mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of Indacaterol or a pharmaceutically acceptable salt thereof, comprising reacting the compound of formula I with 2-amino-5,6-diethylindan of formula II, preferably in the presence of a base, to the compound of formula III and then converting the compound of formula III to Indacaterol or a pharmaceutically acceptable salt thereof: wherein R 1 is a protecting group, R 2 is a protecting group, which is stable under mildly alkaline conditions, and X is a halogen selected from the group consisting of chloro, bromo, and iodo.
Seat system for a vehicle, the system comprising a plurality of seats (2.1 to 2.3) which are arranged one beside the other and of which at least two are independently pivotable about a common pivot axis, wherein at least one of the at least two seats (2.2) pivotable on the common pivot axis is configured such that, in the event of unlocking and the backrest of the pivotable seat (2.2) being pivoted out of a normal position or sitting position into a forwardly inclined position beyond a predetermined angle of inclination, the other, adjacent seat (2.1) is blocked in the unlocked state or at least a folding action of the backrest of the other seat (2.1) is damped or blocked, characterized in that a spring device and/or damping device (7, 7') is arranged in the region of the common pivot axis of the seat (2.2) which is to be pivoted, which device increases a frictional force acting between the pivoting seat (2.2) and the adjacent seat (2.1) as the seat (2.2) which is the first to pivot pivots.
Doctor blade for a fiber web machine, the doctor blade including a blade section and a fastening detent section, wherein in the cross-sectional plane, the blade section is asymmetric, and the fastening detent section comprises a thinned part having a neck and shoulders substantially symmetric about an axis of symmetry located in the doctor blade width direction, so that the doctor blade can be installed by its fastening detent section in two opposite positions by being turned round about a center axis located in its width direction parallel to the axis of symmetry of the thinned part of the fastening detent section for providing two different functions, wherein the blade section has a chamfered tip for forming a contact surface in the first function as a doctoring blade for removing water and fine matter from a surface to be doctored, and wherein the blade section has an asymmetric bulge forming a flow surface in the second function as a foil blade.
A method for controlling a power factor on motor side, comprising: controlling the motor using a control approach of Id'=0 so as to obtain a quadrature-axis voltage Uq'and a direct-axis voltage Ud' in a virtual coordinate system of a current control cycle; calculating a first control value according to the quadrature-axis voltage Uq'and the direct-axis voltage Ud' in the virtual coordinate system of the current control cycle; obtaining a power factor control target value, and calculating a target control value according to the power factor control target value; and performing a PI control on a difference between the target control value and the first control value so as to obtain a coordinate deviation angle, and overlapping the coordinate deviation angle to a motor angle of the current control cycle so as to build a virtual coordinate system of a next control cycle, such that the power factor on the motor side is controllable, characterized in that the first control value is calculated according to a formula of A = Uq ′ 2 Uq ′ 2 + Ud ′ 2, where, A is the first control value, Uq' is the quadrature-axis voltage in the virtual coordinate system, and Ud' is the direct-axis voltage in the virtual coordinate system. controlling the motor using a control approach of Id'=0 so as to obtain a quadrature-axis voltage Uq'and a direct-axis voltage Ud' in a virtual coordinate system of a current control cycle; calculating a first control value according to the quadrature-axis voltage Uq'and the direct-axis voltage Ud' in the virtual coordinate system of the current control cycle; obtaining a power factor control target value, and calculating a target control value according to the power factor control target value; and performing a PI control on a difference between the target control value and the first control value so as to obtain a coordinate deviation angle, and overlapping the coordinate deviation angle to a motor angle of the current control cycle so as to build a virtual coordinate system of a next control cycle, such that the power factor on the motor side is controllable, characterized in that the first control value is calculated according to a formula of A = Uq ′ 2 Uq ′ 2 + Ud ′ 2, where, A is the first control value, Uq' is the quadrature-axis voltage in the virtual coordinate system, and Ud' is the direct-axis voltage in the virtual coordinate system.
A plate cylinder (4, 100) for flexographic printing presses, comprising a rotational shaft having means for attaching at least one printing plate to said shaft, said rotational shaft having an inner cylindrical body being made of a first material,, and an outer sleeve being made of a third material, characterized in that the plate cylinder further comprises an intermediate sleeve being made of a second material, wherein the intermediate sleeve surrounds and encloses the inner cylindrical body, the outer sleeve being arranged outside the intermediate sleeve, such that the outer sleeve surrounds and encloses the intermediate sleeve, wherein the Young's modulus of said second material is less than the Young's modulus of said first and third material.
A solar panel cleaning apparatus comprising: one or more rotatable brushes each having a rotational axis; and a drive configured to move each of the one or more rotatable brushes in a direction that is not perpendicular to the rotational axis; and characterized in that a track is coupled to the one or more rotatable brushes and is configured to guide the one or more rotatable brushes along a path, where the path is in a direction that is not perpendicular to the rotational axis. one or more rotatable brushes each having a rotational axis; and a drive configured to move each of the one or more rotatable brushes in a direction that is not perpendicular to the rotational axis; and characterized in that a track is coupled to the one or more rotatable brushes and is configured to guide the one or more rotatable brushes along a path, where the path is in a direction that is not perpendicular to the rotational axis.
Water-conducting device comprising a number of components (2, 6) to be cleaned and a washing facility, wherein the washing facility applies a washing liquid surge of a washing liquid and thus acts upon a first component, at least in part, for cleaning purposes, characterised in that a first partial quantity branched off from the surge of washing liquid acts upon a second component to be cleaned, which second component is a sensor, and that a further partial quantity branches off from the surge of washing liquid and reaches a temporary store, which has an outlet which is dimensioned such that the outgoing volume flow is less than the incoming volume flow of the further partial quantity, and from which it subsequently reaches the second component to be cleaned, as a result of which the cleaning of the second component begins during the cleaning of the first component and is continued beyond the duration of the cleaning of the first component.
A sensorized roller of a bearing, the sensorized roller comprising a hollow bore extending in an axial direction of the roller whereby a sensor module comprising one or more deformation sensors for detecting deformation of the roller bore due to a radial load acting on the roller is arranged within the roller bore, characterized in that: the sensor module comprises a rigid housing that is shaped to fit inside the roller bore and is mounted thereto with a small radial clearance between an outer cylindrical surface of the housing an inner cylindrical surface of the roller bore, wherein each of the one or more deformation sensors is formed as a proximity sensor (25a, 25b, 26a, 26b, 27a, 27b) that is accommodated at the outer cylindrical surface of the housing such that a sensing element of the proximity sensor faces a radially inner surface of the roller bore and measures a radial gap therebetween.
A wireless transmit/receive unit, WTRU, configured to perform application specific congestion control for data communication, ACDC, for a high priority application, the WTRU comprising: a processor; and a transceiver, wherein: the transceiver is configured to receive a broadcasted system information block, SIB, message including, for each ACDC category in the SIB, ACDC access control parameters and information regarding whether the corresponding ACDC rules are applicable to low priority devices, the processor is configured to provide a non-access stratum, NAS, extended service request, ESR, wherein the ESR indicates that the WTRU is associated with a low priority and the ESR indicates the high priority application; and the transceiver is configured to: transmit, to a wireless network, a radio resource control, RRC, connection request with an establishment cause of mobile-originated, MO, data based on the ESR and the broadcasted SIB message. a processor; and a transceiver, wherein: the transceiver is configured to receive a broadcasted system information block, SIB, message including, for each ACDC category in the SIB, ACDC access control parameters and information regarding whether the corresponding ACDC rules are applicable to low priority devices, the processor is configured to provide a non-access stratum, NAS, extended service request, ESR, wherein the ESR indicates that the WTRU is associated with a low priority and the ESR indicates the high priority application; and the transceiver is configured to: transmit, to a wireless network, a radio resource control, RRC, connection request with an establishment cause of mobile-originated, MO, data based on the ESR and the broadcasted SIB message. the transceiver is configured to receive a broadcasted system information block, SIB, message including, for each ACDC category in the SIB, ACDC access control parameters and information regarding whether the corresponding ACDC rules are applicable to low priority devices, the processor is configured to provide a non-access stratum, NAS, extended service request, ESR, wherein the ESR indicates that the WTRU is associated with a low priority and the ESR indicates the high priority application; and the transceiver is configured to: transmit, to a wireless network, a radio resource control, RRC, connection request with an establishment cause of mobile-originated, MO, data based on the ESR and the broadcasted SIB message.
A water purification system comprising: a water treatment unit; an electrodeionisation unit in fluid connection with the water treatment unit for producing a rejected water stream and a purified water stream; and a hydrogen peroxide decomposition catalyst in fluid connection with the rejected water stream produced by the electrodeionisation unit and with the water treatment unit so as to provide for recirculation of the rejected water stream exiting the hydrogen peroxide decomposition catalyst to the water treatment unit. a water treatment unit; an electrodeionisation unit in fluid connection with the water treatment unit for producing a rejected water stream and a purified water stream; and a hydrogen peroxide decomposition catalyst in fluid connection with the rejected water stream produced by the electrodeionisation unit and with the water treatment unit so as to provide for recirculation of the rejected water stream exiting the hydrogen peroxide decomposition catalyst to the water treatment unit.
A tank valve for mounting on a compressed gas container, with a base body, with a common gas connection for refueling/extraction, which is divided within the base body into a refueling line and an extraction line as part of an extraction path, and with an extraction valve in the extraction line, a check valve being arranged in the extraction path in series with the extraction valve, which check valve blocks the flow against the flow direction when gas is extracted, and wherein a pipe rupture protection is arranged in the extraction path and a valve body (28, 32) of the check valve and/or the pipe rupture protection is lifted off its valve seat (29, 33) in normal operation with a spring element (31, 34), characterized in that the valve bodies (28, 32) of the check valve and the pipe rupture protection are made in one piece with a common body. and wherein a pipe rupture protection is arranged in the extraction path and a valve body (28, 32) of the check valve and/or the pipe rupture protection is lifted off its valve seat (29, 33) in normal operation with a spring element (31, 34), characterized in that the valve bodies (28, 32) of the check valve and the pipe rupture protection are made in one piece with a common body.
A method of dewaxing a feed, comprising: exposing a feed comprising a lubricant boiling range portion, the feed having a T5 boiling point of at least 600°F (316°C), an aromatics content of at least 5 wt% and an organic sulfur content of at least 50 wppm, to a dewaxing catalyst under effective dewaxing conditions to form a dewaxed effluent, the dewaxing catalyst comprising a zeolitic molecular sieve, a mesoporous binder, and at least 0.1 wt% of a Group VIII metal, the dewaxing catalyst have a ratio by weight of zeolitic molecular sieve to binder of at least 75: 25; wherein the Group VIII metal comprises a combination of Pt and Pd, and wherein the zeolite molecular sieve has a silica to alumina ratio of 70:1 or less. exposing a feed comprising a lubricant boiling range portion, the feed having a T5 boiling point of at least 600°F (316°C), an aromatics content of at least 5 wt% and an organic sulfur content of at least 50 wppm, to a dewaxing catalyst under effective dewaxing conditions to form a dewaxed effluent, the dewaxing catalyst comprising a zeolitic molecular sieve, a mesoporous binder, and at least 0.1 wt% of a Group VIII metal, the dewaxing catalyst have a ratio by weight of zeolitic molecular sieve to binder of at least 75: 25; wherein the Group VIII metal comprises a combination of Pt and Pd, and wherein the zeolite molecular sieve has a silica to alumina ratio of 70:1 or less.
A method of generating a robot operation command, the method comprising: extracting a work command from an overall work flow; extracting, from a command definition database, a command definition corresponding to the extracted work command, said command definition including control information for changing a unit job of a set of unit jobs to be executed; generating, by referring to the extracted work command, the set of unit jobs in which a plurality of work commands are arranged in a defined order, based on the extracted command definition; generating state information (60a, 60b), based on the generated set of unit jobs, representing at least states of a work device and a robot at a start time point and an end time point of the work command; generating, for a plurality of unit jobs among the set of unit jobs, a connecting job for causing the robot to be moved from an end position of a previous unit job to a start position of a subsequent unit job; and generating a robot operation command in which the unit jobs and the connecting job are continuous, wherein the generating the connecting job includes generating, based on the state information, a three-dimensional model of the robot in a virtual space and a three-dimensional model of the work device in the virtual space, the connecting job for moving along a path in which interference between the three-dimensional model of the robot and the three-dimensional model of the work device is inhibited from occurring. extracting a work command from an overall work flow; extracting, from a command definition database, a command definition corresponding to the extracted work command, said command definition including control information for changing a unit job of a set of unit jobs to be executed; generating, by referring to the extracted work command, the set of unit jobs in which a plurality of work commands are arranged in a defined order, based on the extracted command definition; generating state information (60a, 60b), based on the generated set of unit jobs, representing at least states of a work device and a robot at a start time point and an end time point of the work command; generating, for a plurality of unit jobs among the set of unit jobs, a connecting job for causing the robot to be moved from an end position of a previous unit job to a start position of a subsequent unit job; and generating a robot operation command in which the unit jobs and the connecting job are continuous, wherein the generating the connecting job includes generating, based on the state information, a three-dimensional model of the robot in a virtual space and a three-dimensional model of the work device in the virtual space, the connecting job for moving along a path in which interference between the three-dimensional model of the robot and the three-dimensional model of the work device is inhibited from occurring.
Metal/plastic slide bearing composite material having a metallic support layer, in particular of steel, having a porous carrier layer, in particular a carrier layer applied by sintering on metallic particles, and having a polymer-based slide layer material which fills the pores of the carrier layer and comprises fillers that improve the tribological properties, the polymer basis being PTFE, characterized in that the slide layer material comprises 0.1 to 5 mass % of multi-walled carbon nanotubes with a tube outer diameter of ≤ 80nm and a tube length of ≤ 20μm.
A magnetic head for erasing data on a magnetic tape, the magnetic head comprising a body having an elongate magnet located therein, the elongate magnet defining a first axis and a plurality of discrete magnetisable portions embedded in the body and in magnetisable communication with the magnet, characterised in that the plurality of magnetisable portions are aligned with the elongate magnet and form at least a portion of a smooth, consistent, substantially planar external surface of the magnetic head, wherein the first axis extends parallel to the substantially planar external surface, wherein the magnet is located below the plurality of magnetisable portions, and wherein the plurality of magnetisable portions are aligned with one another and are spaced from each other.
A method, comprising: identifying a set of targets within a field of view of a millimeter-wave radar sensor based on radar data received by the millimeter-wave radar sensor; capturing radar data corresponding to the set of targets across a macro-Doppler frame; performing macro-Doppler processing on the macro-Doppler frame and determining whether a macro-Doppler signal is present in the macro-Doppler frame based on the macro-Doppler processing; capturing radar data corresponding to the set of targets across a micro-Doppler frame, wherein the micro-Doppler frame has a duration superior or equal to a duration of a first plurality of macro-Doppler frames; performing micro-Doppler processing on the micro-Doppler frame and determining whether a micro-Doppler signal is present in the micro-Doppler frame based on the micro-Doppler processing; activating range bins of a plurality of range bins in response to a determination that at least one of the macro-Doppler signal or the micro-Doppler signal is present; wherein performing micro-Doppler processing on the micro-Doppler frame and determining whether the micro-Doppler signal is present occurs in parallel to performing macro-Doppler processing on the macro-Doppler frame and determining whether the macro-Doppler signal is present; clustering adjacent activated range bins into a single activated range cluster; and determining a number of people in the field of view of the millimeter-wave radar sensor based on a number of single activated range clusters present in the plurality of range bins. identifying a set of targets within a field of view of a millimeter-wave radar sensor based on radar data received by the millimeter-wave radar sensor; capturing radar data corresponding to the set of targets across a macro-Doppler frame; performing macro-Doppler processing on the macro-Doppler frame and determining whether a macro-Doppler signal is present in the macro-Doppler frame based on the macro-Doppler processing; capturing radar data corresponding to the set of targets across a micro-Doppler frame, wherein the micro-Doppler frame has a duration superior or equal to a duration of a first plurality of macro-Doppler frames; performing micro-Doppler processing on the micro-Doppler frame and determining whether a micro-Doppler signal is present in the micro-Doppler frame based on the micro-Doppler processing; activating range bins of a plurality of range bins in response to a determination that at least one of the macro-Doppler signal or the micro-Doppler signal is present; wherein performing micro-Doppler processing on the micro-Doppler frame and determining whether the micro-Doppler signal is present occurs in parallel to performing macro-Doppler processing on the macro-Doppler frame and determining whether the macro-Doppler signal is present; clustering adjacent activated range bins into a single activated range cluster; and determining a number of people in the field of view of the millimeter-wave radar sensor based on a number of single activated range clusters present in the plurality of range bins.
Method for displaying, in a web browser of a user computer terminal, the rendering produced by an application designed to be executed autonomously by a computer operating system, characterized in that it comprises a step consisting in executing (E22, E23), within the browser, a software module triggering an execution (E24, E25) of the application by the operating system of the terminal, and implementing, during the execution of the application, steps consisting in: - detecting at least one window generated by the application and which relates to the rendering generated by the application; - for each window detected in the preceding step, rendering the detected window so that it is hierarchically dependent on the software module, so as to redirect the rendering produced by the application to a window displayed in the browser. - detecting at least one window generated by the application and which relates to the rendering generated by the application; - for each window detected in the preceding step, rendering the detected window so that it is hierarchically dependent on the software module, so as to redirect the rendering produced by the application to a window displayed in the browser.