mhurhangee/patent-ind-claim-en huggingface dataset:
An open-type circular knitting machine for the open and width-variable web production with a knitted fabric take-down and/or collecting assembly, comprising: a base ;a knitting head mounted onto the base and comprising: at least a needle-holding element having at least a plurality of needles arranged around a central axis (X-X); a first active needle and a last active needle of said plurality delimiting between them a dead zone of the needle-holding element without needles and/or without active needles, and an operating zone shaped as an arc of circle and provided with active needles; control means operatively connected at least to the active needles so as to selectively actuate said active needles in order to produce an open knitted fabric (T); wherein during fabric formation, the machine rotates continuously and suitable devices allow at every revolution to begin thread feeding on the first active needle and to interrupt feeding on the last active needle; a take-down and/or collecting assembly for the knitted fabric (T) under production, arranged downstream from the knitting head with respect to a production direction of said knitted fabric (T) under production, wherein said take-down and/or collecting assembly is integral with the needle-holding element during the production of the knitted fabric (T); characterized in that it comprises adjusting devices for moving the take-down and/or collecting assembly for adjusting, between one manufacturing cycle and the following one, when the machine is idle, the angular position of the take-down and/or collecting assembly with respect to the dead zone of the needle-holding element around the central axis (X-X). at least a needle-holding element having at least a plurality of needles arranged around a central axis (X-X); a first active needle and a last active needle of said plurality delimiting between them a dead zone of the needle-holding element without needles and/or without active needles, and an operating zone shaped as an arc of circle and provided with active needles; control means operatively connected at least to the active needles so as to selectively actuate said active needles in order to produce an open knitted fabric (T); wherein during fabric formation, the machine rotates continuously and suitable devices allow at every revolution to begin thread feeding on the first active needle and to interrupt feeding on the last active needle; a take-down and/or collecting assembly for the knitted fabric (T) under production, arranged downstream from the knitting head with respect to a production direction of said knitted fabric (T) under production, wherein said take-down and/or collecting assembly is integral with the needle-holding element during the production of the knitted fabric (T); characterized in that it comprises adjusting devices for moving the take-down and/or collecting assembly for adjusting, between one manufacturing cycle and the following one, when the machine is idle, the angular position of the take-down and/or collecting assembly with respect to the dead zone of the needle-holding element around the central axis (X-X).
A method of manufacturing an article by injection moulding, the method comprising injection moulding an article from a polymer resin, wherein the polymer resin comprises different types of recycled polymer and a compatibilizer comprising inorganic particulate material and a surface treatment agent on a surface of the inorganic particulate material, and wherein the polymer resin has a MFI @ 2.16 kg/190 °C of equal to or greater than 3.0 g/10 min.
A folding, height-adjustable and laterally adjustable sighting apparatus for a handgun having a bearing axis , a front sight carrier element , a holding device and an adjusting element having an opening , wherein the axis is used for pivotably mounting the front sight carrier element on the holding device , wherein the axis body of the axis has a profile corresponding to the geometry of an opening of an adjusting element for the transmission of a torque, and at least one second thread corresponding to a first thread of the front sight carrier element for transmitting a rotary movement. adjusting element having an opening , wherein the axis is used for pivotably mounting the front sight carrier element on the holding device , wherein the axis body of the axis has a profile corresponding to the geometry of an opening of an adjusting element for the transmission of a torque, and at least one second thread corresponding to a first thread of the front sight carrier element for transmitting a rotary movement.
A process for preparing microparticles comprising glatiramer acetate, the process comprising the steps of: a. preparing an internal aqueous phase comprising glatiramer acetate and water; b. preparing an organic phase comprising a biodegradable or non-biodegradable polymer and a water-immiscible volatile organic solvent; c. preparing an external aqueous phase comprising water and a surfactant; d. mixing the internal aqueous phase obtained in step (a) and the organic phase obtained in step (b) to form a water-in-oil (w/o) emulsion; e. mixing the water-in-oil (w/o) emulsion obtained in step (d) with the external water phase obtained in step (c) to obtain a water-in-oil-in-water (w/o/w) double emulsion; f. removing the organic solvent by mixing the water-in-oil-in-water (w/o/w) double emulsion obtained in step (e), and applying an air stream and a vacuum, wherein the vacuum is applied for at least about 3 hours; and g. drying to obtain microparticles of glatiramer acetate, said microparticles comprising less than about 1,000 ppm of residual organic solvent. a. preparing an internal aqueous phase comprising glatiramer acetate and water; b. preparing an organic phase comprising a biodegradable or non-biodegradable polymer and a water-immiscible volatile organic solvent; c. preparing an external aqueous phase comprising water and a surfactant; d. mixing the internal aqueous phase obtained in step (a) and the organic phase obtained in step (b) to form a water-in-oil (w/o) emulsion; e. mixing the water-in-oil (w/o) emulsion obtained in step (d) with the external water phase obtained in step (c) to obtain a water-in-oil-in-water (w/o/w) double emulsion; f. removing the organic solvent by mixing the water-in-oil-in-water (w/o/w) double emulsion obtained in step (e), and applying an air stream and a vacuum, wherein the vacuum is applied for at least about 3 hours; and g. drying to obtain microparticles of glatiramer acetate, said microparticles comprising less than about 1,000 ppm of residual organic solvent.
A printing cassette that is to be attached to and detached from a printing apparatus main body , the printing apparatus main body including a drive shaft configured to rotate around an axis, the printing cassette comprising: a first tape ; a spool around which the first tape is wound or is to be wound and configured to rotate around a rotational axis (L6) parallel to a first direction; and a first engaging portion included in the spool and configured to transmit a driving force of the drive shaft to the spool ; characterized in that the printing cassette further comprises an input gear that is disposed at a different position from the spool in the first direction and configured to engage with another gear to transmit the driving force of the drive shaft to the another gear , wherein the first engaging portion and the input gear engage with the drive shaft at different positions with each other in the first direction in a state where the printing cassette is attached to the printing apparatus main body . a first tape ; a spool around which the first tape is wound or is to be wound and configured to rotate around a rotational axis (L6) parallel to a first direction; and a first engaging portion included in the spool and configured to transmit a driving force of the drive shaft to the spool ; characterized in that the printing cassette further comprises an input gear that is disposed at a different position from the spool in the first direction and configured to engage with another gear to transmit the driving force of the drive shaft to the another gear , wherein the first engaging portion and the input gear engage with the drive shaft at different positions with each other in the first direction in a state where the printing cassette is attached to the printing apparatus main body .
A brake system for a vehicle, the brake system comprises a control module and an electromechanical brake providing braking force to a wheel , wherein the control module a) receives rotation speed information of at least one drive motor , which provides a driving torque to the vehicle, and wheel speed sensor information of at least one wheel , characterized in that the control module b) compares a refresh rate of the rotation speed information of the drive motor and a refresh rate of the wheel speed sensor information of the wheel , c) generates a wheel rotational speed by use of the information of a higher refresh rate and d) is configured such that, when the wheel rotational speed generated from the rotation speed information of the drive motor or that generated from the wheel speed sensor information of the wheel is used, it will use the wheel rotational speed generated from the other one for validation. a) receives rotation speed information of at least one drive motor , which provides a driving torque to the vehicle, and wheel speed sensor information of at least one wheel , characterized in that the control module b) compares a refresh rate of the rotation speed information of the drive motor and a refresh rate of the wheel speed sensor information of the wheel , c) generates a wheel rotational speed by use of the information of a higher refresh rate and d) is configured such that, when the wheel rotational speed generated from the rotation speed information of the drive motor or that generated from the wheel speed sensor information of the wheel is used, it will use the wheel rotational speed generated from the other one for validation.
An airside dolly and a driven vehicle , wherein the airside dolly comprises a status monitor , and wherein the driven vehicle is a towing vehicle , such as a tug , configured to tow the airside dolly , the status monitor comprising: a sensor , the sensor configured to sense a safety variable of the airside dolly ; and an output , the output being in communication with the sensor and configured to provide a status signal in dependence on the sensed safety variable of the airside dolly ; characterized in that the status signal is configured to trigger a shutdown or immobilisation of the driven vehicle in dependence on the safety status of the airside dolly . a sensor , the sensor configured to sense a safety variable of the airside dolly ; and an output , the output being in communication with the sensor and configured to provide a status signal in dependence on the sensed safety variable of the airside dolly ; characterized in that the status signal is configured to trigger a shutdown or immobilisation of the driven vehicle in dependence on the safety status of the airside dolly .
A method of controlling a robot cleaner, the method comprising: obtaining map information for a cleaning area; dividing the cleaning area into a plurality of zones based on the obtained map information; based on a user input for setting a cleaning schedule, providing user interfaces configured to receive a cleaning order, a cleaning time, and a cleaning period for the plurality of zones; receiving the cleaning order, the cleaning time, and the cleaning period for the plurality of zones; transmitting, to the robot cleaner , information on the cleaning order, the cleaning time, and the cleaning period for the plurality of zones; and performing, by the robot cleaner , cleaning of the cleaning area based on the information about the cleaning order, the cleaning time, and the cleaning period for the plurality of zones, wherein the method further comprises, in response to reaching a zone in which cleaning is not performable during the performing of cleaning on the cleaning area, the robot cleaner moving to a zone that is assigned next in the cleaning order to the zone in which cleaning is not performable. obtaining map information for a cleaning area; dividing the cleaning area into a plurality of zones based on the obtained map information; based on a user input for setting a cleaning schedule, providing user interfaces configured to receive a cleaning order, a cleaning time, and a cleaning period for the plurality of zones; receiving the cleaning order, the cleaning time, and the cleaning period for the plurality of zones; transmitting, to the robot cleaner , information on the cleaning order, the cleaning time, and the cleaning period for the plurality of zones; and performing, by the robot cleaner , cleaning of the cleaning area based on the information about the cleaning order, the cleaning time, and the cleaning period for the plurality of zones, wherein the method further comprises, in response to reaching a zone in which cleaning is not performable during the performing of cleaning on the cleaning area, the robot cleaner moving to a zone that is assigned next in the cleaning order to the zone in which cleaning is not performable.
A microfluidic system for culturing or conducting analyses on living cells or biomolecules, in which a plurality of laminates (1.1, 1.2, ..., 1.x), which are arranged on top of one another, made of a polymer material and designed as films and/or panel-shaped workpieces, are joined to one another in a fluid-tight and integral manner, and at least one opening or at least one cut-out is formed in at least one of the laminates (1.1, 1.2, ..., 1.x) by which a channel or a reservoir for receiving living cells or biomolecules is formed, and at least one further opening is formed in at least one of the laminates (1.1, 1.2, ..., 1.x), into which an actuator and/or a sensor made of a ceramic or semiconducting material, or a carrier for an actuator or a sensor which is made of a ceramic or semiconducting material, is inserted, and at least one electrical strip conductor , by way of which electrical contacting of the actuator and/or sensor can be achieved, is printed on the surface of the laminate (1.2) into which the actuator and/or sensor or the carrier is inserted, or on the surface of a laminate (1.3) directly adjoining this laminate (1.2), the at least one actuator and/or sensor being in touching contact with a liquid for the culturing of cells, a liquid in which biomolecules are contained or the cells or biomolecules contained in a channel or reservoir.
A circuit arrangement comprising a power semiconductor switch having a control terminal , a reference potential terminal and a controlled terminal , a freewheeling diode , a storage choke having a winding between a first choke terminal and a second choke terminal and a core , wherein the storage choke is configured for conducting a current flowing across the power semiconductor switch , and a driver circuit that is configured for driving the power semiconductor switch via the control terminal thereof, wherein: - the controlled terminal of the power semiconductor switch is connected to a first terminal point , - the reference potential terminal of the power semiconductor switch is connected to a connection point , - the connection point is connected via the freewheeling diode to a second terminal point in a manner such that the freewheeling diode is reverse-biased from the connection point to the second terminal point , - the connection point is furthermore connected to the first choke terminal , and - the second choke terminal is connected to a third terminal point , wherein a reference potential terminal of the driver circuit is connected to the third terminal point directly or via an impedance , and wherein at least one further winding is coupled inductively to the winding of the storage choke via the core , wherein the at least one further winding is configured for conducting a signal of the driver circuit . - the controlled terminal of the power semiconductor switch is connected to a first terminal point , - the reference potential terminal of the power semiconductor switch is connected to a connection point , - the connection point is connected via the freewheeling diode to a second terminal point in a manner such that the freewheeling diode is reverse-biased from the connection point to the second terminal point , - the connection point is furthermore connected to the first choke terminal , and - the second choke terminal is connected to a third terminal point ,
An automated device (1, 15; 100; 200; 300), in particular a robot, which comprises: - a movable structure (4-8; 103; 203; 301), - actuator means (M; 102; 202), for causing displacements of the movable structure (4-8; 103; 203; 301), - a control system (15; 303), which includes a control unit and is able to control the actuator means (M; 102; 202), - a sensorized covering (20; 120; 220; 320) which covers at least part of the movable structure (4-8; 103; 203; 301), wherein the sensorized covering (20; 120; 220; 320) integrates sensor means (C, P) that include at least one of contact sensor means (C) and proximity sensor means (P), wherein the sensorized covering (20; 120; 220; 320) comprises a plurality of covering modules (21-39; 110-113; 201-2011; 321-328), each having a respective load-bearing structure having a predefined shape to which at least one layer of elastically yielding material is associated, characterized in that : - the covering modules (21-39; 110-113; 201-2011; 321-328) are mutually couplable in a separable way, - the load-bearing structure of at least some of the covering modules (21-39; 110-113; 201-2011; 321-328) of said plurality has associated to it mechanical connector means , for enabling to mechanically interconnect in a separable way at least two different covering modules of said plurality that are adjacent to each other, and - the load-bearing structure of one of said two different covering modules has at least one peripheral surface or wall designed to face a corresponding peripheral surface or wall of the lead-bearing surface of the other one of said two different covering modules , wherein associated to said facing surfaces or walls are said mechanical connector means . - a movable structure (4-8; 103; 203; 301), - actuator means (M; 102; 202), for causing displacements of the movable structure (4-8; 103; 203; 301), - a control system (15; 303), which includes a control unit and is able to control the actuator means (M; 102; 202), - a sensorized covering (20; 120; 220; 320) which covers at least part of the movable structure (4-8; 103; 203; 301), - the covering modules (21-39; 110-113; 201-2011; 321-328) are mutually couplable in a separable way, - the load-bearing structure of at least some of the covering modules (21-39; 110-113; 201-2011; 321-328) of said plurality has associated to it mechanical connector means , for enabling to mechanically interconnect in a separable way at least two different covering modules of said plurality that are adjacent to each other, and - the load-bearing structure of one of said two different covering modules has at least one peripheral surface or wall designed to face a corresponding peripheral surface or wall of the lead-bearing surface of the other one of said two different covering modules , wherein associated to said facing surfaces or walls are said mechanical connector means .
A work vehicle support system comprising: an own vehicle position detecting module configured to detect an own vehicle position of a work vehicle; and a work-unfinished region outer-shape map calculating section configured to calculate, during circulating work-traveling along an outer perimeter of a work scheduled region, an outer-shape map of a work-unfinished region in the work scheduled region, from own vehicle position data acquired by the own vehicle position detecting module , and a route calculating section configured to calculate a target travel route along which work-traveling is to be performed in the work-unfinished region, based on the outer-shape map calculated by the work-unfinished region outer-shape map calculating section , characterized in that , if a deviation of an actual travel route from the target travel route is more than a predetermined value, an outer-shape map of a new work-unfinished region is calculated from own vehicle position data acquired by the own vehicle position detecting module in the work-traveling up until at that time, and a target travel route along which work-traveling is to be performed in a remaining work-unfinished region is re-calculated based on the newly calculated outer-shape map. an own vehicle position detecting module configured to detect an own vehicle position of a work vehicle; and a work-unfinished region outer-shape map calculating section configured to calculate, during circulating work-traveling along an outer perimeter of a work scheduled region, an outer-shape map of a work-unfinished region in the work scheduled region, from own vehicle position data acquired by the own vehicle position detecting module , and a route calculating section configured to calculate a target travel route along which work-traveling is to be performed in the work-unfinished region, based on the outer-shape map calculated by the work-unfinished region outer-shape map calculating section , characterized in that , if a deviation of an actual travel route from the target travel route is more than a predetermined value, an outer-shape map of a new work-unfinished region is calculated from own vehicle position data acquired by the own vehicle position detecting module in the work-traveling up until at that time, and a target travel route along which work-traveling is to be performed in a remaining work-unfinished region is re-calculated based on the newly calculated outer-shape map.