mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication unit for transmitting data in a wireless broadcast system, the wireless communication unit comprising: a signal processor is arranged to: map service data onto multiple physical layer pipes, PLPs, wherein each of the multiple PLPs includes arranged multiple data streams; generate at least one logical frame by mapping the multiple PLPs onto the at least one logical frame, wherein each of the at least one logical frame includes PLPs selected among the multiple PLPs and a first signaling information on the PLPs in each of the at least one logical frame; and generate a physical frame comprising at least a part of a logical channel defined as a sequence of the at least one logical frame and a second signaling information located at a beginning of the physical frame, wherein the second signaling information includes a signaling field indicating a beginning location of a logical frame starting in the physical frame or indicating that no logical frame starts in the physical frame; and a transmitter arranged to transmit the physical frame using the wireless broadcast system, wherein each of the at least one logical frame comprise PLPs of a plurality of data types, wherein a number of sub-slices occupied by a PLP in a logical frame is based on a data type of the PLP, and wherein a sub-slice is defined as a group of adjacent cells. map service data onto multiple physical layer pipes, PLPs, wherein each of the multiple PLPs includes arranged multiple data streams; generate at least one logical frame by mapping the multiple PLPs onto the at least one logical frame, wherein each of the at least one logical frame includes PLPs selected among the multiple PLPs and a first signaling information on the PLPs in each of the at least one logical frame; and generate a physical frame comprising at least a part of a logical channel defined as a sequence of the at least one logical frame and a second signaling information located at a beginning of the physical frame, wherein the second signaling information includes a signaling field indicating a beginning location of a logical frame starting in the physical frame or indicating that no logical frame starts in the physical frame; and a transmitter arranged to transmit the physical frame using the wireless broadcast system, wherein each of the at least one logical frame comprise PLPs of a plurality of data types, wherein a number of sub-slices occupied by a PLP in a logical frame is based on a data type of the PLP, and wherein a sub-slice is defined as a group of adjacent cells.
A mixing device for mixing an exhaust gas stream of a gas engine prior to treatment thereof, the mixing device comprising: a chamber including a main body, an inlet, and a flow axis, the main body configured for containing a fluid circulating generally along the flow axis, the inlet configured to receive at least one exhaust gas stream (34 134) and being oriented in a flow plane generally perpendicular to the flow axis; and a plurality of mixing channels that each receive portions of the at least one exhaust gas stream from the inlet, the plurality of mixing channels each oriented along the flow plane and having unequal distinct lengths configured to release the portions of the at least one exhaust gas stream (34 138) into the chamber at discrete time intervals; characterized in that the mixing device further comprises a flow strainer that is positioned within the chamber, and wherein the flow strainer is in fluid communication with the plurality of mixing channels to receive the portions of the at least one exhaust gas stream (34, 134). a chamber including a main body, an inlet, and a flow axis, the main body configured for containing a fluid circulating generally along the flow axis, the inlet configured to receive at least one exhaust gas stream (34 134) and being oriented in a flow plane generally perpendicular to the flow axis; and a plurality of mixing channels that each receive portions of the at least one exhaust gas stream from the inlet, the plurality of mixing channels each oriented along the flow plane and having unequal distinct lengths configured to release the portions of the at least one exhaust gas stream (34 138) into the chamber at discrete time intervals;
A wireless sensor assembly comprising: a housing defining a first aperture and a second aperture; a first communication port provided at the first aperture and configured to communicably couple to an external sensor; an external communication device; a second communication port provided at the second aperture and configured to physically connect to the external communication device; a wireless power source disposed in the housing; and one or more electronics configured to receive power from the wireless power source and to acquire data from the external sensor, the one or more electronics includes a wireless module operable to form a wireless communication link, characterized in that the one or more electronics is configured to transmit the acquired data to an external computing device wirelessly by the wireless module or by the second communication port when the external communication device is inserted into the second communication port, the external communication device being a wire harness or a removable dongle, the one or more electronics including a circuitry to disable a wireless communication component of the wireless module when the wire harness is inserted into the second communication port, and wherein when the wire harness or the removable dongle is inserted into the second communication port, the acquired data is transmitted to the external computing device using the second communication port. characterized in that the one or more electronics is configured to transmit the acquired data to an external computing device wirelessly by the wireless module or by the second communication port when the external communication device is inserted into the second communication port, the external communication device being a wire harness or a removable dongle, the one or more electronics including a circuitry to disable a wireless communication component of the wireless module when the wire harness is inserted into the second communication port, and wherein when the wire harness or the removable dongle is inserted into the second communication port, the acquired data is transmitted to the external computing device using the second communication port.
A method of operation of a wireless device in a cellular communications network, comprising: receiving an uplink grant in a Transmission Time Interval, TTI, n; determining an uplink scheduling timing l based on a configured Time Division Duplexing, TDD, uplink/downlink configuration; and transmitting, in a TTI n + l, an uplink transmission in accordance with the uplink grant received in the TTI n; wherein the uplink scheduling timing l is a number of TTIs that is a smallest integer number of TTIs larger than or equal to a predefined minimum uplink scheduling timing value such that n + l is an uplink TTI and the predefined minimum uplink scheduling timing value is 2 or 3. receiving an uplink grant in a Transmission Time Interval, TTI, n; determining an uplink scheduling timing l based on a configured Time Division Duplexing, TDD, uplink/downlink configuration; and transmitting, in a TTI n + l, an uplink transmission in accordance with the uplink grant received in the TTI n; wherein the uplink scheduling timing l is a number of TTIs that is a smallest integer number of TTIs larger than or equal to a predefined minimum uplink scheduling timing value such that n + l is an uplink TTI and the predefined minimum uplink scheduling timing value is 2 or 3.
A dialysis system (10, 200), comprising: a dialysis machine; and a module (20, 220) fluidly coupled to the dialysis machine so that, during dialysis, spent dialysis solution is moved from the dialysis machine into the module where it passes through a sorbent cartridge device, recycled dialysis solution exiting the sorbent cartridge device then being moved back to the dialysis machine, wherein the module comprises the sorbent cartridge device configured so that a dialysis solution can pass therethrough, the sorbent cartridge device being adapted to remove one or more substances from the dialysis solution as the dialysis solution passes through the sorbent cartridge device, a fluid line (106, 265) connected to the sorbent cartridge device, the fluid line being arranged so that solution exiting the sorbent cartridge device passes through the fluid line, and a sodium control system in fluid communication with the fluid line, the sodium control system being adapted to introduce a diluent or sodium into the fluid line to alter a sodium concentration of solution passing through the fluid line, and a sorbent cartridge device holder that can be arranged in a first configuration to allow fluid to pass through the sorbent cartridge device or in a second configuration to allow fluid to pass from a first portion of the sorbent cartridge device holder to a second portion of the sorbent cartridge device holder without passing through the sorbent cartridge device. a dialysis machine; and a module (20, 220) fluidly coupled to the dialysis machine so that, during dialysis, spent dialysis solution is moved from the dialysis machine into the module where it passes through a sorbent cartridge device, recycled dialysis solution exiting the sorbent cartridge device then being moved back to the dialysis machine, wherein the module comprises
A concentration-difference power generation apparatus in which high-concentration water and low-concentration water which differ in their concentrations are brought into contact with each other through a semi-permeable membrane unit comprising a semi-permeable membrane, and a resultant increase in an amount of the high-concentration water due to permeation of water from a low-concentration side to a high-concentration side caused by a forward osmotic pressure is utilized to drive an electric generator to generate electricity, wherein the semi-permeable membrane unit is divided into a plurality of subunits (8, 12) and comprises a high-concentration-side intermediate channel and a low-concentration-side intermediate channel which connect the subunits (8, 12), and the concentration-difference power generation apparatus comprises a pressure change mechanism disposed on at least one of the high-concentration-side intermediate channel and the low-concentration-side intermediate channel.
An integrated circuit, comprising: a substrate; an active region formed within the substrate; a plurality of collector regions formed within the active region; a plurality of emitter regions formed within the active region; and a local interconnect layer, LIL, contacting the plurality of emitter regions and the plurality of collector regions, the LIL including: LIL cooling fin contacts formed on the collector regions to enhance the current handling capacity of the collector regions; a LIL contact formed on the active region on the emitter regions, the LIL contact having a length in a direction parallel to a direction of the current flow between emitter and collector regions which is smaller than a length of the LIL cooling fin contacts; a plurality of collector contacts; and a plurality of emitter contacts, wherein each LIL cooling fin contact has a corresponding collector contact formed atop the respective LIL cooling fin contact, and each LIL contact has a corresponding emitter contact formed atop the respective LIL contact, wherein the emitter regions and collector regions are formed in an alternating manner so that current flow between the emitter regions and the collector regions is in a lateral direction. a substrate; an active region formed within the substrate; a plurality of collector regions formed within the active region; a plurality of emitter regions formed within the active region; and a local interconnect layer, LIL, contacting the plurality of emitter regions and the plurality of collector regions, the LIL including: LIL cooling fin contacts formed on the collector regions to enhance the current handling capacity of the collector regions; a LIL contact formed on the active region on the emitter LIL cooling fin contacts formed on the collector regions to enhance the current handling capacity of the collector regions; a LIL contact formed on the active region on the emitter regions, the LIL contact having a length in a direction parallel to a direction of the current flow between emitter and collector regions which is smaller than a length of the LIL cooling fin contacts; a plurality of collector contacts; and a plurality of emitter contacts, wherein each LIL cooling fin contact has a corresponding collector contact formed atop the respective LIL cooling fin contact, and each LIL contact has a corresponding emitter contact formed atop the respective LIL contact, wherein the emitter regions and collector regions are formed in an alternating manner so that current flow between the emitter regions and the collector regions is in a lateral direction.
A method for authenticating a terminal (101, 201) of a user when using a service provided by a target system via a connection network (300, 400, 500), wherein - a request for using the service sent by the user via the terminal (101, 201) connected to a communication network (100, 200) is captured in the connection network (300, 400, 500), metadata is extracted from the captured request by a routing unit of the connection network (300, 400, 500) and the metadata is forwarded by the routing unit to a certification service of the connection network; - the certification service receives the metadata and provides the metadata together with an identifier (102, 204) unique to the terminal (101, 201) to a certificate creation unit; - the certificate creation unit creates a certificate for the unique identifier (102, 204) by means of the provided metadata and provides it to the certification service; - the routing unit connected to the certification service attaches the certificate to the request and transmits it to the target system; - the target system authenticates the terminal (101, 201) sending the request by means of the certificate. - a request for using the service sent by the user via the terminal (101, 201) connected to a communication network (100, 200) is captured in the connection network (300, 400, 500), metadata is extracted from the captured request by a routing unit of the connection network (300, 400, 500) and the metadata is forwarded by the routing unit to a certification service of the connection network; - the certification service receives the metadata and provides the metadata together with an identifier (102, 204) unique to the terminal (101, 201) to a certificate creation unit; - the certificate creation unit creates a certificate for the unique identifier (102, 204) by means of the provided metadata and provides it to the certification service; - the routing unit connected to the certification service attaches the certificate to the request and transmits it to the target system; - the target system authenticates the terminal (101, 201) sending the request by means of the certificate.
A method for power management of a system comprising a processor, a power supply and a first storage medium and a second non-volatile storage medium having first and second data access times respectively such that the first data access time is less than the second data access time; the system being operable in a plurality of states, each state having an associated level of system power consumption, the method comprising the steps of: saving (404, 406) data representing a current system context, to allow a transition to a first state of the plurality of states from a second state of the plurality of states, to both the first and second storage media (104, 106); placing the system in the second state; recovering the data from the first storage medium in response to the detection of an event while the system is in the second state or, in the event that the power supply, while in the second state, failed to supply sufficient power to the system to maintain the second state, recovering the data from the second storage medium; restoring the system context using the recovered data; and characterised by resuming, after restoring the system context after a power supply failure, the second state of the plurality of states. saving (404, 406) data representing a current system context, to allow a transition to a first state of the plurality of states from a second state of the plurality of states, to both the first and second storage media (104, 106); placing the system in the second state; recovering the data from the first storage medium in response to the detection of an event while the system is in the second state or, in the event that the power supply, while in the second state, failed to supply sufficient power to the system to maintain the second state, recovering the data from the second storage medium; restoring the system context using the recovered data; and characterised by resuming, after restoring the system context after a power supply failure, the second state of the plurality of states.
Gastric probe which can be inserted via the nose of a patient, with a feed hose for nasoenteral feeding of the patient and/or for removal of gastric juice, characterized in that a suction hose which is secured to the feed hose has, at a distal end, a suction portion with a number of openings and is arranged in such a way that, in an inserted state, the suction portion is placed in the pharynx of the patient in order to suction saliva from the pharynx.
A print protection method, adapted to a three-dimensional printing apparatus, and the three-dimensional printing apparatus comprising a trigger circuit (120, 420), a control device, a peripheral device, a print head and a storage device, the method comprising: when a system voltage of the three-dimensional printing apparatus is reduced from a normal voltage to a first threshold voltage and lower than the first threshold voltage, generating a trigging signal to the control device by the trigger circuit (120, 420); recording a position data of a current position of the print head into the storage device by the control device according to the trigging signal after the system voltage is lower than the first threshold voltage; and completely shutting down operation of the peripheral device and the print head by the control device according to the trigging signal after the system voltage is lower than a second threshold voltage, so that the control device is continuously operated by a remaining power after the system voltage is lower than the second threshold voltage, wherein the second threshold voltage is lower than the first threshold voltage. when a system voltage of the three-dimensional printing apparatus is reduced from a normal voltage to a first threshold voltage and lower than the first threshold voltage, generating a trigging signal to the control device by the trigger circuit (120, 420); recording a position data of a current position of the print head into the storage device by the control device according to the trigging signal after the system voltage is lower than the first threshold voltage; and completely shutting down operation of the peripheral device and the print head by the control device according to the trigging signal after the system voltage is lower than a second threshold voltage, so that the control device is continuously operated by a remaining power after the system voltage is lower than the second threshold voltage, wherein the second threshold voltage is lower than the first threshold voltage.
Electric tool having a machine housing (12a-e) and a ventilation unit (14a-e) which is provided to cool a motor unit (16a-e) and/or electronic unit (18a-e) enclosed by the machine housing (12a-e) by drawing in a cooling air stream (20a-e), and which has a deflection unit (22a-e), characterized in that, in order to provide virtually dust-free and/or dirt-free cooling air for cooling the motor unit (16a-e) and/or the electronic unit (18a-e), the deflection unit (22a-e) has at least one deflection duct (24a-e) which is provided to separate dirt particles (26a-e) and air (28a-e) of the cooling air stream (20a-e) by means of deflection of the cooling air stream (20a-e).
High pressure pipe coupling construction, comprising a high pressure pipe as well as a coupling connected to the pipe at a pipe end thereof, said pipe comprising a reinforcement layer of helically arranged fibers (6, 7), said coupling comprising an inner sleeve sealed with respect to the inner surface of the pipe, a metallic outer sleeve connected to the outer surface of the pipe, a mounting means, a metallic force transfer fitting beyond the pipe end, which force transfer fitting is connected to said outer sleeve and to the mounting means located at the end of the force transfer fitting which faces away from the outer sleeve, characterized in that the inner sleeve is a non-metallic sleeve and extends through the metallic force transfer fitting and through the mounting means and has a seal fitting at the end of the mounting means which faces away from the pipe.
Retroviral particle comprising a protein derived from the Gag polyprotein, an envelope protein, optionally an integrase and at least two encapsidated non-viral RNAs, the encapsidated non-viral RNAs each comprising an RNA sequence of interest bound to an encapsidation sequence, each encapsidation sequence being recognized by a heterologous binding domain introduced into the protein derived from the Gag polyprotein and/or into the integrase, in which the at least two encapsidated non-viral RNAs are distinguished by their sequence of interest: - at least one of said sequences of interest of the encapsidated non-viral RNAs comprising a part coding a nuclease selected from the group constituted by the nucleases associated with the CRISPR system, and - the sequence of interest of the other encapsidated non-viral RNA corresponding to at least one recognition element of a guide RNA. - at least one of said sequences of interest of the encapsidated non-viral RNAs comprising a part coding a nuclease selected from the group constituted by the nucleases associated with the CRISPR system, and - the sequence of interest of the other encapsidated non-viral RNA corresponding to at least one recognition element of a guide RNA.