mhurhangee/ep-ind-claims huggingface dataset:
A steering controller configured to control a steering system including a switching device configured to perform switching between a transmission state where power transmission from a steering wheel to steered wheels is allowed and an interruption state where power transmission from the steering wheel to the steered wheels is interrupted, a reaction-force actuator configured to apply a steering reaction force to the steering wheel in the interruption state, and a steered operation actuator configured to steer the steered wheels, the steering controller comprising: a memory configured to store control software; and a hardware device configured to execute the control software, characterized in that when an absolute value of a steering angle (θh) achieved by an operation of the steering wheel has reached a first threshold value (θ1) in the interruption state, the steering controller executes a limitation process of operating the reaction-force actuator so as to apply, to the steering wheel, a limiting reaction force that is a reaction force for suppressing the absolute value of the steering angle (θh) from further increasing, and when the absolute value of the steering angle (θh) has become equal to or larger than a second threshold value (θ2) that is larger than the first threshold value (θ1), the steering controller executes a transmission process of operating the switching device so as to execute switching from the interruption state to the transmission state. a memory configured to store control software; and a hardware device configured to execute the control software, characterized in that when an absolute value of a steering angle (θh) achieved by an operation of the steering wheel has reached a first threshold value (θ1) in the interruption state, the steering controller executes a limitation process of operating the reaction-force actuator so as to apply, to the steering wheel, a limiting reaction force that is a reaction force for suppressing the absolute value of the steering angle (θh) from further increasing, and when the absolute value of the steering angle (θh) has become equal to or larger than a second threshold value (θ2) that is larger than the first threshold value (θ1), the steering controller executes a transmission process of operating the switching device so as to execute switching from the interruption state to the transmission state.
Particles of an amine-functionalised polyaryletherketone polymer, or imide- or sulphone-copolymer thereof and amine-protected analogues thereof, obtained or obtainable by a method comprising the step of polymerising a monomer system in a reaction medium comprising: (i) a capping agent comprising -NR 2, -NRH or a protected amine group, where R is independently an aliphatic or aromatic group; (ii) a Lewis acid; and (iii) and a controlling agent comprising an aromatic carboxylic acid, an aromatic sulphonic acid, or a derivative thereof, wherein said particles are substantially spherical in shape with an aspect ratio of 1 to 1.5. (i) a capping agent comprising -NR 2, -NRH or a protected amine group, where R is independently an aliphatic or aromatic group; (ii) a Lewis acid; and (iii) and a controlling agent comprising an aromatic carboxylic acid, an aromatic sulphonic acid, or a derivative thereof,
A tube assembly for a tube-type heat exchanger, HE, device, wherein the tube assembly comprises a plurality of tubes, wherein each tube is formed by a bounding wall that surrounds a flow passage along a nominal axis in a first direction, the bounding wall having two lateral wall portions (440, 441) on opposite sides along the flow passage, and two further wall portions (442, 443) on further opposite sides along the flow passage; wherein the tubes are adjacently arranged into tube rows (432a, 432b) that co-extend along the first direction to define first fluid channels the tube rows being mutually spaced along a third direction to define second fluid channels between adjacent pairs of tube rows; wherein at least one tube row is formed of tubes (430a2, 430a3) that are consecutively arranged along a second direction, so that the lateral wall portions (440, 441) of the tubes adjoin, and that the further wall portions (442, 443) of the tubes jointly define outer surfaces that border respective second fluid channels; characterized in that the further wall portions (442, 443) of the tubes in the at least one row comprise medial wall regions that are displaced along the third direction and away from the nominal axis, to define local widenings of the flow passages relative to the lateral wall portions (440, 441) and local narrowings of the second fluid channel in order to confer an undulated shape upon the outer surfaces (444, 445) bordering the second fluid channel. wherein the tubes are adjacently arranged into tube rows (432a, 432b) that co-extend along the first direction to define first fluid channels the tube rows being mutually spaced along a third direction to define second fluid channels between adjacent pairs of tube rows; wherein at least one tube row is formed of tubes (430a2, 430a3) that are consecutively arranged along a second direction, so that the lateral wall portions (440, 441) of the tubes adjoin, and that the further wall portions (442, 443) of the tubes jointly define outer surfaces that border respective second fluid channels; characterized in that the further wall portions (442, 443) of the tubes in the at least one row comprise medial wall regions that are displaced along the third direction and away from the nominal axis, to define local widenings of the flow passages relative to the lateral wall portions (440, 441) and local narrowings of the second fluid channel in order to confer an undulated shape upon the outer surfaces (444, 445) bordering the second fluid channel.
Method of operating an individual beverage machine from a plurality of beverage machines, particularly hot beverage machines, preferably coffee machines, each an operator display and each with a communications unit, by means of a mobile apparatus with a communications unit, wherein each of the beverage machines is constructed for establishing communications connections with several mobile apparatus, characterised by the following method steps: a) providing a recipe or several recipes, which is or are personalised to a user, for a hot or cold beverage, particularly for a hot beverage, as a data set on the respective mobile apparatus; b) automatic creation of a communications connection between one of the beverage machines - in the case of approach to this beverage machine - and the respective mobile apparatus; c) transmitting the data set of the personalised recipe or the several personalised recipes of the hot or cold beverage to the beverage machine; d) temporary storage of the data set at the data memory of the beverage machine; e) display of the personalised recipe or the personalised recipes as a selection option or selection options on the operator display of the beverage machine; f) triggering a preparation process at the beverage machine with selection of the personalised recipe or one of the personalised recipes; and g) preparing and delivering the personalised beverage, and h) erasing the data set from the data memory of the beverage machine, particularly after interruption of the communications connection, i) wherein the beverage machine after establishing a communications connection in step f) frees a selection field on the operator display, wherein the personalised recipe or personalised recipes is or are displayed by manual activation of this selection field. a) providing a recipe or several recipes, which is or are personalised to a user, for a hot or cold beverage, particularly for a hot beverage, as a data set on the respective mobile apparatus; b) automatic creation of a communications connection between one of the beverage machines - in the case of approach to this beverage machine - and the respective mobile apparatus; c) transmitting the data set of the personalised recipe or the several personalised recipes of the hot or cold beverage to the beverage machine; d) temporary storage of the data set at the data memory of the beverage machine; e) display of the personalised recipe or the personalised recipes as a selection option or selection options on the operator display of the beverage machine; f) triggering a preparation process at the beverage machine with selection of the personalised recipe or one of the personalised recipes; and g) preparing and delivering the personalised beverage, and h) erasing the data set from the data memory of the beverage machine, particularly after interruption of the communications connection, i) wherein the beverage machine after establishing a communications connection in step f) frees a selection field on the operator display, wherein the personalised recipe or personalised recipes is or are displayed by manual activation of this selection field.
A temperature control apparatus for a shaping tool or components of a shaping working machine comprising - at least two temperature control branches (2, 2', 2") connected to a feed for a temperature control medium, - a pump system including at least one pump for conveying temperature control medium in the feed, - a pump open-loop or closed-loop control device for open-loop or closed-loop control of the delivery output of the pump system, - at least one throttle device in each of the at least two temperature control branches (2, 2', 2") having a variable degree of opening for throttling a quantitative through-flow of the temperature control medium in the at least two temperature control branches (2, 2', 2"), and - an open-loop or closed-loop control device with the degree of opening of the at least two throttle devices as a setting value and with a control variable from the group: degree of opening of the throttle devices, temperature, temperature difference, through-flow, pressure or a physical value to be derived from that group, characterised in that the pump open-loop or closed-loop control device provides for open-loop or closed-loop control of the delivery output of the pump system in dependence on the degrees of opening of the at least two throttle devices. - at least two temperature control branches (2, 2', 2") connected to a feed for a temperature control medium, - a pump system including at least one pump for conveying temperature control medium in the feed, - a pump open-loop or closed-loop control device for open-loop or closed-loop control of the delivery output of the pump system, - at least one throttle device in each of the at least two temperature control branches (2, 2', 2") having a variable degree of opening for throttling a quantitative through-flow of the temperature control medium in the at least two temperature control branches (2, 2', 2"), and - an open-loop or closed-loop control device with the degree of opening of the at least two throttle devices as a setting value and with a control variable from the group: degree of opening of the throttle devices, temperature, temperature difference, through-flow, pressure or a physical value to be derived from that group,
A method of transferring a battery assembly to a battery-powered surgical instrument (2, 102), comprising: releasably engaging a battery jacket with a battery assembly, wherein the battery assembly includes a contact cap; transferring the battery jacket, having the battery assembly engaged thereto, to a battery-powered surgical instrument (2, 102); and releasably engaging the battery jacket with a handle of the battery-powered surgical instrument (2, 102) such that the battery assembly is electrically coupled to the battery-powered surgical instrument (2, 102) and such that the battery jacket and the handle cooperate to enclose the battery assembly therein, wherein the battery jacket includes a closed second end and an open first end, wherein the battery jacket defines a hollow interior accessible through the open first end that is configured to receive the battery assembly, and wherein the open first end of the battery jacket enables the contact cap of the battery assembly to remain exposed once the battery assembly is inserted in the battery jacket prior to releasably engaging the battery jacket with the handle, and wherein one or more locking member(s) are disposed on an exterior surface of the battery jacket, each locking member is configured to releasably engage a corresponding locking slot defined on an interior surface of the handle of the surgical instrument. releasably engaging a battery jacket with a battery assembly, wherein the battery assembly includes a contact cap; transferring the battery jacket, having the battery assembly engaged thereto, to a battery-powered surgical instrument (2, 102); and releasably engaging the battery jacket with a handle of the battery-powered surgical instrument (2, 102) such that the battery assembly is electrically coupled to the battery-powered surgical instrument (2, 102) and such that the battery jacket and the handle cooperate to enclose the battery assembly therein, wherein the battery jacket includes a closed second end and an open first end, wherein the battery jacket defines a hollow interior accessible through the open first end that is configured to receive the battery assembly, and wherein the open first end of the battery jacket enables the contact cap of the battery assembly to remain exposed once the battery assembly is inserted in the battery jacket prior to releasably engaging the battery jacket with the handle, and wherein one or more locking member(s) are disposed on an exterior surface of the battery jacket, each locking member is configured to releasably engage a corresponding locking slot defined on an interior surface of the handle of the surgical instrument.
A gas turbine engine comprising: a compressor section; a combustor section fluidly connected to the compressor section via a primary flowpath; a turbine section fluidly connected to the combustor section via the primary flowpath; a fan mechanically connected to at least one turbine in the turbine section via a shaft, the shaft being supported relative to at least one static structure of the gas turbine engine via a bearing system, the at least one static structure including a fan inlet casing and bearing support defined by an annular body (100; 200; 300) having a radially inward ring (120; 220; 320) connected to a radially outward ring via a plurality of struts, a bearing support portion (140; 240; 340) protruding radially inward from the radially inward ring (120; 220; 320) and including an axially aligned outer flange (142; 242; 342) connected to an axially aligned inner flange (144; 244; 344) via a pedestal (146; 246; 346), the axially aligned outer flange (142; 242; 342) including a radially outward facing contact surface and the axially aligned inner flange (144; 244; 344) including a radially inward facing contact surface, and the fan inlet casing and bearing support is a single unitary structure, wherein the bearing support portion (140; 240; 340) is connected to the radially inward ring (120; 220; 320) via an inlet case flange (160; 260; 360) and further includes a bearing system case (150; 250; 350) connected to the inlet case flange (160; 260; 360) via a plurality of fasteners. a compressor section; a combustor section fluidly connected to the compressor section via a primary flowpath; a turbine section fluidly connected to the combustor section via the primary flowpath; a fan mechanically connected to at least one turbine in the turbine section via a shaft, the shaft being supported relative to at least one static structure of the gas turbine engine via a bearing system, the at least one static structure including a fan inlet casing and bearing support defined by an annular body (100; 200; 300) having a radially inward ring (120; 220; 320) connected to a radially outward ring via a plurality of struts, a bearing support portion (140; 240; 340) protruding radially inward from the radially inward ring (120; 220; 320) and including an axially aligned outer flange (142; 242; 342) connected to an axially aligned inner flange (144; 244; 344) via a pedestal (146; 246; 346), the axially aligned outer flange (142; 242; 342) including a radially outward facing contact surface and the axially aligned inner flange (144; 244; 344) including a radially inward facing contact surface, and the fan inlet casing and bearing support is a single unitary structure, wherein the bearing support portion (140; 240; 340) is connected to the radially inward ring (120; 220; 320) via an inlet case flange (160; 260; 360) and further includes a bearing system case (150; 250; 350) connected to the inlet case flange (160; 260; 360) via a plurality of fasteners.
A gas turbine engine comprising: a plurality of circumferentially-spaced blades including a polymeric coating thereon; and an abradable annular seal circumscribing the blades; wherein: the abradable annular seal includes a composition comprising: a polymeric matrix (68 and a dispersion of a nanolayer material (70; 170) within the polymeric matrix, characterised in that the nanolayer material (70; 170) includes at least one of sheet-structured graphene that has a bonded network of carbon atoms in a 2-dimensional geometry and MXene having a formula M n+1 X n. a plurality of circumferentially-spaced blades including a polymeric coating thereon; and an abradable annular seal circumscribing the blades; wherein: the abradable annular seal includes a composition comprising: a polymeric matrix (68 and a dispersion of a nanolayer material (70; 170) within the polymeric matrix, characterised in that the nanolayer material (70; 170) includes at least one of sheet-structured graphene that has a bonded network of carbon atoms in a 2-dimensional geometry and MXene having a formula M n+1 X n.
A user equipment, UE, comprising: a receiver configured to receive a downlink control information, DCI; a processor configured to determine, based on information contained in the DCI, transmission power of a Demodulation Reference Signal, DM-RS, for Physical Uplink Shared Channel, PUSCH, using a Discrete Fourier Transform-spread-Orthogonal Frequency-Division Multiplexing, DFT-s-OFDM, or a Cyclic Prefix, CP,-OFDM; and a transmitter configured to transmit the DM-RS using the determined transmission power; wherein the processor is configured to control the determination of the transmission power so that the transmission power differs between a case of using the DFT-s-OFDM and a case of using the CP-OFDM; and wherein the processor is configured to control resource elements, REs, in an OFDM symbol where the DM-RS is multiplexed, the resource elements being not multiplexed with the DM-RS in the OFDM symbol are set as Null in the case of using the DFT-s-OFDM. a receiver configured to receive a downlink control information, DCI; a processor configured to determine, based on information contained in the DCI, transmission power of a Demodulation Reference Signal, DM-RS, for Physical Uplink Shared Channel, PUSCH, using a Discrete Fourier Transform-spread-Orthogonal Frequency-Division Multiplexing, DFT-s-OFDM, or a Cyclic Prefix, CP,-OFDM; and a transmitter configured to transmit the DM-RS using the determined transmission power; wherein the processor is configured to control the determination of the transmission power so that the transmission power differs between a case of using the DFT-s-OFDM and a case of using the CP-OFDM; and wherein the processor is configured to control resource elements, REs, in an OFDM symbol where the DM-RS is multiplexed, the resource elements being not multiplexed with the DM-RS in the OFDM symbol are set as Null in the case of using the DFT-s-OFDM.
Timepiece comprising a control device with a bolt and push piece, the control device comprising a slideway arranged in the outer surface of the case of the timepiece, a bolt comprising an external part (11; 111; 211) arranged to be guided by the slideway so as to be able to slide on the outer surface of the case of the timepiece between an inoperative position and an end-of-travel position, and comprising an internal part which is arranged inside the case and kinematically connected to the external part, and a push piece comprising a through-part (39; 239) which is inserted in a piercing passing through the wall of the case of the timepiece, the piercing opening into the slideway or into the extension thereof and being oriented substantially perpendicularly to the slideway, the push piece further comprising a head part (38; 147, 148; 213, 247, 248) arranged outside of the case in order to cooperate with the through-part (39; 239), the total external length of the control device parallel to the slideway being equal to the length of the external part (11; 111; 211) of the bolt when the bolt is in the inoperative position, characterised in that the timepiece comprises an auxiliary mechanism comprising a dedicated power spring, in that the bolt is arranged to wind the dedicated power spring without at the same time causing the auxiliary mechanism to start, and in that the push piece is arranged to enable the auxiliary mechanism then to be started.
A compressed mode starting method, comprising: acquiring,when a network side device determines that a terminal device needs to start a compressed mode by spreading factor SF/2, by the network side device from a channel code of a cell in which the terminal device is located, a second channel code that is idle and that has an SF the same as that of a father channel code of a first channel code, wherein the first channel code is a channel code used by a dedicated physical channel DPCH of the terminal device; and sending, by the network side device, the second channel code to the terminal device, so that the terminal device configures the second channel code as the channel code that is used by the DPCH; and sending instruction information to the terminal device, so as to instruct the terminal device to start the compressed mode by SF/2 after the terminal device configures the second channel code as the channel code that is used by the DPCH. acquiring,when a network side device determines that a terminal device needs to start a compressed mode by spreading factor SF/2, by the network side device from a channel code of a cell in which the terminal device is located, a second channel code that is idle and that has an SF the same as that of a father channel code of a first channel code, wherein the first channel code is a channel code used by a dedicated physical channel DPCH of the terminal device; and sending, by the network side device, the second channel code to the terminal device, so that the terminal device configures the second channel code as the channel code that is used by the DPCH; and sending instruction information to the terminal device, so as to instruct the terminal device to start the compressed mode by SF/2 after the terminal device configures the second channel code as the channel code that is used by the DPCH.