mhurhangee/ep-ind-claims huggingface dataset:
A terminal configured to receive information indicating whether or not sequence based physical uplink control channels, PUCCHs, of different terminals are multiplexed by using different cyclic shifts, said terminal comprising: a control section configured to, when said information indicates that UE multiplexing is performed, determine a specific cyclic shift candidate associated with a specific candidate value of a plurality of candidate values of a Hybrid Automatic Repeat reQuest-Acknowledgement, HARQ-ACK, based on a parameter notified from a base station, determine at least one cyclic shift candidate associated with at least one other candidate values of the plurality of candidate values based on the specific cyclic shift candidate, determine a cyclic shift associated with a value of the HARQ-ACK, from among a plurality of cyclic shift candidates including the specific cyclic shift candidate and the at least one cyclic shift candidate, and generate a sequence based on the cyclic shift; and said terminal further comprising a transmission section configured to transmit the sequence on an uplink control channel, characterized in that, when no terminal multiplexing is not explicitly notified, the control section is configured to determine the plurality of cyclic shift candidates based on a slot number of the uplink control channel. a control section configured to, when said information indicates that UE multiplexing is performed, determine a specific cyclic shift candidate associated with a specific candidate value of a plurality of candidate values of a Hybrid Automatic Repeat reQuest-Acknowledgement, HARQ-ACK, based on a parameter notified from a base station, determine at least one cyclic shift candidate associated with at least one other candidate values of the plurality of candidate values based on the specific cyclic shift candidate, determine a cyclic shift associated with a value of the HARQ-ACK, from among a plurality of cyclic shift candidates including the specific cyclic shift candidate and the at least one cyclic shift candidate, and generate a sequence based on the cyclic shift; and said terminal further comprising when said information indicates that UE multiplexing is performed, determine a specific cyclic shift candidate associated with a specific candidate value of a plurality of candidate values of a Hybrid Automatic Repeat reQuest-Acknowledgement, HARQ-ACK, based on a parameter notified from a base station, determine at least one cyclic shift candidate associated with at least one other candidate values of the plurality of candidate values based on the specific cyclic shift candidate, determine a cyclic shift associated with a value of the HARQ-ACK, from among a plurality of cyclic shift candidates including the specific cyclic shift candidate and the at least one cyclic shift candidate, and generate a sequence based on the cyclic shift; and said terminal further comprising a transmission section configured to transmit the sequence on an uplink control channel,
A method for making a net patterned adhesive layer for adhesion to the skin of a living being, which net patterned adhesive layer defines net with a predetermined pattern comprising adhesive zones spaced apart by spaces, the method comprising the steps of: - providing a pressure sensitive adhesive in liquid form onto a support surface, the adhesive having an initial viscosity of 0.5 - 100 Pa·s, - providing a release liner on the adhesive, - characterized in that - a moulding tool defining an inverse pattern which is inverse relative to the predetermined pattern is forced on to an application area of the adhesive so as to define the predetermined pattern in the adhesive while the adhesive is in liquid form, - allowing at least the outer surfaces of the adhesive in the application area to become form-stable by applying curing energy to the application area, at least a part of the curing energy being applied by means of the moulding tool; and - removing the moulding tool from the application area. - providing a pressure sensitive adhesive in liquid form onto a support surface, the adhesive having an initial viscosity of 0.5 - 100 Pa·s, - providing a release liner on the adhesive, - characterized in that - a moulding tool defining an inverse pattern which is inverse relative to the predetermined pattern is forced on to an application area of the adhesive so as to define the predetermined pattern in the adhesive while the adhesive is in liquid form, - allowing at least the outer surfaces of the adhesive in the application area to become form-stable by applying curing energy to the application area, at least a part of the curing energy being applied by means of the moulding tool; and - removing the moulding tool from the application area.
Process for the preparation of C 2 - to C 4 -olefins, preferably propylene, from a feed stream comprising vapour-form oxygenates, preferably methanol and/or dimethyl ether, and steam and having a temperature of from 280 to 480°C, which is passed through at least one fixed-bed zone arranged in a reactor and formed from a bed of granular, shape-selective zeolite catalyst of the pentasil type, and the oxygenates are catalytically converted into olefins with high selectivity for low olefins at a reaction temperature of from 350 to 550°C, preferably 420°C to 490°C, and the reaction mixture exiting the reactor is cooled in a cooler, so that water and hydrocarbons, in particular petrol, condense out, and said reaction mixture is separated in a separator into a first product stream comprising C 2 - to C 3 -olefins, into a second product stream comprising C 4+ -olefins and into a third product stream comprising aqueous oxygenates, wherein propylene is separated from the first product stream by distillation and discharged from the process as main product, and wherein the third product stream comprising aqueous oxygenates is discharged from the process, characterised in that a reaction pressure of from 1.0 to 3.0 bara prevails at the inlet of the feed stream into the fixed-bed zone and a reaction pressure of from 0.5 to 2.0 bara prevails at the outlet of the reaction mixture from the fixed-bed zone, and the temperature of the catalytic conversion is regulated in accordance with a target temperature value in the range from 440 to 520°C specified for the reaction mixture exiting the fixed-bed zone by means of a supplementary stream introduced into the feed stream and consisting of olefins and inert gas components, wherein the second product stream comprising C 4+ -olefins is separated by distillation into a stream comprising C 6 -olefins and into a stream comprising C 7 -olefins, wherein the C 7 -olefins are discharged from the process and the C 6 -olefins of the second product stream are combined with the inert gas components and the ethylene of the first product stream and recycled into the feed stream as supplementary stream, wherein the temperature of the feed stream at the inlet into the fixed-bed zone is determined and compared with the target temperature value for the reaction mixture exiting the fixed-bed zone and thus the temperature of the feed stream is influenced by the supplementary stream introduced into the feed stream with respect to the temperature of the catalytic conversion.
Switch device for a cooking appliance comprising a cooking chamber that can be closed by a door, the device comprising at least one switch (4, 6, 8), an actuation unit for actuating the switch (4, 6, 8) and a coupling unit for coupling the actuation unit to two plungers of the door, the coupling unit having a separate slide (16, 18) for each plunger, characterised in that the two slides (16, 18) are coupled to one another by means of a coupling element such that the actuation unit actuates the switch (4, 6, 8) on the basis of a simultaneous actuation of the two slides (16, 18) by means of the two plungers.
Method for controlling an exhaust gas recirculation system of a combustion engine having at least one combustion chamber, wherein the combustion chamber comprises at least one inlet valve which, in the open state, connects an inlet channel to the combustion chamber, wherein the combustion chamber comprises at least one outlet valve which, in the open state, connects the combustion chamber to an outlet channel, wherein an internal exhaust gas recirculation (IEGR) is provided and wherein an external exhaust gas recirculation (EEGR) is provided, wherein the method relates to the control of the exhaust gas recirculation rate (EGR rate), which is composed of an internal exhaust gas recirculation rate (IEGR rate) and an external exhaust gas recirculation rate (EEGR rate), and wherein the internal exhaust gas recirculation is switchable at least in two discrete stages between an activated state and a partially activated or deactivated state by a switching operation, characterized in that with suitable means, the charging pressure is at least partially increased in an adaptation period (a), wherein the adaptation period (a) is at least partially temporally prior to a switching operation by which the IEGR rate has a jump, as a result of the switching operation, into the partially activated or deactivated state.
An air fryer with an atmosphere light assembly, characterized in that, comprising at least: an upper housing assembly, wherein the upper housing assembly comprises a ring-shaped upper housing, the upper housing encloses a first chamber, and the upper housing is made of transparent material; and an atmosphere light assembly, characterized in that the atmosphere light assembly comprises a ring-shaped lightshade located within the first chamber, an LED light strip wound around a bottom of an outer perimeter of the lightshade, and a circuit board electrically connected to the LED light strip; and a plurality of light guiding columns are provided on an upper ring of an outer side wall of the lightshade. an upper housing assembly, wherein the upper housing assembly comprises a ring-shaped upper housing, the upper housing encloses a first chamber, and the upper housing is made of transparent material; and an atmosphere light assembly, characterized in that the atmosphere light assembly comprises a ring-shaped lightshade located within the first chamber, an LED light strip wound around a bottom of an outer perimeter of the lightshade, and a circuit board electrically connected to the LED light strip; and the atmosphere light assembly comprises a ring-shaped lightshade located within the first chamber, an LED light strip wound around a bottom of an outer perimeter of the lightshade, and a circuit board electrically connected to the LED light strip; and
Method for the configuring of an automation system which includes a machine control, at least one control unit connected to the machine control, actuator controls, in particular motor control devices, connected to the control unit or units, also actuators connected to the actuator controls, wherein the machine control is located in a command level and outputs control commands to the control unit and wherein the control unit with the actuator controls and the actuators connected thereto form a field level in which the control commands are converted into actuator movements, with the steps: creation of a communications link between a display and input device and one of the actuator controls, provision of presettable information from the actuator control to the display and input device, presentation of the presettable information by means of the display and input device, input of an actuator code of the actuator or actuators connected to the actuator control to the display and input device, readout of actuator parameters from a parameter memory by means of the display and input device with the aid of the actuator code, provision of the selected actuator parameters from the display and input device to the actuator controls, processing of the actuator parameters in the actuator control, severing of the communications link between the display and input device and the actuator control, wherein the presettable information in the actuator control is stored in a web server and is provided by the web server to a web browser which may be executed in the display and input device, which displays the presettable information for a user and permits input of the actuator code and undertakes readout of the actuator parameters from the parameter memory and effects transmission of the actuator parameters to the actuator control and wherein a communication is made between the machine control and the control unit in accordance with a presettable command level communication protocol and between the control unit and the actuator controls connected thereto in accordance with the I/O-link communication protocol.
A method for the production of sodium bicarbonate, the method comprising the steps of: a. treating a carbonaceous feedstock to form a product stream comprising up to 10 v/v% carbon dioxide; b. capturing at least a portion of the carbon dioxide from the product stream to form a carbon dioxide stream, wherein capturing the carbon dioxide from the product stream to form the carbon dioxide stream comprises the steps of: i. contacting the product stream with a solvent; ii. absorbing carbon dioxide from the product stream into the solvent to form a carbon dioxide enriched solvent; and iii. desorbing carbon dioxide from the carbon dioxide enriched solvent to form the carbon dioxide stream; c. feeding the carbon dioxide stream to a reaction vessel; d. feeding an aqueous sodium carbonate solution to the reaction vessel; e. contacting at least a portion of the carbon dioxide stream with at least a portion of the aqueous sodium carbonate solution to form a slurry comprising solid sodium bicarbonate; and f. separating the solid component of the slurry from the liquid component of the slurry to provide solid sodium bicarbonate and an aqueous liquor. a. treating a carbonaceous feedstock to form a product stream comprising up to 10 v/v% carbon dioxide; b. capturing at least a portion of the carbon dioxide from the product stream to form a carbon dioxide stream, wherein capturing the carbon dioxide from the product stream to form the carbon dioxide stream comprises the steps of: i. contacting the product stream with a solvent; ii. absorbing carbon dioxide from the product stream into the solvent to form a carbon dioxide enriched solvent; and iii. desorbing carbon dioxide from the carbon dioxide enriched solvent to form the carbon dioxide stream; i. contacting the product stream with a solvent; ii. absorbing carbon dioxide from the product stream into the solvent to form a carbon dioxide enriched solvent; and iii. desorbing carbon dioxide from the carbon dioxide enriched solvent to form the carbon dioxide stream; c. feeding the carbon dioxide stream to a reaction vessel; d. feeding an aqueous sodium carbonate solution to the reaction vessel; e. contacting at least a portion of the carbon dioxide stream with at least a portion of the aqueous sodium carbonate solution to form a slurry comprising solid sodium bicarbonate; and f. separating the solid component of the slurry from the liquid component of the slurry to provide solid sodium bicarbonate and an aqueous liquor.
An image decrypting apparatus for decrypting an encrypted image using a decryption key, comprising: an encrypted image determining unit that detects determination information is added to the encrypted image and determines whether the encrypted image is an image passed through only a digital medium or an image passed through an analog medium based on the determination information, the encrypted image passed through the analog medium being more degraded than the encrypted image passed through only the digital medium; and a decryption process selecting unit that selects a reverse operation process of encryption as a digital decryption process when the encrypted image is determined to be the image passed through only the digital medium, the decryption process selecting unit switching to perform an interpolating process of pixel values as an analog decryption process when the encrypted image is determined to be the image passed through the analog medium. an encrypted image determining unit that detects determination information is added to the encrypted image and determines whether the encrypted image is an image passed through only a digital medium or an image passed through an analog medium based on the determination information, the encrypted image passed through the analog medium being more degraded than the encrypted image passed through only the digital medium; and a decryption process selecting unit that selects a reverse operation process of encryption as a digital decryption process when the encrypted image is determined to be the image passed through only the digital medium, the decryption process selecting unit switching to perform an interpolating process of pixel values as an analog decryption process when the encrypted image is determined to be the image passed through the analog medium.
An apparatus comprising: a link unit; and a drive unit configured to drive the link unit; wherein the link unit comprises: a first link; a second link rotatably coupled to the first link; a third link rotatably coupled to the second link; a plurality of wires (140; 150), each of which is fixed at one end thereof to the third link, and is connected at the other end thereof to the drive unit, and through which a driving force is transmitted from the drive unit to the third link; a path forming structure configured to define for each of the wires a path between the drive unit and the third link; and a length holding structure configured to hold substantially constant a length that each of the wires extends between the drive unit and the third link, for a given position of the third link with respect to the second link, independent of rotation of the second link with respect to the first link, wherein the second link is rotatably coupled to the first link by means of a first rotation shaft and the first link comprises a second rotation shaft, and the path forming structure comprises: a first pulley rotatably coupled to the first rotation shaft; a second pulley rotatably coupled to the second rotation shaft; and a third pulley rotatably coupled to the second rotation shaft, CHARACTERISED BY a pair of fourth pulleys (168a; 168b) rotatably coupled to the second pulley. a link unit; and a drive unit configured to drive the link unit; a first link; a second link rotatably coupled to the first link; a third link rotatably coupled to the second link; a plurality of wires (140; 150), each of which is fixed at one end thereof to the third link, and is connected at the other end thereof to the drive unit, and through which a driving force is transmitted from the drive unit to the third link; a path forming structure configured to define for each of the wires a path between the drive unit and the third link; and a length holding structure configured to hold substantially constant a length that each of the wires extends between the drive unit and the third link, for a given position of the third link with respect to the second link, independent of rotation of the second link with respect to the first link, wherein the second link is rotatably coupled to the first link by means of a first rotation shaft and the first link comprises a second rotation shaft, and the path forming structure comprises: a first pulley rotatably coupled to the first rotation shaft; a second pulley rotatably coupled to the second rotation shaft; and a third pulley rotatably coupled to the second rotation shaft, a first pulley rotatably coupled to the first rotation shaft; a second pulley rotatably coupled to the second rotation shaft; and a third pulley rotatably coupled to the second rotation shaft, CHARACTERISED BY a pair of fourth pulleys (168a; 168b) rotatably coupled to the second pulley.
A gas turbine engine comprising: a core engine; a fan mechanically coupled to the core engine; an electric motor drivingly connected to at least one of the core engine and the fan; and characterized by further comprising a chemically rechargeable ultra-capacitor for providing the electric motor with a substantially continuous flow of electric energy during operation of the chemically rechargeable ultra-capacitor; wherein the chemically rechargeable ultra-capacitor comprises a first cell portion having a first catalytic electrode and a second cell portion having a second catalytic electrode, wherein the chemically rechargeable ultra-capacitor is in communication with a first reactant supply and a second reactant supply, and wherein the chemically rechargeable ultra-capacitor enables the first and second reactant supplies (206, 208) to selectively communicate with the first catalytic electrode of the first cell portion and the second catalytic electrode of the second cell portion; the gas turbine engine further comprising: a fuel tank; and a reformer in flow communication with the fuel tank and the chemically rechargeable ultra-capacitor, wherein the reformer is configured to receive a flow of fuel from the fuel tank and provide a flow of the first reactant to the chemically rechargeable ultra-capacitor, wherein said first reactant flow is a flow of at least one of hydrogen, syngas, or reformate. a core engine; a fan mechanically coupled to the core engine; an electric motor drivingly connected to at least one of the core engine and the fan; and characterized by further comprising a chemically rechargeable ultra-capacitor for providing the electric motor with a substantially continuous flow of electric energy during operation of the chemically rechargeable ultra-capacitor; wherein the chemically rechargeable ultra-capacitor comprises a first cell portion having a first catalytic electrode and a second cell portion having a second catalytic electrode, wherein the chemically rechargeable ultra-capacitor is in communication with a first reactant supply and a second reactant supply, and wherein the chemically rechargeable ultra-capacitor enables the first and second reactant supplies (206, 208) to selectively communicate with the first catalytic electrode of the first cell portion and the second catalytic electrode of the second cell portion; a fuel tank; and a reformer in flow communication with the fuel tank and the chemically rechargeable ultra-capacitor, wherein the reformer is configured to receive a flow of fuel from the fuel tank and provide a flow of the first reactant to the chemically rechargeable ultra-capacitor, wherein said first reactant flow is a flow of at least one of hydrogen, syngas, or reformate.