a size of the dialysis system for transport, and - a third position providing an access to the container receiver - a first position required during treatment allowing the container receiver to store the second solution bag below the first movable container support , - a second position allowing a size of the dialysis system for transport, and - a third position providing an access to the container receiver wherein, in the second position, a part of the first movable container support is configured to surround a part of the housing, wherein the shape of the first movable container support and the shape of the container receiver are configured such that, in the second position, the container receiver receives at least a part of the first movable container support.
A method of converting a jet board into a personal watercraft, said method comprising: providing an add-on module ; detachably attaching and securing the jet board to the add-on module ; wherein the jet board has a lateral side; wherein the jet board has an underside; wherein the jet board has a top side; wherein the jet board has a front end and a rear end; and wherein the jet board has an electric propulsion system; wherein the add-on module has a hull ; providing at least one handlebar coupled to the hull ; wherein the add-on module has a front end and a rear end; and wherein the jet board may be any of an electric surfboard, an electric boogie board, an electric standup paddle (SUP) board, or a hydro-foil board. providing an add-on module ; detachably attaching and securing the jet board to the add-on module ; wherein the jet board has a lateral side; wherein the jet board has an underside; wherein the jet board has a top side; wherein the jet board has a front end and a rear end; and wherein the jet board has an electric propulsion system; wherein the add-on module has a hull ; providing at least one handlebar coupled to the hull ; wherein the add-on module has a front end and a rear end; and wherein the jet board may be any of an electric surfboard, an electric boogie board, an electric standup paddle (SUP) board, or a hydro-foil board.
A polymer latex for the preparation of an elastomeric film obtainable by free-radical emulsion polymerization of a mixture of ethylenically unsaturated monomers comprising: a) 15 to 99 wt.-% of conjugated dienes; b) 0 to 80 wt.-% of ethylenically unsaturated nitrile compounds; c) 0 to 70 wt.-% of vinyl aromatic monomers; the sum of ethylenically unsaturated nitrile compounds b) and vinyl aromatic monomers c) being 0.95 to 84.95 wt.-% d) 0.05 to 10 wt.-% of ethylenically unsaturated acids wherein the ethylenically unsaturated acids comprise d1) an ethylenically unsaturated acid comprising - an acid functional group; and - a spacer group separating the ethylenically unsaturated group and the acid functional group by at least 4 atoms; and e) 0 to 65 wt.-% of co-polymerizable ethylenically unsaturated compounds, wherein monomers a) to e) are different from each other and the weight percentages being based on the total monomers in the mixture. a) 15 to 99 wt.-% of conjugated dienes; b) 0 to 80 wt.-% of ethylenically unsaturated nitrile compounds; c) 0 to 70 wt.-% of vinyl aromatic monomers; the sum of ethylenically unsaturated nitrile compounds b) and vinyl aromatic monomers c) being 0.95 to 84.95 wt.-% d) 0.05 to 10 wt.-% of ethylenically unsaturated acids wherein the ethylenically unsaturated acids comprise d1) an ethylenically unsaturated acid comprising - an acid functional group; and - a spacer group separating the ethylenically unsaturated group and the acid functional group by at least 4 atoms; and - an acid functional group; and - a spacer group separating the ethylenically unsaturated group and the acid functional group by at least 4 atoms; and e) 0 to 65 wt.-% of co-polymerizable ethylenically unsaturated compounds,
An inching system for controlling the speed of a loading vehicle having ground engaging devices , a hydrostatic transmission and an engine , the engine drives a hydraulic pump that supplies hydraulic fluid within the hydrostatic transmission , the hydrostatic transmission provides rotational power to the ground engaging devices , the hydrostatic transmission having a pilot pressure port with a pressure of hydraulic fluid at the pilot pressure port controlling a level of the rotational power from the hydrostatic transmission , a beginning of draining of the hydraulic fluid from the pilot pressure port defining an inching starting point (ISP), the inching system comprising: a brake pedal operable by an operator to activate brakes of the loading vehicle ; and an electrohydraulic valve configured to be hydraulically coupled to the pilot pressure port of the hydrostatic transmission , the electrohydraulic valve being configured to drain the hydraulic fluid at the pilot pressure port ; characterized in that a sensor (104 or 106) is coupled to the brake pedal to detect an input from the operator, the sensor (104 or 106) being configured to produce a signal indicative of the input from the operator; and a controller being configured to receive the signal and a speed of the engine , the controller being further configured to control the electrohydraulic valve dependent upon the signal and the engine speed so that the inching starting point (ISP) is unchanged regardless of the speed of the engine . a brake pedal operable by an operator to activate brakes of the loading vehicle ; and an electrohydraulic valve configured to be hydraulically coupled to the pilot pressure port of the hydrostatic transmission , the electrohydraulic valve being configured to drain the hydraulic fluid at the pilot pressure port ; characterized in that a sensor (104 or 106) is coupled to the brake pedal to detect an input from the operator, the sensor (104 or 106) being configured to produce a signal indicative of the input from the operator; and a controller being configured to receive the signal and a speed of the engine , the controller being further configured to control the electrohydraulic valve dependent upon the signal and the engine speed so that the inching starting point (ISP) is unchanged regardless of the speed of the engine .
An additive manufacturing system comprising: a surface holding a particulate ; a focused energy source configured to generate at least one beam that moves along said surface to heat the particulate to a melting point creating a melt path; and a camera configured to generate an image of said surface as the at least one beam moves along said surface , said camera having a field of view, said camera positioned in relation to said surface such that the field of view encompasses a portion of the melt path defining a plurality of rasters , wherein said camera is configured to generate a time exposure image of at least the portion of the melt path defining the plurality of rasters; the additive manufacturing system further comprising a shutter positionable between an open position that allows light to travel through an aperture and a closed position that inhibits light traveling through the aperture, wherein the shutter controls the exposure time of the camera ; wherein the shutter is configured to be maintained in an open position for a period of time longer than 1 minute, or the shutter is moveable between the open position and the closed position in a sequence of exposures that are configured to generate the time exposure image , wherein the total time the shutter is in the open position during the sequence of exposures is longer than 1 minute; and a processor configured to process the time exposure image , said processor configured to recognize differences in light intensity within the time exposure image. a surface holding a particulate ; a focused energy source configured to generate at least one beam that moves along said surface to heat the particulate to a melting point creating a melt path; and a camera configured to generate an image of said surface as the at least one beam moves along said surface , said camera having a field of view, said camera positioned in relation to said surface such that the field of view encompasses a portion of the melt path defining a plurality of rasters , wherein said camera is configured to generate a time exposure image of at least the portion of the melt path defining the plurality of rasters; the additive manufacturing system further comprising a shutter positionable between an open position that allows light to travel through an aperture and a closed position that inhibits light traveling through the aperture, wherein the shutter controls the exposure time of the camera ; wherein the shutter is configured to be maintained in an open position for a period of time longer than 1 minute, or the shutter is moveable between the open position and the closed position in a sequence of exposures that are configured to generate the time exposure image , wherein the total time the shutter is in the open position during the sequence of exposures is longer than 1 minute; and a processor configured to process the time exposure image , said processor configured to recognize differences in light intensity within the time exposure image.
A customizable and multi-purpose mechanical device with technical functionality of tightening closure, as well as decorative function, structured to realize articles and fashion accessories and/or every objects for domestic and industrial use, composed of two parts of which one part contains a plate with a pin ; characterized in that the other part contains three plates of housing (2A, 2B and 2C), joined together, to incorporate the pin that is tightened from the central housing plate , which is structured to rotate by means of a lever connected to it thus allowing the tightening closure of the two parts of the device when the same are simply superimposed on each other and without any rotation of one part with respect to the other part.
A device for controlling movement of a drawer relative to a cabinet, where the drawer and cabinet are mounted with respect to each other by a slide rail assembly (S1, S2), e.g. in a piece of furniture, said device comprising an actuator for imparting a biasing force to said drawer in a first direction, a housing attachable to said cabinet for mounting said actuator for reciprocable movement in and opposite to said first direction, damper means operable on the actuator to impart a damping force thereto in a sense to resist its movement in said first direction, and a catch attachable to the drawer for releasably engaging the actuator, wherein the housing and catch comprise locating means for determining their relative positions on the cabinet and drawer during their attachment to the cabinet and drawer, respectively, the housing comprising one or two legs operable to sit on the slide rail assembly (S1, S2) to determine the vertical position of the housing with respect to said first direction, and a locating flange on a front edge of the housing to determine the horizontal position of the housing and designed to abut the front edge of the cabinet side panel and wherein the housing further comprises a land for engaging the catch in the attached position of the housing to determine the position of attachment of said catch with respect to a direction perpendicular to said first direction. wherein the housing and catch comprise locating means for determining their relative positions on the cabinet and drawer during their attachment to the cabinet and drawer, respectively, the housing comprising one or two legs operable to sit on the slide rail assembly (S1, S2) to determine the vertical position of the housing with respect to said first direction, and a locating flange on a front edge of the housing to determine the horizontal position of the housing and designed to abut the front edge of the cabinet side panel and wherein the housing further comprises a land for engaging the catch in the attached position of the housing to determine the position of attachment of said catch with respect to a direction perpendicular to said first direction.
A sublingual pharmaceutical composition comprising edaravone or a salt thereof as an active ingredient, a filler, a binder and a disintegrant, wherein the pharmaceutical composition does not comprise 2-camphanol; wherein the pharmaceutical composition does not comprise active ingredients other than edaravone or a salt thereof; wherein the filler comprises mannitol but not comprises lactose; wherein the binder comprises hydroxypropyl methylcellulose but not comprises copovidone; and wherein the disintegrant comprises at least one selected from the group consisting of croscarmellose sodium and crospovidone. wherein the pharmaceutical composition does not comprise 2-camphanol; wherein the pharmaceutical composition does not comprise active ingredients other than edaravone or a salt thereof; wherein the filler comprises mannitol but not comprises lactose; wherein the binder comprises hydroxypropyl methylcellulose but not comprises copovidone; and wherein the disintegrant comprises at least one selected from the group consisting of croscarmellose sodium and crospovidone.
A communication method, comprising: determining, by a first node in a first layer, whether a failure has occurred in a sink node in a second layer subordinate to the first layer, wherein the first node serves as a sink node in the first layer to directly perform wireless communication with second nodes in the second layer; requesting, by the first node , the second nodes to collect information of third nodes in a third layer subordinate to the second layer when the first node has determined that a failure has occurred in the sink node in the second layer; and wherein the method further comprises determining, by the first node , a fourth node from among the second nodes to serve as a substitute for the failed sink node based on the information of the third nodes collected by the second nodes characterized in that the fourth node is determined according to either a first condition or a second condition, wherein the first condition is that the fourth node is capable of communicating with a sink node in the third layer and that quality of communication between the fourth node and the sink node in the third layer is equal to or greater than a threshold value, and wherein the second condition is that there exists no node among the second nodes capable of communicating with the sink node in the third layer and that the fourth node is the node among the second nodes capable of communicating with the greatest number of third nodes in the third layer and of which quality of communications with the third nodes in the third layer is equal to or greater than a threshold value. determining, by a first node in a first layer, whether a failure has occurred in a sink node in a second layer subordinate to the first layer, wherein the first node serves as a sink node in the first layer to directly perform wireless communication with second nodes in the second layer; requesting, by the first node , the second nodes to collect information of third nodes in a third layer subordinate to the second layer when the first node has determined that a failure has occurred in the sink node in the second layer; and wherein the method further comprises determining, by the first node , a fourth node from among the second nodes to serve as a substitute for the failed sink node based on the information of the third nodes collected by the second nodes characterized in that the fourth node is determined according to either a first condition or a second condition, wherein the first condition is that the fourth node is capable of communicating with a sink node in the third layer and that quality of communication between the fourth node and the sink node in the third layer is equal to or greater than a threshold value, and wherein the second condition is that there exists no node among the second nodes capable of communicating with the sink node in the third layer and that the fourth node is the node among the second nodes capable of communicating with the greatest number of third nodes in the third layer and of which quality of communications with the third nodes in the third layer is equal to or greater than a threshold value.