mhurhangee/ep-ind-claims huggingface dataset:
An information transmission method, which is applied to a network device and comprises: sending downlink information to a terminal over a first beam of a single-frequency network cell group, wherein the single-frequency network cell group comprises at least two cells, the at least two cells comprise a first cell that supports transmission of at least two beams, and the first beam is one of the beams supported by the first cell; wherein the downlink information is sent over a dedicated bandwidth part, BWP, corresponding to the single-frequency network cell group; before the sending downlink information over the first beam of the single-frequency network cell group, the method being characterized by further comprising: configuring the terminal on the dedicated BWP corresponding to the single-frequency network cell group, or configuring the terminal on a BWP corresponding to a cell. sending downlink information to a terminal over a first beam of a single-frequency network cell group, wherein the single-frequency network cell group comprises at least two cells, the at least two cells comprise a first cell that supports transmission of at least two beams, and the first beam is one of the beams supported by the first cell; wherein the downlink information is sent over a dedicated bandwidth part, BWP, corresponding to the single-frequency network cell group; before the sending downlink information over the first beam of the single-frequency network cell group, the method being characterized by further comprising: configuring the terminal on the dedicated BWP corresponding to the single-frequency network cell group, or configuring the terminal on a BWP corresponding to a cell. configuring the terminal on the dedicated BWP corresponding to the single-frequency network cell group, or configuring the terminal on a BWP corresponding to a cell.
An operating method of a network apparatus, the method comprising: determining whether congestion occurs; determining whether congestion control is supported based on a downlink packet related to the congestion in case that the congestion occurs; receiving at least one uplink packet from at least one terminal; identifying an uplink packet related to the congestion among the at least one uplink packet in case that the congestion control is supported based on the downlink packet related to the congestion; and updating a congestion-related field of a header of the identified uplink packet. determining whether congestion occurs; determining whether congestion control is supported based on a downlink packet related to the congestion in case that the congestion occurs; receiving at least one uplink packet from at least one terminal; identifying an uplink packet related to the congestion among the at least one uplink packet in case that the congestion control is supported based on the downlink packet related to the congestion; and updating a congestion-related field of a header of the identified uplink packet.
A transparent member-equipped cover of an injection molding machine, comprising: a cover of the injection molding machine; a transparent member which covers an opening portion of the cover; and characterized by that the transparent member-equipped cover comprises an antifouling part wherein the antifouling part electrically connects the cover and the transparent member, thereby preventing the transparent member from becoming polluted. a cover of the injection molding machine; a transparent member which covers an opening portion of the cover; and characterized by that the transparent member-equipped cover comprises an antifouling part wherein the antifouling part electrically connects the cover and the transparent member, thereby preventing the transparent member from becoming polluted.
A transmission case having a case body and a housing unit, the housing unit being integrated with the case body and including a transition section connected to the case body, the transmission case having a longitudinal axis along which the case body and the housing unit are arranged, wherein the case body accommodates a transmission mechanism to transmit a drive force from a motor to an output shaft by a variable gear ratio and; the housing unit accommodates a coupling mechanism connected to the motor and to transmit the drive force from the motor to the transmission mechanism; wherein a plurality of outer protrusions are formed on the outer surface of at least the case body and the transition section to protrude outward, and having a longitudinal dimension along the longitudinal axis of the transmission case; and characterised by a plurality of inner protrusions formed at respective positions on the inner surface of the transmission case to protrude inward, and having a longitudinal dimension along the longitudinal axis of the transmission case, the plurality of inner protrusions being positioned corresponding to at least some of the outer protrusions.
A limited access space inspection system comprising: a sensing device for sensing over a region in said limited access space, a mounting for mounting said sensing device to be scannable about said limited access space, and a scanning subsystem associated with said sensing device, for controlling said sensing device to scan about said limited access space, wherein said scanning subsystem comprises a scanning control subsystem and an actuation subsystem, wherein said mounting comprises a linear track, wherein said sensing device is an imaging device, wherein said limited access space is a vehicle underside, and wherein said actuation subsystem is configured to move the sensing device through linear and rotary motion and to scan said imaging device about said limited access space according to a pre-recorded program, said scanning comprising moving said imaging device about said space through linear and rotary motion to inspect said limited access space, said linear motion being along said linear track. a sensing device for sensing over a region in said limited access space, a mounting for mounting said sensing device to be scannable about said limited access space, and a scanning subsystem associated with said sensing device, for controlling said sensing device to scan about said limited access space, wherein said scanning subsystem comprises a scanning control subsystem and an actuation subsystem, wherein said mounting comprises a linear track, wherein said sensing device is an imaging device, wherein said limited access space is a vehicle underside, and wherein said actuation subsystem is configured to move the sensing device through linear and rotary motion and to scan said imaging device about said limited access space according to a pre-recorded program, said scanning comprising moving said imaging device about said space through linear and rotary motion to inspect said limited access space, said linear motion being along said linear track.
A process for the production of a boiled chicken flavour comprising heating a composition comprising a reducing sugar and cysteine and arachidonic acid characterized in that the composition is heated and extruded in an extruder at a temperature between 80°C and 140°C.
A method for accessing a platform with an anti-theft mechanism, comprising: requesting authorization to access a standby state by sending a platform public key to a server; receiving a server public key; receiving an encrypted and signed anti-theft permit; sending a rendezvous message to the server; receiving an encrypted and signed anti-theft standby transition message from the server; validating the signature of the anti-theft standby transition message with the server public key; sending cryptographically signed acknowledgment to the server; transitioning from an active state to the standby state on the platform in response to validating the anti-theft standby transition message, wherein the platform permits access to hardware resources and software resources while in the standby state; and transitioning from the active state to a stolen state in response to a trigger indicating that the platform has been stolen, wherein the platform restricts access to the hardware resources and the software resources while in the stolen state. requesting authorization to access a standby state by sending a platform public key to a server; receiving a server public key; receiving an encrypted and signed anti-theft permit; sending a rendezvous message to the server; receiving an encrypted and signed anti-theft standby transition message from the server; validating the signature of the anti-theft standby transition message with the server public key; sending cryptographically signed acknowledgment to the server; transitioning from an active state to the standby state on the platform in response to validating the anti-theft standby transition message, wherein the platform permits access to hardware resources and software resources while in the standby state; and transitioning from the active state to a stolen state in response to a trigger indicating that the platform has been stolen, wherein the platform restricts access to the hardware resources and the software resources while in the stolen state.
High-speed mechanical bearing, comprising a cage, an outer ring and an inner ring, centred on the same bearing axis, with the outer ring being arranged radially around the inner ring, - wherein the cage is arranged coaxially between the inner ring and the outer ring and is housing cylindrical rollers, with this cage being formed by several disjointed tubular portions (8A, 8B, 8C, 8D) which, in the assembled state of the bearing, are separated from each other by a non-zero gap between 10 and 70% of the space between two adjacent cylindrical rollers, wherein each portion (8A, 8B, 8C, 8D) of the cage delimits several through housings for receiving cylindrical rollers, the through housings being cut-outs with a rectangular contour which are regularly spaced around the axis, of which the dimensions correspond to those of the cylindrical rollers, wherein the cage is formed by at least three disjointed tubular portions (8A, 8B, 8C, 8D), that do not cooperate mechanically with each other in the assembled state of the bearing, wherein the inner ring comprises a peripheral groove wherein the cylindrical rollers are partially housed. - wherein the cage is arranged coaxially between the inner ring and the outer ring and is housing cylindrical rollers, with this cage being formed by several disjointed tubular portions (8A, 8B, 8C, 8D) which, in the assembled state of the bearing, are separated from each other by a non-zero gap between 10 and 70% of the space between two adjacent cylindrical rollers, wherein the cage is formed by at least three disjointed tubular portions (8A, 8B, 8C, 8D), that do not cooperate mechanically with each other in the assembled state of the bearing, wherein the inner ring comprises a peripheral groove wherein the cylindrical rollers are partially housed.
Base for an electrical cabinet, said base being rectangular in shape and consisting of multiple framework elements (10_i, 11_i) that are joined together such that it has an adjustable length (Ltot), each framework element being able to adopt only a first configuration or a second configuration, characterized in that said base comprises: - two framework elements of said first configuration present at the two ends and in that each other framework element is created in the second configuration and is interposed between the two end framework elements so as to adjust said length of said base, - a first set of multiple rails placed end-to-end and joined to one another along a first assembly line and a second set of multiple rails placed end-to-end and joined to one another along a second assembly line that is distinct from and parallel to the first assembly line, - multiple assembly elements that are identical and are arranged so as to join each framework element to an adjacent framework element, each framework element comprising at least one fixed assembly element so as to have a male-type assembly member arranged to cooperate with a female-type assembly member present on an adjacent framework element, - the framework elements being joined to one another such that the positioning of the assembly members alternates along the first assembly line and along the second assembly line. - two framework elements of said first configuration present at the two ends and in that each other framework element is created in the second configuration and is interposed between the two end framework elements so as to adjust said length of said base, - a first set of multiple rails placed end-to-end and joined to one another along a first assembly line and a second set of multiple rails placed end-to-end and joined to one another along a second assembly line that is distinct from and parallel to the first assembly line, - multiple assembly elements that are identical and are arranged so as to join each framework element to an adjacent framework element, each framework element comprising at least one fixed assembly element so as to have a male-type assembly member arranged to cooperate with a female-type assembly member present on an adjacent framework element, - the framework elements being joined to one another such that the positioning of the assembly members alternates along the first assembly line and along the second assembly line.
An apparatus for an electronic device, said apparatus comprising: a linear discrete-time oscillator configured to receive three input parameters and configured to form a discrete-valued oscillating output signal according to the three input parameters, values of the three input parameters being correspondingly determinative of gain, phase, and frequency characteristics of the discrete-valued oscillating output signal, wherein the linear discrete-time oscillator comprises a self-resetting mechanism configured to reset the oscillator at a desired rate or periodic interval, wherein resetting occurs at a cycle boundary; and a single multiplier stage configured to receive the discrete-valued oscillating signal formed by said linear discrete-time oscillator and configured to receive an input signal and to form an output signal comprised of a complex product of the input signal and the discrete-valued oscillating signal. a linear discrete-time oscillator configured to receive three input parameters and configured to form a discrete-valued oscillating output signal according to the three input parameters, values of the three input parameters being correspondingly determinative of gain, phase, and frequency characteristics of the discrete-valued oscillating output signal, wherein the linear discrete-time oscillator comprises a self-resetting mechanism configured to reset the oscillator at a desired rate or periodic interval, wherein resetting occurs at a cycle boundary; and a single multiplier stage configured to receive the discrete-valued oscillating signal formed by said linear discrete-time oscillator and configured to receive an input signal and to form an output signal comprised of a complex product of the input signal and the discrete-valued oscillating signal.
A check valve (100, 200), comprising: a housing comprising an inlet port (112, 212), an outlet port (122, 222), and a valve chamber (102, 202), the inlet port (112, 212) extending from a ceiling of the valve chamber (102, 202) to an outer surface (216, 226) of the housing, the outlet port (122, 222) extending from a floor of the valve chamber (102, 202) to the outer surface (216, 226) of the housing; and a valve member comprising a valve head and a valve stem (134, 234) extending longitudinally from the valve head, wherein the valve member is supported within the valve chamber (102, 202) by the stem disposed in a center of an opening of the outlet port (122, 222), wherein when an upstream pressure is applied to the valve member, the valve head is bendable to deflect away from the ceiling of the valve chamber (102, 202) and unseal the inlet port (112, 212), and when a downstream pressure is applied to the valve member, the valve head is bendable to deflect away from the floor of the valve chamber (102, 202) and seal the inlet port (112, 212) such that the valve head corresponds to a shape of the ceiling of the valve chamber (102, 202). a housing comprising an inlet port (112, 212), an outlet port (122, 222), and a valve chamber (102, 202), the inlet port (112, 212) extending from a ceiling of the valve chamber (102, 202) to an outer surface (216, 226) of the housing, the outlet port (122, 222) extending from a floor of the valve chamber (102, 202) to the outer surface (216, 226) of the housing; and a valve member comprising a valve head and a valve stem (134, 234) extending longitudinally from the valve head, wherein the valve member is supported within the valve chamber (102, 202) by the stem disposed in a center of an opening of the outlet port (122, 222), wherein when an upstream pressure is applied to the valve member, the valve head is bendable to deflect away from the ceiling of the valve chamber (102, 202) and unseal the inlet port (112, 212), and when a downstream pressure is applied to the valve member, the valve head is bendable to deflect away from the floor of the valve chamber (102, 202) and seal the inlet port (112, 212) such that the valve head corresponds to a shape of the ceiling of the valve chamber (102, 202).
A wearable device comprising: a strap part configured to be worn on a body part of a user; and a main body configured to process a biological signal, and characterized by further comprising a first interface disposed at a predetermined position of the strap part and configured to accommodate a detachable sensor and receive the biological signal from the detachable sensor in response to the detachable sensor being connected to the wearable device through the first interface. a strap part configured to be worn on a body part of a user; and a main body configured to process a biological signal, and characterized by further comprising a first interface disposed at a predetermined position of the strap part and configured to accommodate a detachable sensor and receive the biological signal from the detachable sensor in response to the detachable sensor being connected to the wearable device through the first interface.
Method for producing a photovoltaic solar cell having at least one heterojunction, comprising the following method steps: A providing a semiconductor substrate (1, 11) having base doping; B generating a heterojunction on at least one side of the semiconductor substrate, which heterojunction has a doped heterojunction layer and a dielectric tunnel layer arranged directly between the heterojunction layer (3, 14) and the semiconductor substrate; C heating at least the heterojunction layer in order to improve the electrical quality of the heterojunction; characterised in that in method step C, at least the heterojunction layer is heated to at least 600°C; in a method step D after method step C, hydrogen is diffused into the heterojunction layer and/or to the interface between the tunnel layer and the semiconductor substrate, wherein in method step D the solar cell is heated to at least 350°C; and a metal contacting layer (9, 9') is arranged directly on the heterojunction layer. A providing a semiconductor substrate (1, 11) having base doping; B generating a heterojunction on at least one side of the semiconductor substrate, which heterojunction has a doped heterojunction layer and a dielectric tunnel layer arranged directly between the heterojunction layer (3, 14) and the semiconductor substrate; C heating at least the heterojunction layer in order to improve the electrical quality of the heterojunction;
A method comprising: receiving an analytical model from an external server at a mobile edge node, wherein the mobile edge node is configured to communicate with other systems through a plurality of communication links; acquiring situation information for the mobile edge node from at least one component on the mobile edge node; providing the situation information to the analytical model executing on the mobile edge node, wherein the analytical model is to provide an output including predictions or detections of communication link states; identifying a change in one or more communication link states based on an output of the analytical model; transmitting the output of the analytical model to the external server; receiving an additional analytical model from the external server by the mobile edge node, where the additional analytical model is based on the output of the analytical model; predicting which of the communication links to be used for communication with other systems based on the output of the analytical model; and using the predicted communication link for communication. receiving an analytical model from an external server at a mobile edge node, wherein the mobile edge node is configured to communicate with other systems through a plurality of communication links; acquiring situation information for the mobile edge node from at least one component on the mobile edge node; providing the situation information to the analytical model executing on the mobile edge node, wherein the analytical model is to provide an output including predictions or detections of communication link states; identifying a change in one or more communication link states based on an output of the analytical model; transmitting the output of the analytical model to the external server; receiving an additional analytical model from the external server by the mobile edge node, where the additional analytical model is based on the output of the analytical model; predicting which of the communication links to be used for communication with other systems based on the output of the analytical model; and using the predicted communication link for communication.
A pilot fatigue detection system for an aircraft that includes at least an airframe and a pilot-operated aircraft control device, the system comprising: a processor coupled to receive a signal representative of detected movements of the aircraft control device and configured, upon receipt thereof, to determine when the pilot is fatigued, wherein: the processor implements a model that has been trained by a machine learning algorithm to determine when the pilot is fatigued; the machine learning algorithm was experimentally developed to detect control device movement patterns that are representative of both alert pilots and fatigued pilots; and the model is adaptable, in real-time, to individual pilots to further train and/or tune to a current pilot. the processor implements a model that has been trained by a machine learning algorithm to determine when the pilot is fatigued; the machine learning algorithm was experimentally developed to detect control device movement patterns that are representative of both alert pilots and fatigued pilots; and the model is adaptable, in real-time, to individual pilots to further train and/or tune to a current pilot.
A process for making an additive for lubricants comprising self-dispersing cerium oxide nanoparticles, wherein the nanoparticles are made by a process of reacting a mixture of organo-cerium salt, fatty acid, and amine in the absence of water and organic solvent at a temperature ranging from 150° to 250° C, wherein the process comprises providing a reaction mixture having a molar ratio of organo-cerium salt to amine to fatty acid ranging from 1:1:1 to 1:2:2 in the reaction mixture and providing the reaction mixture under an atmosphere of air which is delivered subsurface to the reaction mixture to provide the additive as a reaction product comprising from 20 to 40 % by weight of the nanoparticles in an organic medium.