mhurhangee/ep-ind-claims huggingface dataset:
A powder-bed additive manufacturing system comprising: an energy gun configured to melt at least a portion of a layer and thereby form at least in part a slice of a workpiece; and a directional mechanism that focuses a beam of the energy gun as a beam spot on the portion of the layer to form a melt pool; and a controller that causes the beam spot to move along the layer at a controlled rate and power; characterised in that the system further comprises: a volumetric imaging monitor having a depth perception ability and being configured to monitor volumetric surface texture to detect surface anomalies of the portion after solidification, wherein the controller causes the volumetric imaging monitor to move with the beam spot at the controlled rate in real time, and trail the beam spot by a distance that allows for the solidification and if an anomaly is detected, the controller causes the energy gun to re-melt a region with the anomaly thereby removing the anomaly; wherein the surface anomalies include at least one of balling, warping and surface distortion. an energy gun configured to melt at least a portion of a layer and thereby form at least in part a slice of a workpiece; and a directional mechanism that focuses a beam of the energy gun as a beam spot on the portion of the layer to form a melt pool; and a controller that causes the beam spot to move along the layer at a controlled rate and power; characterised in that the system further comprises: a volumetric imaging monitor having a depth perception ability and being configured to monitor volumetric surface texture to detect surface anomalies of the portion after solidification, wherein the controller causes the volumetric imaging monitor to move with the beam spot at the controlled rate in real time, and trail the beam spot by a distance that allows for the solidification and if an anomaly is detected, the controller causes the energy gun to re-melt a region with the anomaly thereby removing the anomaly; wherein the surface anomalies include at least one of balling, warping and surface distortion. a volumetric imaging monitor having a depth perception ability and being configured to monitor volumetric surface texture to detect surface anomalies of the portion after solidification, wherein the controller causes the volumetric imaging monitor to move with the beam spot at the controlled rate in real time, and trail the beam spot by a distance that allows for the solidification and if an anomaly is detected, the controller causes the energy gun to re-melt a region with the anomaly thereby removing the anomaly; wherein the surface anomalies include at least one of balling, warping and surface distortion.
Device for manually controlling a mechanism for a timepiece, comprising two counteracting manual corrector actuators (30, 50), arranged to be operated by a user and to control one and the same correction wheel set in opposing movements, each of the two manual corrector actuators (30, 50) setting in motion an associated corrector (20, 40) having a beak (29, 49) which is configured to bear against a relief of said correction wheel set and to cause said correction wheel set to move when said manual corrector actuator (30, 50) is moved over its full path of travel under the action of the user, said manual control device comprising a locking lever mechanism arranged to prohibit an action of one of the two manual corrector actuators (30, 50) on said correction wheel set when the other of the two manual corrector actuators (30, 50) is engaged and interacting with said correction wheel set, characterised in that said locking lever mechanism comprises a locking lever configured to be driven in rotation during the engagement of one of the two manual corrector actuators (30, 50), in order to limit the travel of the other of the two manual corrector actuators (50, 30) and to prevent the corrector (40, 20) associated therewith from accessing said correction wheel set.
Needle-suture combination comprising: a needle having a first needle end and a second needle end opposite to the first needle end, and a suture connected to the needle between the first needle end and the second needle end, wherein each of the first needle end and the second needle end comprises a needle point and a locking groove to receive a locking element of a needle holder, wherein the first needle end and the second needle end each comprise a needle end stop surface between the locking groove and the needle point, wherein the needle end stop surface is arranged to cooperate with a needle channel stop surface of a needle channel of a needle holder, characterized in that each needle point comprises a needle point surface extending at a first acute angle with respect to a longitudinal axis of the needle, wherein each needle end stop surface extends at a second acute angle with respect to the longitudinal axis of the needle, and wherein the first acute angle is larger than the acute second angle. a needle having a first needle end and a second needle end opposite to the first needle end, and a suture connected to the needle between the first needle end and the second needle end, wherein each of the first needle end and the second needle end comprises a needle point and a locking groove to receive a locking element of a needle holder, wherein the first needle end and the second needle end each comprise a needle end stop surface between the locking groove and the needle point, wherein the needle end stop surface is arranged to cooperate with a needle channel stop surface of a needle channel of a needle holder, characterized in that each needle point comprises a needle point surface extending at a first acute angle with respect to a longitudinal axis of the needle, wherein each needle end stop surface extends at a second acute angle with respect to the longitudinal axis of the needle, and wherein the first acute angle is larger than the acute second angle.
A system for dating the passage of a movable light object, said system comprising at least one telescope, a system for measuring the position of said telescope, a satellite geolocation system providing a time reference, an electronic data computer, said telescope comprising a focusing optic, a mechanical shutter and a photoreception matrix disposed at the focal point of said focusing optic, said matrix being a "CCD" sensor made up of pixels organised in rows and columns comprising the function called "Time and Integration Shift" or "TIS", characterised in that, when the movable light object enters the field of the telescope during an opening period of the mechanical shutter, the shift of the charges of at least one pixel of the rows of the CCD sensor provided by the TIS function is carried out at least once at an instant that is fully determined by the satellite geolocation system, shifting the light trace left by the image of the movable object along a column of pixels, with the electronic data computer determining the exact position of the movable object at the determined instant as a function of the knowledge of the position of this shift and of the position of the telescope.
An image forming apparatus comprising: a skew correcting unit (27, 34) that corrects skew by controlling writing of image data for a plurality of lines into a line memory or reading of image data for a plurality of lines from the line memory, the line memory being a buffer memory, based on a skew correction amount that has been calculated previously; characterized by a toner consumption amount calculating unit that refers to pixels on a plurality of peripheral lines among pixels of the image data stored in the memory when a toner consumption amount of a pixel to which toner adheres is calculated; and a memory assigning unit that assigns a capacity not used for skew correction on the line memory that is mounted for the skew correcting unit (27, 34) to the toner consumption amount calculating unit, wherein the toner consumption amount calculating unit calculates a capacity of the line memory that is necessary for skew correction, subtracts this capacity from the entire capacity of the line memory to calculate an excess line memory amount and compares the excess line memory amount to a predefined line memory amount to be used for the calculation of the toner consumption amount, and if the excess line memory amount is smaller than the line memory amount to be used for the calculation of the toner consumption amount, the number of lines to be referred to, when the toner consumption amount is calculated, is decreased to set the line memory amount to be used for the calculation of the toner consumption amount to be equal to or smaller than the excess line memory amount. a skew correcting unit (27, 34) that corrects skew by controlling writing of image data for a plurality of lines into a line memory or reading of image data for a plurality of lines from the line memory, the line memory being a buffer memory, based on a skew correction amount that has been calculated previously; characterized by a toner consumption amount calculating unit that refers to pixels on a plurality of peripheral lines among pixels of the image data stored in the memory when a toner consumption amount of a pixel to which toner adheres is calculated; and a memory assigning unit that assigns a capacity not used for skew correction on the line memory that is mounted for the skew correcting unit (27, 34) to the toner consumption amount calculating unit, wherein the toner consumption amount calculating unit calculates a capacity of the line memory that is necessary for skew correction, subtracts this capacity from the entire capacity of the line memory to calculate an excess line memory amount and compares the excess line memory amount to a predefined line memory amount to be used for the calculation of the toner consumption amount, and if the excess line memory amount is smaller than the line memory amount to be used for the calculation of the toner consumption amount, the number of lines to be referred to, when the toner consumption amount is calculated, is decreased to set the line memory amount to be used for the calculation of the toner consumption amount to be equal to or smaller than the excess line memory amount.
Wiper arm apparatus having a wiping water nozzle and having a hinged part which has at least one fastening clip which is provided for fastening the wiping water nozzle to the hinged part, a latching unit which is provided to establish a latching connection between the at least one fastening clip and the wiping water nozzle comprising at least one latching recess which is arranged in the at least one fastening clip for receiving a latching means, characterized in that the at least one latching recess has an at least substantially circular cross section.
Drive unit for at least one traction means, especially in stage machinery, comprising a drive drum, a geared motor, a belt-shaped drive means, a belt-shaped securing element, at least one traction means and a winding drum, which has at least one take-up region, on (each of) which the traction means is received which can be wound up or unwound, characterized in that axially adjacent to the take-up region there is a cylindrical drive region disposed on the winding drum, on which is received the belt-shaped drive means which can be wound up or unwound and which can be wound up onto the drive drum that can be driven by the geared motor, generating a drive torque acting on the winding drum in the process or can be unwound from the drive drum releasing the winding drum, wherein the belt-shaped securing element, which can be wound onto or unwound from the drive drum at the same time as the drive means, is mounted on the cylindrical drive region of the winding drum
A method comprising: transmitting, from a wireless node, one or more first data units of a first data transmission queue via a first channel of a first frequency band of a plurality of frequency bands; selecting a second frequency band of the plurality of frequency bands; performing a context transfer at the wireless node from the first frequency band to the second frequency band; wherein the performing of the context transfer comprises reassigning or transferring of one or more subsequent data units and associated control data of the first data transmission queue to a second data transmission queue associated with the second frequency band; the reassigning or transferring of the one or more subsequent data units and associated control data comprising: providing an indication in a memory or in the data transmission queues that at least the one or more subsequent data units have been reassigned to the second frequency band or transferring at least the one more subsequent data units of the first data transmission queue to the second data transmission queue associated with the second frequency band; and transmitting, from the wireless node, the one or more subsequent data units via the second channel of the second frequency band. transmitting, from a wireless node, one or more first data units of a first data transmission queue via a first channel of a first frequency band of a plurality of frequency bands; selecting a second frequency band of the plurality of frequency bands; performing a context transfer at the wireless node from the first frequency band to the second frequency band; wherein the performing of the context transfer comprises reassigning or transferring of one or more subsequent data units and associated control data of the first data transmission queue to a second data transmission queue associated with the second frequency band; the reassigning or transferring of the one or more subsequent data units and associated control data comprising: providing an indication in a memory or in the data transmission queues that at least the one or more subsequent data units have been reassigned to the second frequency band or transferring at least the one more subsequent data units of the first data transmission queue to the second data transmission queue associated with the second frequency band; and transmitting, from the wireless node, the one or more subsequent data units via the second channel of the second frequency band. providing an indication in a memory or in the data transmission queues that at least the one or more subsequent data units have been reassigned to the second frequency band or transferring at least the one more subsequent data units of the first data transmission queue to the second data transmission queue associated with the second frequency band; and transmitting, from the wireless node, the one or more subsequent data units via the second channel of the second frequency band.
A mutant streptavidin comprising an amino acid sequence, wherein the arginine residue at position 72 is substituted with lysine with respect to the amino acid sequence of a core streptavidin as shown in SEQ ID NO: 2; and which has any one or more mutations as described below: a mutation in which the tyrosine residue at position 10 is substituted with serine or threonine; a mutation in which the tyrosine residue at position 71 is substituted with alanine or serine; a mutation in which the glutamic acid residue at position 89 is substituted with aspartic acid; a mutation in which the arginine residue at position 91 is substituted with lysine; and a mutation in which the glutamic acid residue at position 104 is substituted with glutamine or asparagine; and which has decreased immunogenicity as compared with that of a wild-type streptavidin. a mutation in which the tyrosine residue at position 10 is substituted with serine or threonine; a mutation in which the tyrosine residue at position 71 is substituted with alanine or serine; a mutation in which the glutamic acid residue at position 89 is substituted with aspartic acid; a mutation in which the arginine residue at position 91 is substituted with lysine; and a mutation in which the glutamic acid residue at position 104 is substituted with glutamine or asparagine;
A method implemented in a wireless transmit receive unit, WTRU, the method comprising: establishing a radio resource control, RRC, connection via a first data path associated with a first serving site; receiving an RRC connection reconfiguration message via the first data path, wherein the RRC connection reconfiguration message comprises a configuration for the WTRU to add or modify one or more cells associated with a second data path to/of the RRC connection, wherein the RRC connection reconfiguration message indicates at least one data radio bearer, DRB, for use over the second data path, wherein the second data path is associated with a second serving site, wherein the first data path and the second data path are associated with separate physical layer configurations to be applied to a common type of radio interface, and wherein each signaling radio bearer, SRB, for the RRC connection is mapped to the first data path; reconfiguring the RRC connection, based on the received configuration, to support operation with (i) one or more cells of the first serving site and (ii) one or more cells of the second serving site, wherein each of the first and second serving sites is assocaited with an independent scheduler; activating the at least one of the one or more cells of the second serving site; and monitoring a control channel of the at least one of the one or more cells of the second serving site based on activating the at least one of the one or more cells of second serving site. establishing a radio resource control, RRC, connection via a first data path associated with a first serving site; receiving an RRC connection reconfiguration message via the first data path, wherein the RRC connection reconfiguration message comprises a configuration for the WTRU to add or modify one or more cells associated with a second data path to/of the RRC connection, wherein the RRC connection reconfiguration message indicates at least one data radio bearer, DRB, for use over the second data path, wherein the second data path is associated with a second serving site, wherein the first data path and the second data path are associated with separate physical layer configurations to be applied to a common type of radio interface, and wherein each signaling radio bearer, SRB, for the RRC connection is mapped to the first data path; reconfiguring the RRC connection, based on the received configuration, to support operation with (i) one or more cells of the first serving site and (ii) one or more cells of the second serving site, wherein each of the first and second serving sites is assocaited with an independent scheduler; activating the at least one of the one or more cells of the second serving site; and monitoring a control channel of the at least one of the one or more cells of the second serving site based on activating the at least one of the one or more cells of second serving site.
A display device, comprising: a substrate including a display area in which an image is displayed, a peripheral area at least partially surrounding the display area, and a pad area (PADA) within the peripheral area; a plurality of data lines disposed within the display area; and a plurality of connection wirings disposed within the display area, connected to the plurality of data lines, and configured to transmit a data signal from the pad area (PADA) to the plurality of data lines, wherein the plurality of connection wirings are disposed in a different layer from a layer in which the plurality of data lines are disposed, each of the plurality of connection wirings comprises a plurality of branches that protrude from the connection wirings in a direction perpendicular to a direction in which the connection wirings are primarily extended: and the display area comprises a first area in which the plurality of connection wirings extend in a first direction and a second area in which the plurality of connection wirings extends in a second direction perpendicular to the first direction. a substrate including a display area in which an image is displayed, a peripheral area at least partially surrounding the display area, and a pad area (PADA) within the peripheral area; a plurality of data lines disposed within the display area; and a plurality of connection wirings disposed within the display area, connected to the plurality of data lines, and configured to transmit a data signal from the pad area (PADA) to the plurality of data lines, wherein the plurality of connection wirings are disposed in a different layer from a layer in which the plurality of data lines are disposed, each of the plurality of connection wirings comprises a plurality of branches that protrude from the connection wirings in a direction perpendicular to a direction in which the connection wirings are primarily extended: and the display area comprises a first area in which the plurality of connection wirings extend in a first direction and a second area in which the plurality of connection wirings extends in a second direction perpendicular to the first direction.
A device for power supply, comprising: - a first generator having a first output for a positive supply voltage, a first measurement signal input and a first workload signal output, - a second generator connected in parallel with the first generator and having a second output for a positive supply voltage, a second measurement signal input and a second workload signal output, - whereas the two outputs are connected to each other with low resistance and have a supply voltage (B+), - with a control unit, to which signals can be fed from the first and the second workload signal outputs, and - has an overlay circuit (5, 6) connected to one of the measuring signal inputs (1b, 2b) and controlled by the control unit, wherein - the control unit is provided for evaluating the load signals (L1, L2) derived from the first and the second workload signal outputs and generates control signals (S1, S2) for the overlay circuit (5, 6), and - the overlay circuit (5, 6) provides signals to the measurement signal input (1b, 2b) of the associated generator (1, 2) by means of which the controller of the associated generator individually increases or decreases the output voltage of the respective generator, so that the load distribution is balanced. characterised in that the signals supplied to the measuring signal input (1b, 2b) of the associated generator (1, 2) are measuring signals (M1, M2) modified with the aid of the control signals (S1, S2), the control signals (S1, S2) being formed dependent on the difference between an average value DFMc and the respectively associated DFMc value is formed for each of the generators, DFMc being the arithmetic mean value of the current generator workload values and DFMc being the value for the current generator workload corresponding to the time average of the workload signals (L1, L2). - a first generator having a first output for a positive supply voltage, a first measurement signal input and a first workload signal output, - a second generator connected in parallel with the first generator and having a second output for a positive supply voltage, a second measurement signal input and a second workload signal output, - whereas the two outputs are connected to each other with low resistance and have a supply voltage (B+), - with a control unit, to which signals can be fed from the first and the second workload signal outputs, and - has an overlay circuit (5, 6) connected to one of the measuring signal inputs (1b, 2b) and controlled by the control unit, wherein - the control unit is provided for evaluating the load signals (L1, L2) derived from the first and the second workload signal outputs and generates control signals (S1, S2) for the overlay circuit (5, 6), and - the overlay circuit (5, 6) provides signals to the measurement signal input (1b, 2b) of the associated generator (1, 2) by means of which the controller of the associated generator individually increases or decreases the output voltage of the respective generator, so that the load distribution is balanced.