mhurhangee/patent-ind-claim-en huggingface dataset:
A process for recovering energy in a petroleum, petrochemical, or chemical plant comprising: identifying a first fluid stream having a first control valve thereon in a process zone; installing a first power-recovery turbine at the location of the first control valve ; directing at least a portion of the first fluid stream through the first power- recovery turbine to generate electric power therefrom; and recovering the electric power; wherein the first power-recovery turbine is installed in parallel with the first control valve or in series with the first control valve ; and rectifying the recovered electrical power to direct current and inverting the electrical power into recovered alternating current, and providing the recovered alternating current to a first substation; and wherein the substation comprises at least one alternating current bus, and the output of the DC to AC inverter is electrically connected to the at least one alternating current bus, which is a low voltage of <600 VAC bus, in the substation; or the substation comprises at least one alternating current bus, and the output of the DC to AC inverter is electrically transformed up to medium voltage and then connected to a medium voltage of 5 kVAC or 15 kVAC class bus within the process substation. identifying a first fluid stream having a first control valve thereon in a process zone; installing a first power-recovery turbine at the location of the first control valve ; directing at least a portion of the first fluid stream through the first power- recovery turbine to generate electric power therefrom; and recovering the electric power; wherein the first power-recovery turbine is installed in parallel with the first control valve or in series with the first control valve ; and rectifying the recovered electrical power to direct current and inverting the electrical power into recovered alternating current, and providing the recovered alternating current to a first substation; and wherein the substation comprises at least one alternating current bus, and the output of the DC to AC inverter is electrically connected to the at least one alternating current bus, which is a low voltage of <600 VAC bus, in the substation; or the substation comprises at least one alternating current bus, and the output of the DC to AC inverter is electrically transformed up to medium voltage and then connected to a medium voltage of 5 kVAC or 15 kVAC class bus within the process substation.
Method for determining a level of hygiene H of a washing machine with an outer tub , a drum for receiving items of laundry , a drive motor for the drum and a control device for controlling at least one wash program, wherein an impedance signal is measured with an impedance sensor arranged in the washing machine , said impedance sensor coming into contact with an aqueous liquid during the course of a wash program, characterised in that the impedance signal is evaluated as a degree of the level of hygiene H of the washing machine in respect of deposits on the impedance sensor and that before carrying out a first laundry treatment in the washing machine in the presence of water , an impedance signal of the impedance sensor is measured and is stored in the control device as a reference measurement which corresponds to a maximum level of hygiene H max , wherein an association, stored in the control device , between the impedance signal and the type and/or quantity of deposits on the impedance sensor is used.
A subsea electrical actuator for providing a subsea electrical actuation of a valve, the actuator comprising: a screw assembly comprising a screw and a threaded part for receiving the screw; a housing for the screw assembly; an axial stop for preventing axial movement relative to the housing of at least one of the screw and the threaded part; a primary drive for providing a rotational movement to the screw assembly in a normal mode of operation, the screw assembly converting the rotational movement to an axial movement of a valve member relative to the housing; an override for operating the actuator in an override mode of operation, the override being configured to release at least one of the screw and the threaded part for axial movement relative to the housing and wherein the screw comprises a roller screw and the threaded part comprises a roller nut; and the override is configured to release the axial stop to release at least one of the roller screw and the roller nut for axial movement relative to the housing. a screw assembly comprising a screw and a threaded part for receiving the screw; a housing for the screw assembly; an axial stop for preventing axial movement relative to the housing of at least one of the screw and the threaded part; a primary drive for providing a rotational movement to the screw assembly in a normal mode of operation, the screw assembly converting the rotational movement to an axial movement of a valve member relative to the housing; an override for operating the actuator in an override mode of operation, the override being configured to release at least one of the screw and the threaded part for axial movement relative to the housing and wherein the screw comprises a roller screw and the threaded part comprises a roller nut; and the override is configured to release the axial stop to release at least one of the roller screw and the roller nut for axial movement relative to the housing.
A method for digitally printing onto a substrate , wherein the substrate is configured as a continuous substrate and/or discrete components of an absorbent article , the method comprising: providing a first printhead , wherein the first printhead has a first printhead width extending in a cross direction; providing a second printhead , wherein the second printhead has a second printhead width extending in the cross direction, wherein a portion of the first printhead overlaps a portion of the second printhead in a cross direction to form a total printhead width; advancing the substrate in the machine direction past the first printhead and the second printhead , the substrate comprising a first surface , an opposing second surface , and a substrate width extending in the cross direction; depositing a first plurality of droplets on the first surface of the substrate using the first printhead ; depositing a second plurality of droplets on the first surface of the substrate using the second printhead ; and printing the substrate on-line, as part of an assembly process, to form absorbent articles so that the absorbent articles include graphics printed thereon. providing a first printhead , wherein the first printhead has a first printhead width extending in a cross direction; providing a second printhead , wherein the second printhead has a second printhead width extending in the cross direction, wherein a portion of the first printhead overlaps a portion of the second printhead in a cross direction to form a total printhead width; advancing the substrate in the machine direction past the first printhead and the second printhead , the substrate comprising a first surface , an opposing second surface , and a substrate width extending in the cross direction; depositing a first plurality of droplets on the first surface of the substrate using the first printhead ; depositing a second plurality of droplets on the first surface of the substrate using the second printhead ; and printing the substrate on-line, as part of an assembly process, to form absorbent articles so that the absorbent articles include graphics printed thereon.
A method for transmitting control information using an Acknowledgement/Negative Acknowledgement, AN, channel selection scheme by a user equipment, UE, the method comprising: transmitting a complex value via a Physical Uplink Control Channel, PUCCH, resource based on an identified AN state set and a mapping rule of Table 1 below, wherein the identified AN state set including a Hybrid Automatic Repeat reQuest Acknowledgement, HARQ-ACK, , HARQ-ACK and HARQ-ACK for multiple cells including a Primary Cell, PCell, and one or more Secondary Cells, SCells, Table 1 HARQ-ACK HARQ-ACK HARQ-ACK PUCCH resource Complex value ACK ACK ACK 2 nd PUCCH resource -1 ACK NACK/DTX ACK 2 nd PUCCH resource j NACK/DTX ACK ACK 2 nd PUCCH resource -j NACK/DTX NACK/DTX ACK 3 rd PUCCH resource -1 ACK ACK NACK 1 st PUCCH resource -1 ACK NACK/DTX NACK 1 st PUCCH resource j NACK/DTX ACK NACK 1 st PUCCH resource -j NACK/DTX NACK/DTX NACK 3 rd PUCCH resource 1 ACK ACK DTX 1 st PUCCH resource -1 ACK NACK/DTX DTX 1 st PUCCH resource j NACK/DTX ACK DTX 1 st PUCCH resource -j NACK NACK DTX 1 st PUCCH resource 1 NACK DTX DTX 1 st PUCCH resource 1 DTX NACK DTX 1 st PUCCH resource 1 DTX DTX DTX No transmission wherein "ACK" represents a positive acknowledgement, "NACK" represents a negative acknowledgement, "DTX" represents a discontinuous transmission, and "NACK/DTX" represents "NACK" or "DTX". transmitting a complex value via a Physical Uplink Control Channel, PUCCH, resource based on an identified AN state set and a mapping rule of Table 1 below, wherein the identified AN state set including a Hybrid Automatic Repeat reQuest Acknowledgement, HARQ-ACK, , HARQ-ACK and HARQ-ACK for multiple cells including a Primary Cell, PCell, and one or more Secondary Cells, SCells, Table 1 HARQ-ACK HARQ-ACK HARQ-ACK PUCCH resource Complex value ACK ACK ACK 2 nd PUCCH resource -1 ACK NACK/DTX ACK 2 nd PUCCH resource j NACK/DTX ACK ACK 2 nd PUCCH resource -j NACK/DTX NACK/DTX ACK 3 rd PUCCH resource -1 ACK ACK NACK 1 st PUCCH resource -1 ACK NACK/DTX NACK 1 st PUCCH resource j NACK/DTX ACK NACK 1 st PUCCH resource -j NACK/DTX NACK/DTX NACK 3 rd PUCCH resource 1 ACK ACK DTX 1 st PUCCH resource -1 ACK NACK/DTX DTX 1 st PUCCH resource j NACK/DTX ACK DTX 1 st PUCCH resource -j NACK NACK DTX 1 st PUCCH resource 1 NACK DTX DTX 1 st PUCCH resource 1 DTX NACK DTX 1 st PUCCH resource 1 DTX DTX DTX No transmission wherein "ACK" represents a positive acknowledgement, "NACK" represents a negative acknowledgement, "DTX" represents a discontinuous transmission, and "NACK/DTX" represents "NACK" or "DTX".
A method for ascertaining a rough trajectory from a specified contour for controlling a machine tool which has at least two mutually redundant drive devices for carrying out superimposed movements, wherein the contour is determined by a contour function (P j , p j ) which is defined in portions by contour nodal points (Po to P n+1 ) and respective contour portion functions (po to p n ), wherein a respective contour portion function (p j ) connects two adjacent contour nodal points (P j , P j+1 ), wherein the rough trajectory is determined by a rough trajectory function (Q j , q j ) which is defined in portions by rough trajectory nodal points (Qo to Q n+1 ) and respective rough trajectory portion functions (qo to q n ), wherein a respective rough trajectory portion function (q j ) connects two adjacent rough trajectory nodal points (Q j , Q j+1 ), wherein, for each contour nodal point (P j ), a respective assigned rough trajectory nodal point (Q j ) is ascertained in such a manner that a difference in the gradients of the two adjacent rough trajectory portion functions (q j-1 , q j ) which contain this rough trajectory nodal point (Q j ) is minimal and that the distance of the contour nodal point (P j ) from the rough trajectory nodal point (Q j ) satisfies a specified distance condition. wherein the contour is determined by a contour function (P j , p j ) which is defined in portions by contour nodal points (Po to P n+1 ) and respective contour portion functions (po to p n ), wherein a respective contour portion function (p j ) connects two adjacent contour nodal points (P j , P j+1 ), wherein the rough trajectory is determined by a rough trajectory function (Q j , q j ) which is defined in portions by rough trajectory nodal points (Qo to Q n+1 ) and respective rough trajectory portion functions (qo to q n ), wherein a respective rough trajectory portion function (q j ) connects two adjacent rough trajectory nodal points (Q j , Q j+1 ), wherein, for each contour nodal point (P j ), a respective assigned rough trajectory nodal point (Q j ) is ascertained in such a manner that a difference in the gradients of the two adjacent rough trajectory portion functions (q j-1 , q j ) which contain this rough trajectory nodal point (Q j ) is minimal and that the distance of the contour nodal point (P j ) from the rough trajectory nodal point (Q j ) satisfies a specified distance condition.
Electrical switching apparatus , comprising: - a protective casing , - at least one switching member which is arranged in the casing and comprises an input connection pad and an output connection pad , the switching member being capable of switching between a first position, which allows the current to pass between the input connection pad and the output connection pad , and a second position, which prevents the current from passing between the input connection pad and the output connection pad , - a mechanism for driving the or each switching member between its first and second positions, and - at least one auxiliary module arranged in the casing , the auxiliary module being removable relative to the casing and configured to implement an electrical or mechanical function associated with the driving mechanism , - a mechanical referencing member common to the driving mechanism and to each auxiliary module , for positioning the driving mechanism and each auxiliary module in the casing , - a plurality of switching members aligned in a transverse direction (Y) of the switching apparatus , the electrical switching apparatus being characterised in that it further comprises a plurality of spacers , each spacer separating two respective switching members in the transverse direction (Y), the auxiliary module being mechanically coupled to a spacer . - a protective casing , - at least one switching member which is arranged in the casing and comprises an input connection pad and an output connection pad , the switching member being capable of switching between a first position, which allows the current to pass between the input connection pad and the output connection pad , and a second position, which prevents the current from passing between the input connection pad and the output connection pad , - a mechanism for driving the or each switching member between its first and second positions, and - at least one auxiliary module arranged in the casing , the auxiliary module being removable relative to the casing and configured to implement an electrical or mechanical function associated with the driving mechanism , - a mechanical referencing member common to the driving mechanism and to each auxiliary module , for positioning the driving mechanism and each auxiliary module in the casing , - a plurality of switching members aligned in a transverse direction (Y) of the switching apparatus ,
A user equipment, UE , comprising: a higher layer processor configured to determine a physical uplink control channel, PUCCH, resource in a first subslot for HARQ-ACK feedback for physical downlink shared channel, PDSCH, transmissions that is associated with a highest priority, the first subslot being configured in a slot; and an UL transmitter configured to transmit, based on the determined PUCCH resource, the HARQ-ACK feedback for the PDSCH transmissions that is associated with the highest priority, wherein the UE is configured with a first PUCCH resource configuration for the HARQ-ACK feedback in the first subslot, the PUCCH resource is determined based on the first PUCCH resource configuration, characterized in that : a plurality of possible subslot structures for HARQ-ACK PUCCH resource allocation in the slot is defined, wherein all subslots in the slot have same duration in one or more of the possible subslot structures, and the first subslot and another subslot in the slot have different durations in the rest of the possible subslot structures, and the UE is configured with a subslot configuration indicating one of the possible subslot structures for the first PUCCH resource configuration. a higher layer processor configured to determine a physical uplink control channel, PUCCH, resource in a first subslot for HARQ-ACK feedback for physical downlink shared channel, PDSCH, transmissions that is associated with a highest priority, the first subslot being configured in a slot; and an UL transmitter configured to transmit, based on the determined PUCCH resource, the HARQ-ACK feedback for the PDSCH transmissions that is associated with the highest priority, wherein the UE is configured with a first PUCCH resource configuration for the HARQ-ACK feedback in the first subslot, the PUCCH resource is determined based on the first PUCCH resource configuration, characterized in that : a plurality of possible subslot structures for HARQ-ACK PUCCH resource allocation in the slot is defined, wherein all subslots in the slot have same duration in one or more of the possible subslot structures, and the first subslot and another subslot in the slot have different durations in the rest of the possible subslot structures, and the UE is configured with a subslot configuration indicating one of the possible subslot structures for the first PUCCH resource configuration. a plurality of possible subslot structures for HARQ-ACK PUCCH resource allocation in the slot is defined, wherein all subslots in the slot have same duration in one or more of the possible subslot structures, and the first subslot and another subslot in the slot have different durations in the rest of the possible subslot structures, and all subslots in the slot have same duration in one or more of the possible subslot structures, and the first subslot and another subslot in the slot have different durations in the rest of the possible subslot structures, and the UE is configured with a subslot configuration indicating one of the possible subslot structures for the first PUCCH resource configuration.
An unmanned aircraft [UAV] adapted to minimise visual and audible detection during flight that is comprised of: a flattened, angular shaped body ; an angular shaped tail boom and tail ; one or more motors for driving one or more propellers; one or more wings ; one or more light sensors capable of measuring the amount of visible light incident on the UAV surface; a camera ; and a controller , wherein the one or more wings comprise a diffuse dark coloured upper surface , with an internal surface of the upper surface comprising a high reflective lining, one or more light sources attached horizontally to the reflective lining on the upper surface pointing downwards, a translucent lower surface and a diffuse translucent mesh attached to the internal surface of the lower surface. a flattened, angular shaped body ; an angular shaped tail boom and tail ; one or more motors for driving one or more propellers; one or more wings ; one or more light sensors capable of measuring the amount of visible light incident on the UAV surface; a camera ; and a controller ,
A directional coupler operable at microwave and RF frequencies comprising: a main transmission line supporting transverse electromagnetic ,TEM, or quasi-TEM wave mode propagation, wherein the main transmission line is a main slab line comprising spaced, opposed conductor planes (152;154) and a main center conductor ; a coupled transmission line supporting TEM or quasi-TEM wave mode propagation, the coupled transmission line adjacent to and oriented at an angle with respect to the main transmission line, wherein the coupled transmission line is a coupled coaxial line comprising a center coaxial conductor and an outer conductor; a coupling hole formed through conductive shielding between the main and coupled lines, the coupling hole formed at an intersection region between the main and coupled lines, the coupling hole comprising a hole formed in the coaxial outer conductor at the intersection region. a main transmission line supporting transverse electromagnetic ,TEM, or quasi-TEM wave mode propagation, wherein the main transmission line is a main slab line comprising spaced, opposed conductor planes (152;154) and a main center conductor ; a coupled transmission line supporting TEM or quasi-TEM wave mode propagation, the coupled transmission line adjacent to and oriented at an angle with respect to the main transmission line, wherein the coupled transmission line is a coupled coaxial line comprising a center coaxial conductor and an outer conductor; a coupling hole formed through conductive shielding between the main and coupled lines, the coupling hole formed at an intersection region between the main and coupled lines, the coupling hole comprising a hole formed in the coaxial outer conductor at the intersection region.
An implant magazine for use with a driver , the implant magazine comprising: a plurality of implants ; an implant carrier defining a plurality of apertures , each implant of the plurality of implants being disposed within an aperture of the plurality of apertures , wherein an implant is disengaged from the implant carrier upon application of a predetermined force applied to the implant ; and a base defining a cavity in which the implant carrier and the plurality of implants are disposed, characterized in that each aperture in the implant carrier is defined by one or more deformable fins configured to contact the implant disposed within the aperture . a plurality of implants ; an implant carrier defining a plurality of apertures , each implant of the plurality of implants being disposed within an aperture of the plurality of apertures , wherein an implant is disengaged from the implant carrier upon application of a predetermined force applied to the implant ; and a base defining a cavity in which the implant carrier and the plurality of implants are disposed,