mhurhangee/ep-ind-claims huggingface dataset:
A device coupled to a memory via a memory channel, wherein the memory has memory connectors including memory data connectors to the memory channel, comprising: device connectors to the memory channel including device data connectors that connect to the memory data connectors on the memory; means for programming the memory by transmitting at least one command to the memory to indicate a pattern that specifies a bit sequence value to be output by each of the memory data connectors, the bit sequence value includes a first bit sequence value for a selected memory data connector of the memory data connectors and a second bit sequence value different from the first bit sequence value for the remaining memory data connectors other than the selected memory data connector; means for issuing a read command to read the pattern on the memory data connectors for each of the memory data connectors; and means for mapping the device data connector receiving the first bit sequence value in the read pattern to the selected memory data connector transmitting the first bit sequence value for each of the memory data connectors; characterised in that the means for programming the memory comprises: means for programming at least one pattern mode register bit in the memory once to indicate the pattern; and means for programming at least one mask mode register bit in the memory to indicate the selected memory data connector on which the first bit sequence value is transmitted for each of the memory data connectors. device connectors to the memory channel including device data connectors that connect to the memory data connectors on the memory; means for programming the memory by transmitting at least one command to the memory to indicate a pattern that specifies a bit sequence value to be output by each of the memory data connectors, the bit sequence value includes a first bit sequence value for a selected memory data connector of the memory data connectors and a second bit sequence value different from the first bit sequence value for the remaining memory data connectors other than the selected memory data connector; means for issuing a read command to read the pattern on the memory data connectors for each of the memory data connectors; and means for mapping the device data connector receiving the first bit sequence value in the read pattern to the selected memory data connector transmitting the first bit sequence value for each of the memory data connectors; characterised in that the means for programming the memory comprises: means for programming at least one pattern mode register bit in the memory once to indicate the pattern; and means for programming at least one mask mode register bit in the memory to indicate the selected memory data connector on which the first bit sequence value is transmitted for each of the memory data connectors. means for programming at least one pattern mode register bit in the memory once to indicate the pattern; and means for programming at least one mask mode register bit in the memory to indicate the selected memory data connector on which the first bit sequence value is transmitted for each of the memory data connectors.
A method of accessing a data-capture device, by a public safety wireless communications equipment during an incident, the method comprising: sending an authentication request from a public safety authentication and authorization, PSAA, server to an ID management server, IDMS; issuing, by the IDMS, an authentication token to the PSAA server; sending, by the PSAA server, an access request to a server (310, 334) in a non public-safety network, the access request comprising the authentication token and an identifier of an incident; in response to sending the access request to the server (310, 334) in the non public-safety network, receiving, by a dispatch controller of a public-safety wireless communication system and via the PSAA server, a token from the server of the non-public safety network at a time of occurrence of the incident, the token allowing access to the at least one data-capture device, wherein the at least one data capture device is in a domain of the server (310, 334) and the token comprising the identifier of the incident; sending, by the dispatch controller, the token to the at least one data-capture device; receiving, by the dispatch controller, a data stream from the at least one data-capture device; and forwarding, by the dispatch controller, the data stream to a public safety wireless communication device. sending an authentication request from a public safety authentication and authorization, PSAA, server to an ID management server, IDMS; issuing, by the IDMS, an authentication token to the PSAA server; sending, by the PSAA server, an access request to a server (310, 334) in a non public-safety network, the access request comprising the authentication token and an identifier of an incident; in response to sending the access request to the server (310, 334) in the non public-safety network, receiving, by a dispatch controller of a public-safety wireless communication system and via the PSAA server, a token from the server of the non-public safety network at a time of occurrence of the incident, the token allowing access to the at least one data-capture device, wherein the at least one data capture device is in a domain of the server (310, 334) and the token comprising the identifier of the incident; sending, by the dispatch controller, the token to the at least one data-capture device; receiving, by the dispatch controller, a data stream from the at least one data-capture device; and forwarding, by the dispatch controller, the data stream to a public safety wireless communication device. sending, by the dispatch controller, the token to the at least one data-capture device; receiving, by the dispatch controller, a data stream from the at least one data-capture device; and forwarding, by the dispatch controller, the data stream to a public safety wireless communication device.
Method for function monitoring of an automated conveyor system having at least one conveyor path for maintaining the conveyor system, wherein conveyor devices which the conveyor path comprises are provided with sensors (11, 12) and actuators (7, 8) which are used for controlling and/or regulating the movement of the conveyor devices, wherein the sensors (11, 12) and actuators (7, 8) of the conveyor devices are coordinated by means of a plurality of control devices, wherein the control devices comprise decentralised control modules, wherein for function monitoring of the conveyor system conveyor device states are determined, wherein sensor and/or actuator data of the conveyor devices are detected by the decentralised control modules and wherein system parameter data derived from the sensor and/or actuator data are provided by the decentralised control modules, and wherein the system parameter data in order to determine and/or evaluate the conveyor device states are transmitted to a central evaluation unit, wherein there is used in order to transmit the system parameter data to the central evaluation unit a communication network which is constructed parallel with a network structure which is required for the operation of the conveyor system. wherein conveyor devices which the conveyor path comprises are provided with sensors (11, 12) and actuators (7, 8) which are used for controlling and/or regulating the movement of the conveyor devices, wherein the sensors (11, 12) and actuators (7, 8) of the conveyor devices are coordinated by means of a plurality of control devices, wherein the control devices comprise decentralised control modules, wherein for function monitoring of the conveyor system conveyor device states are determined, wherein sensor and/or actuator data of the conveyor devices are detected by the decentralised control modules and wherein system parameter data derived from the sensor and/or actuator data are provided by the decentralised control modules, and wherein the system parameter data in order to determine and/or evaluate the conveyor device states are transmitted to a central evaluation unit, wherein there is used in order to transmit the system parameter data to the central evaluation unit a communication network which is constructed parallel with a network structure which is required for the operation of the conveyor system.
Apparatus for hydrothermal carbonization of biological material, comprising: a pressure reactor having an inlet and an outlet; measurement and control units; and at least one further processing unit; wherein the pressure reactor has, at the inlet and/or outlet, means of introducing starting materials into the pressure reactor at given intervals and supplying them to the carbonization process and/or for removing end products from the pressure reactor, wherein the conditions for a carbonization process within the pressure reactor are essentially maintained, and the pressure reactor is arranged essentially vertically and at least one conveying unit which extends from the inlet to the outlet is arranged within the pressure reactor, in order to move starting materials through the interior of the pressure reactor during a transformation through intermediates to end products and/or prevent adhesion of intermediates to the reactor wall. a pressure reactor having an inlet and an outlet; measurement and control units; and at least one further processing unit;
An oral care implement (100, 200, 300, 400, 500) comprising: a handle; a head connected to the handle, the head comprising a first surface and a second surface opposite the second surface; a hollow cleaning element cone extending from the first surface of the head, the hollow cleaning element cone circumferentially surrounding a first axis (B-B) extending from the first surface of the head, wherein the hollow cleaning element cone extends from the first surface of the head so as to radially diverge from the first axis (B-B); and a cleaning element wall (133, 233, 333, 433, 533) extending from the first surface of the head, the cleaning element wall (133, 233, 333, 433, 533) having an inner top edge and circumferentially surrounding the hollow cleaning element cone; the hollow cleaning element cone terminating in a cleaning end and the cleaning element wall terminating in a top surface, the cleaning end of the hollow cleaning element cone extending beyond the top surface of the cleaning element wall; characterized in that the inner top edge of the cleaning element wall (133, 233, 333, 433, 533) abuts against the cleaning element cone. a handle; a head connected to the handle, the head comprising a first surface and a second surface opposite the second surface; a hollow cleaning element cone extending from the first surface of the head, the hollow cleaning element cone circumferentially surrounding a first axis (B-B) extending from the first surface of the head, wherein the hollow cleaning element cone extends from the first surface of the head so as to radially diverge from the first axis (B-B); and a cleaning element wall (133, 233, 333, 433, 533) extending from the first surface of the head, the cleaning element wall (133, 233, 333, 433, 533) having an inner top edge and circumferentially surrounding the hollow cleaning element cone; the hollow cleaning element cone terminating in a cleaning end and the cleaning element wall terminating in a top surface, the cleaning end of the hollow cleaning element cone extending beyond the top surface of the cleaning element wall; characterized in that the inner top edge of the cleaning element wall (133, 233, 333, 433, 533) abuts against the cleaning element cone.
A method for depositing a layer of phosphor-containing material on a plurality of LED (light-emitting diode) dies, the method comprising: disposing a template with a plurality of openings on an adhesive tape and subsequently; disposing each of a plurality of LED dies in one of the plurality of openings of the template; forming a patterned photoresist layer over the template and the plurality of LED dies, the photoresist layer having a plurality of openings configured to expose a top surface of each of the LED dies; depositing a phosphor-containing material on the exposed top surface of each the LED dies; removing the photoresist layer; and removing the template. disposing a template with a plurality of openings on an adhesive tape and subsequently; disposing each of a plurality of LED dies in one of the plurality of openings of the template; forming a patterned photoresist layer over the template and the plurality of LED dies, the photoresist layer having a plurality of openings configured to expose a top surface of each of the LED dies; depositing a phosphor-containing material on the exposed top surface of each the LED dies; removing the photoresist layer; and removing the template.
An isolated monoclonal antibody, or an antigen-binding portion thereof, that specifically binds Factor XIa, wherein the antibody comprises a heavy chain variable domain comprising the amino acid sequence of SEQ ID NO: 1 and a light chain variable domain comprising the amino acid sequence of SEQ ID NO: 7.
Laser system for irrigation, including debriding, cleaning and decontamination, of anatomical cavities filled with a liquid, the laser system comprising a laser source for generating a laser beam, and an optical delivery system for the laser beam, wherein the delivery system includes a treatment handpiece and an exit component, wherein the treatment handpiece and the exit component are configured to irrigate the anatomical cavity filled with the liquid and having a liquid-to-air surface, wherein a wavelength of the laser beam is in a range from above 0.4 μm to 11.0 μm inclusive, wherein the laser system is adapted to be operated in pulsed operation with pulse sets containing at least two and maximally twenty individual pulses (p) of a temporally limited pulse length (t p), wherein a temporal separation (t s) between the pulse sets is ≥ 20 ms, and wherein the individual pulses (p) follow one another with a temporal pulse period (T P) within a range of 50 μs, inclusive, to 1000 μs, inclusive, characterized in, that the laser system further comprises a feedback system to determine a bubble oscillation intensity of at least one vapor bubble generated within the liquid when irradiated with the laser beam, and that adjusting means are provided for adjusting the temporal pulse period (T P) to achieve at least approximately a bubble oscillation intensity maximum to produce effective irrigation, including debriding, cleaning and decontamination of an anatomical cavity.
An in vitro method of selectively destroying or inhibiting the growth of parasites located within a target region, comprising the step of: capacitively coupling an AC electric field into the target region; wherein the strength of the electric field in at least a portion of the target region is between 0.5 V/cm and 10 V/cm, wherein the electric field is configured to disrupt the parasites located within the target region and to leave non-dividing cells located within the target region substantially unharmed; characterized in that: the frequency of the electric field is between 1.5 MHz and 20 MHz; and the coupling step is repeated until a plateau at over 50% in the growth inhibition of the parasites within the target region is reached. capacitively coupling an AC electric field into the target region; wherein the strength of the electric field in at least a portion of the target region is between 0.5 V/cm and 10 V/cm, wherein the electric field is configured to disrupt the parasites located within the target region and to leave non-dividing cells located within the target region substantially unharmed; characterized in that: the frequency of the electric field is between 1.5 MHz and 20 MHz; and the coupling step is repeated until a plateau at over 50% in the growth inhibition of the parasites within the target region is reached. the frequency of the electric field is between 1.5 MHz and 20 MHz; and the coupling step is repeated until a plateau at over 50% in the growth inhibition of the parasites within the target region is reached.
A non-planar transistor, comprising: a non-planar transistor fin on a microelectronic substrate; a non-planar transistor gate (122, 166) over the non-planar transistor fin; a source region and a drain region in the non-planar transistor fin on opposite sides of the non-planar transistor gate (122, 166); wherein the non-planar transistor gate (122, 166) comprises: a pair of gate spacers; a gate dielectric on the non-planar transistor fin between the pair of gate spacers; a gate electrode on the gate dielectric between the pair of gate spacers; and a dielectric capping structure on the gate electrode between the pair of gate spacers; wherein the gate electrode comprises: an NMOS work-function material comprising between about 20 to 40 % by weight aluminium, between about 30 to 50% by weight titanium, and between about 10 to 30% by weight carbon; a titanium-containing gate fill barrier on the NMOS work-function material; and a tungsten-containing gate fill material on the gate fill barrier. a non-planar transistor fin on a microelectronic substrate; a non-planar transistor gate (122, 166) over the non-planar transistor fin; a source region and a drain region in the non-planar transistor fin on opposite sides of the non-planar transistor gate (122, 166); wherein the non-planar transistor gate (122, 166) comprises: a pair of gate spacers; a gate dielectric on the non-planar transistor fin between the pair of gate spacers; a gate electrode on the gate dielectric between the pair of gate spacers; and a dielectric capping structure on the gate electrode between the pair of gate spacers; wherein the gate electrode comprises: an NMOS work-function material comprising between about 20 to 40 % by weight aluminium, between about 30 to 50% by weight titanium, and between about 10 to 30% by weight carbon; a titanium-containing gate fill barrier on the NMOS work-function material; and a tungsten-containing gate fill material on the gate fill barrier. a pair of gate spacers; a gate dielectric on the non-planar transistor fin between the pair of gate spacers; a gate electrode on the gate dielectric between the pair of gate spacers; and a dielectric capping structure on the gate electrode between the pair of gate spacers; wherein the gate electrode comprises: an NMOS work-function material comprising between about 20 to 40 % by weight aluminium, between about 30 to 50% by weight titanium, and between about 10 to 30% by weight carbon; a titanium-containing gate fill barrier on the NMOS work-function material; and a tungsten-containing gate fill material on the gate fill barrier. an NMOS work-function material comprising between about 20 to 40 % by weight aluminium, between about 30 to 50% by weight titanium, and between about 10 to 30% by weight carbon; a titanium-containing gate fill barrier on the NMOS work-function material; and a tungsten-containing gate fill material on the gate fill barrier.
A method for wireless communication at a wireless device (105-b), comprising: identifying (705, 1605, 1705) a set of bit locations of a polar code for encoding an input vector based at least in part on a reliability order of the bit locations, wherein the input vector comprises a set of payload bits and a set of error detecting check bits; mapping (710, 1610, 1715) bits of the input vector to respective bit locations of the set of the bit locations, wherein the mapping (710, 1610, 1715) comprises mapping the bits of the input vector to the respective bit locations of the set of the bit locations based at least in part on a decoding order of the set of the bit locations; performing (720, 1620, 1725) an encoding operation according to the mapped input vector to generate a codeword, wherein performing (720, 1620, 1725) the encoding operation includes applying (715, 1615, 1720) a recipient-specific masking operation to a subset of bits of the input vector that is mapped to a most reliable subset of the set of the bit locations, wherein the subset of bits of the input vector comprises at least one bit of the set of payload bits; and transmitting (725, 1625, 1730) the codeword to a second wireless device (105-c). identifying (705, 1605, 1705) a set of bit locations of a polar code for encoding an input vector based at least in part on a reliability order of the bit locations, wherein the input vector comprises a set of payload bits and a set of error detecting check bits; mapping (710, 1610, 1715) bits of the input vector to respective bit locations of the set of the bit locations, wherein the mapping (710, 1610, 1715) comprises mapping the bits of the input vector to the respective bit locations of the set of the bit locations based at least in part on a decoding order of the set of the bit locations; performing (720, 1620, 1725) an encoding operation according to the mapped input vector to generate a codeword, wherein performing (720, 1620, 1725) the encoding operation includes applying (715, 1615, 1720) a recipient-specific masking operation to a subset of bits of the input vector that is mapped to a most reliable subset of the set of the bit locations, wherein the subset of bits of the input vector comprises at least one bit of the set of payload bits; and transmitting (725, 1625, 1730) the codeword to a second wireless device (105-c).
Method for producing a slab made of insulating material for use in buildings, the method comprising the following steps: - arranging a work plane on a machine; - arranging at least one cutting device and heating it up to a temperature such as to be able to melt the insulating material; wherein said at least one cutting device is fixed to the work plane, and wherein a semi-finished block or panel made of insulating material is advanced over the work plane, according to a predetermined direction, through an advancing system provided on said machine, so that said semi-finished block or panel hits said at least one cutting device and so that said at least one cutting device digs or cuts into the semi-finished block or panel one or more of the following elements: - a passing channel, - a longitudinal rib, - a longitudinal groove, or - a longitudinal throat configured to couple and constrain an edge of a first slab to that of a second slab analogous and adjacent to said first slab. - arranging a work plane on a machine; - arranging at least one cutting device and heating it up to a temperature such as to be able to melt the insulating material; - a passing channel, - a longitudinal rib, - a longitudinal groove, or - a longitudinal throat configured to couple and constrain an edge of a first slab to that of a second slab analogous and adjacent to said first slab.
A computer-implemented method of defining a trimline (92, 94) in relation to a 3-D digital model of teeth (74, 80) including modeled gingiva (86, 90), the trimline being for use in the manufacturing of an aligner, the method comprising: placing a margin point (104, 134) proximate a gingival margin at each tooth (74, 80) on at least one jaw (82, 84) in the 3-D digital model; generating a trimline (92, 94) connecting the plurality of margin points (104, 134); adding at least one control point (106, 114) on the trimline (92, 94) between two margin points and proximate an interproximal region between two adjacent model teeth in the 3-D digital model of teeth; moving the at least one control point occlusally relative to the two margin points and wherein the trimline (92, 94) follows the control point; and generating machine code from the trimline. placing a margin point (104, 134) proximate a gingival margin at each tooth (74, 80) on at least one jaw (82, 84) in the 3-D digital model; generating a trimline (92, 94) connecting the plurality of margin points (104, 134); adding at least one control point (106, 114) on the trimline (92, 94) between two margin points and proximate an interproximal region between two adjacent model teeth in the 3-D digital model of teeth; moving the at least one control point occlusally relative to the two margin points and wherein the trimline (92, 94) follows the control point; and generating machine code from the trimline.