mhurhangee/ep-ind-claims huggingface dataset:
An imaging and quantum cryptography apparatus, comprising: a light-refracting optical setup; a light-directing optical setup; an imaging sensor capturing light refracted from the light-refracting optical setup and directed to the imaging sensor by the light-directing optical setup; at least one of: a quantum key distribution transmitter generating a QKD light signal and transmitting the QKD light signal via the light-directing optical setup and through the light-refracting optical setup; a QKD receiver acquiring and decoding light signals refracted from the light-refracting optical setup and directed to the QKD receiver by the light-directing optical setup; characterized in that the imaging and quantum cryptography apparatus further comprising an alignment unit aligning the at least one of QKD transmitter and QKD receiver to a coupled QKD apparatus based on light signal passing via the light-directing optical setup and the light-refracting optical setup and by using an image of the coupled QKD apparatus captured by said imaging sensor during said alignment. a light-refracting optical setup; a light-directing optical setup; an imaging sensor capturing light refracted from the light-refracting optical setup and directed to the imaging sensor by the light-directing optical setup; at least one of: a quantum key distribution transmitter generating a QKD light signal and transmitting the QKD light signal via the light-directing optical setup and through the light-refracting optical setup; a QKD receiver acquiring and decoding light signals refracted from the light-refracting optical setup and directed to the QKD receiver by the light-directing optical setup; a quantum key distribution transmitter generating a QKD light signal and transmitting the QKD light signal via the light-directing optical setup and through the light-refracting optical setup; a QKD receiver acquiring and decoding light signals refracted from the light-refracting optical setup and directed to the QKD receiver by the light-directing optical setup; characterized in that the imaging and quantum cryptography apparatus further comprising an alignment unit aligning the at least one of QKD transmitter and QKD receiver to a coupled QKD apparatus based on light signal passing via the light-directing optical setup and the light-refracting optical setup and by using an image of the coupled QKD apparatus captured by said imaging sensor during said alignment.
A laryngoscope comprising: a unitary body formed of a first material and having portions shaped to define a handle and a blade of the laryngoscope, the body having a recess therein shaped to receive one or more electrical components (12,13,14) for operation of a light mounted in the blade portion, the blade comprising a first surface which faces away from the handle portion and a cover material moulded over a portion of the first surface, said cover material being softer than the first material so as to provide a resilient portion which can be pressed against a patient's teeth during use of the laryngoscope, wherein the electrical component (12,13,14) comprises a switch, and the laryngoscope further comprises a closure member shaped to cover the recess, characterised in that the body and/or closure member comprises an opening through which a switch button is accessible to the user. a unitary body formed of a first material and having portions shaped to define a handle and a blade of the laryngoscope, the body having a recess therein shaped to receive one or more electrical components (12,13,14) for operation of a light mounted in the blade portion, the blade comprising a first surface which faces away from the handle portion and a cover material moulded over a portion of the first surface, said cover material being softer than the first material so as to provide a resilient portion which can be pressed against a patient's teeth during use of the laryngoscope, wherein the electrical component (12,13,14) comprises a switch, and the laryngoscope further comprises a closure member shaped to cover the recess, characterised in that the body and/or closure member comprises an opening through which a switch button is accessible to the user.
A method for analyzing power quality events in an electrical system, comprising: processing electrical measurement data from or derived from energy-related signals captured by a plurality of metering devices (121, 122, 123, 124) characterized in that the step of processing the electrical measurement data from or derived from energy-related signals captured by a plurality of metering devices (121, 122, 123, 124) is used to generate or update a plurality of dynamic tolerance curves, wherein each of the plurality of dynamic tolerance curves characterizes a response characteristic of the electrical system at a respective metering point of a plurality of metering points in the electrical system; and that the method further comprises: selectively aggregating power quality data from the plurality of dynamic tolerance curves; analyzing power quality events in the electrical system based on the selectively aggregated power quality data; and adjusting or controlling one or more parameters, processes, conditions or loads (111, 112, 113, 114, 115) associated with the electrical system in response to the power quality events analyzed. processing electrical measurement data from or derived from energy-related signals captured by a plurality of metering devices (121, 122, 123, 124) characterized in that the step of processing the electrical measurement data from or derived from energy-related signals captured by a plurality of metering devices (121, 122, 123, 124) is used to generate or update a plurality of dynamic tolerance curves, wherein each of the plurality of dynamic tolerance curves characterizes a response characteristic of the electrical system at a respective metering point of a plurality of metering points in the electrical system; and that the method further comprises: selectively aggregating power quality data from the plurality of dynamic tolerance curves; analyzing power quality events in the electrical system based on the selectively aggregated power quality data; and adjusting or controlling one or more parameters, processes, conditions or loads (111, 112, 113, 114, 115) associated with the electrical system in response to the power quality events analyzed. selectively aggregating power quality data from the plurality of dynamic tolerance curves; analyzing power quality events in the electrical system based on the selectively aggregated power quality data; and adjusting or controlling one or more parameters, processes, conditions or loads (111, 112, 113, 114, 115) associated with the electrical system in response to the power quality events analyzed.
A pneumatically controlled actuator arrangement of a vehicle transmission arrangement, said actuator arrangement being connectable to a clutch unit of the vehicle transmission arrangement and arranged to controllably position the clutch unit between a closed position and an opened position, the actuator arrangement being connectable to a valve unit arranged to controllably supply pressurized air to the actuator arrangement, wherein the actuator arrangement comprises an interface portion for connection to the valve unit, said interface portion comprises a mechanical interface portion and a pneumatic interface portion (406, 406'), wherein the mechanical interface portion comprises guiding means for guiding a portion of the valve unit for connection to the actuator arrangement, wherein the pneumatic interface portion (406, 406') comprises at least one conduit arranged to connect to a valve conduit of the valve unit for fluidly connecting the pneumatically controlled actuator arrangement to a clutch valve (308, 310) of the valve unit, characterized in that the guiding means comprises a guiding pin extending from the interface portion and arranged to be positioned in an opening of the portion of the valve unit, wherein the guiding pin has an extension from the interface portion which is larger than an extension of the at least one conduit of the pneumatic interface portion.
A clip separating system for separating a clip from an accumulation of clips contained within a feeding assembly, the clip separating system comprising: a separating assembly having an inlet and an outlet, the inlet of the separating assembly being operatively connected to an outlet of the feeding assembly for receiving the clip to be separated therefrom, a path being defined between the inlet and the outlet of the separating assembly, the clip to be separated being positively driven along said path via a corresponding driving component of the clip separating system, characterised by, the driving component comprising a pushing component for pushing onto a midsection of the clip to be separated along the path during a driving stroke of the driving component, the outlet of the separating assembly being vertically offset with respect to the outlet of the feeding assembly and the path and the outlet of the separating assembly being configured so that a base of a separated clip is oriented in a substantially vertical manner when maintained in place at the outlet of the separating assembly prior to being picked up by a complementary picking mechanism. a separating assembly having an inlet and an outlet, the inlet of the separating assembly being operatively connected to an outlet of the feeding assembly for receiving the clip to be separated therefrom, a path being defined between the inlet and the outlet of the separating assembly, the clip to be separated being positively driven along said path via a corresponding driving component of the clip separating system, characterised by, the driving component comprising a pushing component for pushing onto a midsection of the clip to be separated along the path during a driving stroke of the driving component, the outlet of the separating assembly being vertically offset with respect to the outlet of the feeding assembly and the path and the outlet of the separating assembly being configured so that a base of a separated clip is oriented in a substantially vertical manner when maintained in place at the outlet of the separating assembly prior to being picked up by a complementary picking mechanism.
A method of retrieving video data, the method comprising: receiving data describing a sample entry type for a sample of a video bitstream, the sample entry type being one of 'hev1' or 'hev2,' wherein the sample comprises video data encoded according to one of High-Efficiency Video Coding (HEVC) or layered HEVC (L-HEVC), wherein one or more other samples including video data precede the sample in the video bitstream in decoding order, and in response to the sample entry type being 'hev1' or 'hev2' and the sample comprising the video data encoded according to one of HEVC or L-HEVC, retrieving the sample to perform random access using the sample, without retrieving the video data of any of the one or more other samples that precede the sample, and without retrieving parameter sets of any previous samples of the video bitstream in decoding order, characterized in that the video data of the sample is included in a track of a plurality of tracks of a file, the plurality of tracks including a subset of the plurality of tracks including single-layer or multi-layer video data, the method further comprising, in response to determining that convenient random access is enabled for one of the subset of the plurality of tracks having a lowest temporal sub-layer, determining that convenient random access is enabled for each of the plurality of tracks. receiving data describing a sample entry type for a sample of a video bitstream, the sample entry type being one of 'hev1' or 'hev2,' wherein the sample comprises video data encoded according to one of High-Efficiency Video Coding (HEVC) or layered HEVC (L-HEVC), wherein one or more other samples including video data precede the sample in the video bitstream in decoding order, and in response to the sample entry type being 'hev1' or 'hev2' and the sample comprising the video data encoded according to one of HEVC or L-HEVC, retrieving the sample to perform random access using the sample, without retrieving the video data of any of the one or more other samples that precede the sample, and without retrieving parameter sets of any previous samples of the video bitstream in decoding order, characterized in that the video data of the sample is included in a track of a plurality of tracks of a file, the plurality of tracks including a subset of the plurality of tracks including single-layer or multi-layer video data, the method further comprising, in response to determining that convenient random access is enabled for one of the subset of the plurality of tracks having a lowest temporal sub-layer, determining that convenient random access is enabled for each of the plurality of tracks.
A method for washing platelets comprising: (a) introducing anticoagulant into a platelet product container containing platelet product, the platelet product containing platelets suspended within a supernatant; (b) drawing anticoagulated platelet product from the platelet product container; (c) introducing the anticoagulated platelet product into a centrifuge bowl, the centrifuge bowl separating the platelets from the supernatant; (d) introducing wash solution into the centrifuge bowl, the wash solution displacing the supernatant from the bowl and into a waste container; (e) introducing platelet additive solution into the centrifuge bowl, the platelet additive solution displacing the wash solution from the centrifuge bowl and into the waste container; (f) jogging the centrifuge bowl by accelerating and decelerating the centrifuge bowl; (g) repeating step (f) at least once, thereby resuspending the platelets in the platelet additive solution. (a) introducing anticoagulant into a platelet product container containing platelet product, the platelet product containing platelets suspended within a supernatant; (b) drawing anticoagulated platelet product from the platelet product container; (c) introducing the anticoagulated platelet product into a centrifuge bowl, the centrifuge bowl separating the platelets from the supernatant; (d) introducing wash solution into the centrifuge bowl, the wash solution displacing the supernatant from the bowl and into a waste container; (e) introducing platelet additive solution into the centrifuge bowl, the platelet additive solution displacing the wash solution from the centrifuge bowl and into the waste container; (f) jogging the centrifuge bowl by accelerating and decelerating the centrifuge bowl; (g) repeating step (f) at least once, thereby resuspending the platelets in the platelet additive solution.
A compound of formula I where R 1 and R 2 are the same or different and signify hydrogens, groups hydrolysable under physiological conditions, or optionally substituted alkanoyls or aroyls; X signifies a methylene group; Y represents O, S or NH; n represents 0, 1, 2 or 3; m represents 0 or 1; R 3 signifies a pyridine N-oxide group according to the formula A, B or C, which is connected as indicated by the unmarked bond: where R 4, R 5, R 6 and R 7 are the same or different, and signify hydrogen, alkyl, thioalkyl, alkoxy, aryloxy, thioaryl, alkanoyl, aroyl, aryl, amino, alkylamino, dialkylamino, cycloalkylamino, heterocycloalkylamino, alkylsulphonyl, arylsulphonyl, halogen, haloalkyl, trifluoromethyl, cyano, nitro or heteroaryl; or two or more of R 4, R 5, R 5, R 6, and R 7, taken together signify aliphatic or heteroaliphatic rings or aromatic or heteroaromatic rings; the term 'alkyl', including its variant 'alk-' in terms such as 'alkoxy' and 'alkanoyl' means carbon residues, straight or branched, containing from one to six carbon atoms; the term 'aryl' means a phenyl or naphthyl group; the term 'heterocycloalkyl' represents a four to eight-membered cyclic ring optionally incorporating at least one atom of oxygen, sulphur or nitrogen; the term 'heteroaryl' represents a five or six-membered ring incorporating at least one atom of sulphur, oxygen or nitrogen; the term 'halogen' represents fluorine, chlorine, bromine or iodine; and if R 4, R 5, R 6 and R 7 represent alkyl or aryl they are optionally substituted by one or more hydroxy, alkoxy or halogen groups; or a pharmaceutically acceptable salt or ester thereof, for use in the prevention or treatment of central and peripheral nervous system associated disorders, wherein the compound, salt or ester is administered according to a dosing regimen having a dosing periodicity ranging from about once every third day to about once weekly.
Drill for chip removing machining, comprising a drill body as well as a replaceable cutting insert, which is mounted in a pocket formed in a front tip of the drill body, from which pocket a chip flute extends backwardly along the drill body, and which cutting insert is fixed in the pocket by means of a screw comprising a head and a shank having a male thread, the cutting insert comprising a through hole extending between a topside and an underside, which hole has a basic shape that is rotationally symmetrical in relation to a centre axis, and is delimited by a series of surfaces including a mouth surface, converging downward from the topside (31 a), and a shoulder surface, and the head of the screw being kept pressed against said shoulder surface when the male thread of the screw is tightened in a female thread included in a hole that mouths in a bottom of the pocket, characterized in that the mouth surface in the hole of the cutting insert has a trumpet-like, cross section-wise convex shape adjacent to the topside (31 a) of the cutting insert, wherein the mouth surface extends between upper and lower circular borderlines (38a, 39a), the upper one of which also forms an inner borderline of the topside (31 a), and that the cross section-wise convex and rotationally symmetrical shape thereof is defined by a convexly curved line, which extends between said upper and lower borderlines.
A method for the production of a poppet valve which is armoured in at least the region of a valve seat, comprising: providing a substantially cylindrical semi-finished product produced from a valve steel, coating a portion of the substantially cylindrical semi-finished product with an armouring material, and forming the coated semi-finished product into an armoured hollow poppet valve, wherein the method further comprises forming the substantially cylindrical semi-finished product coated with the armouring material into a substantially cup-shaped preform. providing a substantially cylindrical semi-finished product produced from a valve steel, coating a portion of the substantially cylindrical semi-finished product with an armouring material, and forming the coated semi-finished product into an armoured hollow poppet valve, wherein the method further comprises forming the substantially cylindrical semi-finished product coated with the armouring material into a substantially cup-shaped preform.
A system for laying composite plies at preselected locations; comprising: a robot; an end effector on the robot for lifting a ply from a ply kit and placing the ply at a preselected location, the end effector comprising: a scanner; a camera; a gripper (32, 108); and a force sensor; a stationary camera for recording the position of the ply on the end effector; and a controller coupled with the robot and the end effector, wherein the scanner is on the end effector for detecting features relating to the location where the ply is to be placed; wherein the camera functions to record images of the plies in the ply kit which are processed by image recognition software forming part of the controller to recognise and select individual plies in a layup sequence; wherein the gripper (32, 108) is configured to releasably grip one or more plies on the end effector until ready for placement at the preselected location; wherein the controller receives inputs from the scanner, camera, force sensor and stationary camera and functions to control the operation of the robot and the end effector to place the ply at the preselected location. a robot; an end effector on the robot for lifting a ply from a ply kit and placing the ply at a preselected location, the end effector comprising: a scanner; a camera; a gripper (32, 108); and a force sensor; a scanner; a camera; a gripper (32, 108); and a force sensor; a stationary camera for recording the position of the ply on the end effector; and a controller coupled with the robot and the end effector, wherein the scanner is on the end effector for detecting features relating to the location where the ply is to be placed; wherein the camera functions to record images of the plies in the ply kit which are processed by image recognition software forming part of the controller to recognise and select individual plies in a layup sequence; wherein the gripper (32, 108) is configured to releasably grip one or more plies on the end effector until ready for placement at the preselected location; wherein the controller receives inputs from the scanner, camera, force sensor and stationary camera and functions to control the operation of the robot and the end effector to place the ply at the preselected location.
Method for determining a maneuvering time for an autonomous vehicle to reach a target speed, said method comprising the steps of: - Selection of a parameter, J max, representing a maximum jerk that the vehicle must not exceed in absolute value; - Acquisition of the target speed representing a speed that the vehicle must reach; - Acquisition of an initial speed of the vehicle representing a speed of the vehicle at the current time; - Determination of a maneuvering time, tm, equal to tm = k DV J max Or | DV | is the absolute value of the difference between the target speed and the initial speed, and k is a predetermined constant. - Selection of a parameter, J max, representing a maximum jerk that the vehicle must not exceed in absolute value; - Acquisition of the target speed representing a speed that the vehicle must reach; - Acquisition of an initial speed of the vehicle representing a speed of the vehicle at the current time; - Determination of a maneuvering time, tm, equal to tm = k DV J max
A coupling socket for coupling a first and a second secondary batteries, each having a cable structure of a thin and long shape, thereby flexible in a length direction and having different polarity terminals at both ends thereof, comprising: a first connection unit selectively and electrically connectable to a terminal of a first polarity electrode of a first secondary battery; a second connection unit selectively and electrically connectable to a terminal of a second polarity electrode of a second secondary battery; and a body including a pivotal shaft at a center thereof and electrically pivotally connected to the first connection unit and the second connection unit, wherein the coupling socket is configured such that at least one of the first connection unit and the second connection unit may pivot with respect to the body about the pivotal shaft. a first connection unit selectively and electrically connectable to a terminal of a first polarity electrode of a first secondary battery; a second connection unit selectively and electrically connectable to a terminal of a second polarity electrode of a second secondary battery; and a body including a pivotal shaft at a center thereof and electrically pivotally connected to the first connection unit and the second connection unit, wherein the coupling socket is configured such that at least one of the first connection unit and the second connection unit may pivot with respect to the body about the pivotal shaft.