mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the treatment of turf comprising grass growing in a matrix , the treatment comprising removal of infestation such as thatch and diseases and other blights including alga, moss, fungi and slime mould, comprising removing matrix including any thatch and other infestation by blading moving through the matrix to a predetermined depth d below the surface of the turf , in which the blading is on a rotor having a given length and the blading is helical and has teeth , characterised in that the teeth are driven into the turf so as to lift the infestation, matrix and grass from the turf, leaving artificial grass, if present, in situ and wherein there is no part of the length of the rotor that does not have teeth at some part of its circumference, and the rotor is rotated with a speed of rotation about a horizontal axis with the teeth extended below the surface to the predetermined depth d , and the rotor is traversed over the turf in a direction of travel perpendicular to the horizontal axis with a rate of traverse, and the speed of rotation relative to the rate of traverse is such that infestation is removed from the turf , no part of the turf being left untreated.
A method for connecting a thermoplastic line element to a connecting element comprising the method steps: - providing the at least one thermoplastic line element ; - providing the connecting element having a thermoplastic body , wherein a heating element is embedded in the body for generating heat in a welding region for welding the body to the at least one line element ; - joining the connecting element to the at least one thermoplastic line element ; - providing a welding device for welding the connecting element to the at least one thermoplastic line element ; - inputting information about the connecting element to be welded into the welding device ; - welding the connecting element to the at least one thermoplastic line element by generating heat in the welding region by means of the welding device , wherein the welding device stops the welding of the connecting element to the at least one thermoplastic line element before the end of the planned welding duration and/or the welding device outputs an error message if an error criterion is reached, characterized in that the error criterion is reached when a certain number of error messages are summed up in an error counter implemented in the welding device . - providing the at least one thermoplastic line element ; - providing the connecting element having a thermoplastic body , wherein a heating element is embedded in the body for generating heat in a welding region for welding the body to the at least one line element ; - joining the connecting element to the at least one thermoplastic line element ; - providing a welding device for welding the connecting element to the at least one thermoplastic line element ; - inputting information about the connecting element to be welded into the welding device ; - welding the connecting element to the at least one thermoplastic line element by generating heat in the welding region by means of the welding device , wherein
A rotary connector , comprising: a case including a housing space and fixed to a vehicle body that includes a steering wheel including a steering-side electric component; a rotor that is rotatable around a rotational axis (AX) relative to the case ; a first connector provided on the rotor and electrically connected to the steering-side electric component; a second connector provided on the case and electrically connected to a vehicle-side electric component in the vehicle body ; a flexible cable that is provided in a wound state in the housing space of the case and electrically connects the first connector to the second connector ; and a controller that is disposed between the first connector and the flexible cable and performs a predetermined process on an electric signal transmitted between the first connector and the flexible cable , wherein the controller is configured to rotate together with the rotor , and wherein the controller is held by a flat plate part of the rotor , the flat plate part facing the housing space and extending in a direction orthogonal to the rotational axis (AX). a case including a housing space and fixed to a vehicle body that includes a steering wheel including a steering-side electric component; a rotor that is rotatable around a rotational axis (AX) relative to the case ; a first connector provided on the rotor and electrically connected to the steering-side electric component; a second connector provided on the case and electrically connected to a vehicle-side electric component in the vehicle body ; a flexible cable that is provided in a wound state in the housing space of the case and electrically connects the first connector to the second connector ; and a controller that is disposed between the first connector and the flexible cable and performs a predetermined process on an electric signal transmitted between the first connector and the flexible cable , wherein the controller is configured to rotate together with the rotor , and wherein the controller is held by a flat plate part of the rotor , the flat plate part facing the housing space and extending in a direction orthogonal to the rotational axis (AX).
A method, comprising: storing a plurality of sets of correlation values, each set of correlation values corresponding to a correlation performed between a number of first samples (155-1) and a same number of second samples (155-2), the sets of correlation values determined by aligning the number of the first samples (155-1) with a selected set of the second samples (155-2) and then sliding the number of first samples (155-1) across the second samples (155-2) to select different sets of the second samples (155-2), wherein the first samples (155-1) are samples of a forward signal transmitted over a cable/connector system to one or more antennas , the second samples (155-2) are samples of a reflected radio frequency signal that comprises a reflected version of the forward signal; determining a maximum value from the plurality of sets of correlation values; and associating the maximum value with a return loss of the cable/connector system . storing a plurality of sets of correlation values, each set of correlation values corresponding to a correlation performed between a number of first samples (155-1) and a same number of second samples (155-2), the sets of correlation values determined by aligning the number of the first samples (155-1) with a selected set of the second samples (155-2) and then sliding the number of first samples (155-1) across the second samples (155-2) to select different sets of the second samples (155-2), wherein the first samples (155-1) are samples of a forward signal transmitted over a cable/connector system to one or more antennas , the second samples (155-2) are samples of a reflected radio frequency signal that comprises a reflected version of the forward signal; determining a maximum value from the plurality of sets of correlation values; and associating the maximum value with a return loss of the cable/connector system .
Coil support for a rotary electric motor, comprising a coil holding arrangement having a plurality of coil holding portions for holding a corresponding plurality of coils , and a connectics receiving arrangement for housing interconnected cables and coil wires, the connectics receiving arrangement comprising a cable receiving portion having a plurality of recesses for housing cables, the cable receiving portion being arranged around a wire annular receiving portion having a plurality of through-holes extending from a top surface to a bottom surface of the wire annular receiving portion , wherein said top surface is arranged adjacent the coil holding arrangement while said bottom surface is located in the connectics receiving arrangement for electrical interconnection of the coils with the corresponding cables, the coil support further comprises a separation cylindrical wall arranged between the bottom surface of the wire annular receiving portion and the coil holding arrangement , wherein the coil holding arrangement comprises a plurality of projecting portions extending radially inwardly from an inner side of the wire annular receiving portion , said plurality of projecting portions being spaced apart regularly from each other to form therebetween said plurality of coil holding portions such that any of two adjacent projecting portions comprise each a linear surface facing each other against which lateral sides of a coil may be fixed.
A polymer coating, the coating comprising: a) one or more polymers, said polymers comprising a first cleavage site and b) a diagnostic agent that is non-covalently bound within the polymer coating, said diagnostic agent being releasable from said coating upon cleavage of said first cleavage site, wherein the first cleavage site is cleaved by a sortase enzyme specifically provided by a microbe belonging to a first group consisting of Gram positive bacteria, and not cleaved by any enzyme provided by any microbe not belonging to said first group, wherein cleavage of the said first cleavage site results in release of the said diagnostic agent from the coating, the release of said diagnostic agent being indicative for the presence of a microbe belonging to the said first group. a) one or more polymers, said polymers comprising a first cleavage site and b) a diagnostic agent that is non-covalently bound within the polymer coating, said diagnostic agent being releasable from said coating upon cleavage of said first cleavage site, wherein
A system, comprising: a tension adjustor positionable proximal an entrance of a mill stand for adjusting tension of a metal strip entering the mill stand ; a sensor for measuring tension fluctuations at or above 90 hertz of the metal strip entering the mill stand ; and a controller coupled to the sensor and the tension adjustor for actuating the tension adjustor to adjust the tension of the metal strip in response to the measured tension fluctuations, wherein the tension adjustor includes a deflection device capable of storing a length of the metal strip and at least one actuator for manipulating the deflection device to change the stored length of the metal strip at speeds at or above approximately 90 hertz, characterized in that the sensor is coupled to the mill stand for detecting vibrations indicative of the tension fluctuations of the metal strip . a tension adjustor positionable proximal an entrance of a mill stand for adjusting tension of a metal strip entering the mill stand ; a sensor for measuring tension fluctuations at or above 90 hertz of the metal strip entering the mill stand ; and a controller coupled to the sensor and the tension adjustor for actuating the tension adjustor to adjust the tension of the metal strip in response to the measured tension fluctuations, wherein the tension adjustor includes a deflection device capable of storing a length of the metal strip and at least one actuator for manipulating the deflection device to change the stored length of the metal strip at speeds at or above approximately 90 hertz, characterized in that the sensor is coupled to the mill stand for detecting vibrations indicative of the tension fluctuations of the metal strip .
A container which is filled with a flowable product from the sanitary, hygiene or care area, wherein the container is in the form of a refill which can be placed upside down for a dispensing system, wherein the container has an opening disposed in a plane and a closure removable by sliding in the plane, wherein the opening is provided on a connection of the container and wherein provided on the connection is at least one guide element at or in which the closure is slidable relative to the container , characterised in that the closure has at least one recess and/or projection at at least one of its outside surfaces .
A display device comprising: a spatial light modulator ; a display polariser arranged on the output side of the spatial light modulator , the display polariser being a linear polariser; an additional polariser arranged on the output side of the display polariser , the additional polariser being a linear polariser; and plural polar direction control retarders arranged between the additional polariser and the display polariser , wherein the plural polar direction control retarders include at least one passive retarder and together are capable of simultaneously introducing no net, relative phase shift to orthogonal polarisation components of light passed by the display polariser along an axis along a normal to the plane of the plural polar direction control retarders and introducing a net, relative phase shift to orthogonal polarisation components of light passed by the display polariser along an axis inclined to a normal to the plane of the plural polar direction control retarders , and wherein an air gap divides the plural polar direction control retarders into at least one air gap input retarder between the display polariser and the air gap and at least one air gap output retarder between the air gap and the additional polariser , and the at least one air gap input retarder is arranged to convert linearly polarised light passed by the display polariser into circularly polarised light. a spatial light modulator ; a display polariser arranged on the output side of the spatial light modulator , the display polariser being a linear polariser; an additional polariser arranged on the output side of the display polariser , the additional polariser being a linear polariser; and plural polar direction control retarders arranged between the additional polariser and the display polariser , wherein the plural polar direction control retarders include at least one passive retarder and together are capable of simultaneously introducing no net, relative phase shift to orthogonal polarisation components of light passed by the display polariser along an axis along a normal to the plane of the plural polar direction control retarders and introducing a net, relative phase shift to orthogonal polarisation components of light passed by the display polariser along an axis inclined to a normal to the plane of the plural polar direction control retarders , and wherein an air gap divides the plural polar direction control retarders into at least one air gap input retarder between the display polariser and the air gap and at least one air gap output retarder between the air gap and the additional polariser , and the at least one air gap input retarder is arranged to convert linearly polarised light passed by the display polariser into circularly polarised light.
Work table comprising a frame and at least one worktop equipped with electrical and/or electronic devices, with a ventilation device serving to, one one hand, cool the electrical and/or electronic devices installed in the worktop plate and, on the other hand, ventilate the cleaned and conditioned air above the worktop plate, wherein, on the bottom side of the worktop , are arranged at least a first receiving module , a second receiving module , a fan module and an exhaust air duct , wherein the fan module has a fan for drawing in the ambient air as well as a filter for cleaning the drawn-in air and is coupled to the second receiving module , both being accommodated in the same housing, and the fan module with the coupled second receiving module being both connected to the first receiving module by means of air ducts arranged on the exhaust air duct .
A station for inserting a bottle (A) in a casing (B), of the type that can be installed between a line for supplying said bottles (A) and a line for forming/delivering said casings (B), wherein the station comprises at least one functional arm provided with grip means for at least one bottle (A) said arm being movable between a pickup configuration, in which it is aligned with a region for delivering said bottles (A) of said supply line, and an insertion configuration, in which it is aligned with a casing (B) arranged on the end portion of said line for forming/delivering said casings (B), said grip means being translatable along said arm , characterized in that the station comprises at least one laminar tab that can be oriented to move the top flaps (D) of a casing (B), said grip means being translatable along said arm between a raised configuration, in which they surmount said laminar tab , and a lowered configuration, in which they are, at least partially, at a substantially lower height than said laminar tab , said laminar tab being able to slide along said arm between a lowered configuration of substantial alignment of its terminal edge with at least one upper portion of the lateral walls of a said casing (B) arranged on the respective forming/delivery line and a raised configuration in which said terminal edge is at a higher level.
A process for the preparation of a composition comprising oxygenates and hydrocarbons by means of a Fischer-Tropsch synthesis reaction, said process comprising contacting a mixture of hydrogen, carbon monoxide, and carbon dioxide gases with a supported Co-Mn Fischer-Tropsch synthesis catalyst, wherein the supported synthesis catalyst comprises at least 2.5 wt.% of manganese and less than 0.1 wt.% of copper, on an elemental basis, based on the total weight of the supported synthesis catalyst; the weight ratio of manganese to cobalt, on an elemental basis, is 0.2 or greater; and, wherein the amount of carbon dioxide present in the Fischer-Tropsch synthesis reaction is at least 5 %v/v.
A base station configured to allocate resources in time intervals, wherein each time interval includes at least one forward link control channel and a forward link shared channel, comprising: means for allocating forward link and reverse link resources on a time interval basis at each time interval to a plurality of mobile devices; means for transmitting control information in the at least one forward link control channel during a first time interval, wherein the control information is associated with forward link shared channel allocations of resources and reverse link shared channel allocations of resources; means for transmitting data to a mobile device based on the control information indicating that forward link shared channel resources are allocated to the mobile device; and the base station characterized by : means for receiving a reverse link transmission from the mobile device, based on the control information indicating that reverse link shared channel resources are allocated to the mobile device, in a second time interval that is a fixed number of time intervals after the first time interval. means for allocating forward link and reverse link resources on a time interval basis at each time interval to a plurality of mobile devices; means for transmitting control information in the at least one forward link control channel during a first time interval, wherein the control information is associated with forward link shared channel allocations of resources and reverse link shared channel allocations of resources; means for transmitting data to a mobile device based on the control information indicating that forward link shared channel resources are allocated to the mobile device; and the base station characterized by : means for receiving a reverse link transmission from the mobile device, based on the control information indicating that reverse link shared channel resources are allocated to the mobile device, in a second time interval that is a fixed number of time intervals after the first time interval.
A turbine airfoil comprising: a leading edge ; a trailing edge ; a root ; a tip ; a pressure side wall extending between the leading edge and the trailing edge and between the root and the tip; a suction side wall extending between the leading edge and the trailing edge and between the root and the tip; a plurality of cooling channels having a non-circular cross-sectional shape and is referred to as a non-circular cooling channels defined by the turbine airfoil and extending radially between the root and the tip; a plurality of cooling channels having a cross-sectional geometry that is circular and is referred to as a circular cooling channels defined by the turbine airfoil and extending radially between the root and the tip, wherein all of the plurality of non-circular cooling channels are located between the leading edge and the plurality of circular cooling channels ; and a plurality of exhaust holes , each of the plurality of exhaust holes extending between one of the plurality of non-circular cooling channels and the suction side wall to fluidly couple the plurality of non-circular cooling channels and an exterior region of the turbine airfoil, each of the plurality of exhaust holes radially located between the root and the tip. a leading edge ; a trailing edge ; a root ; a tip ; a pressure side wall extending between the leading edge and the trailing edge and between the root and the tip; a suction side wall extending between the leading edge and the trailing edge and between the root and the tip; a plurality of cooling channels having a non-circular cross-sectional shape and is referred to as a non-circular cooling channels defined by the turbine airfoil and extending radially between the root and the tip; a plurality of cooling channels having a cross-sectional geometry that is circular and is referred to as a circular cooling channels defined by the turbine airfoil and extending radially between the root and the tip, wherein all of the plurality of non-circular cooling channels are located between the leading edge and the plurality of circular cooling channels ; and a plurality of exhaust holes , each of the plurality of exhaust holes extending between one of the plurality of non-circular cooling channels and the suction side wall to fluidly couple the plurality of non-circular cooling channels and an exterior region of the turbine airfoil, each of the plurality of exhaust holes radially located between the root and the tip.
A method for controlling a washing machine which is provided with a drum motion (S30) for rotating a drum having laundry introduced thereto in a preset direction by using a motor , comprising the steps of: an observing motion (S21) in which the drum is rotated from a stationary state up to a preset observing reference angle in a direction opposite to a direction set in the drum motion (S30) before the drum motion (S30) is performed; an inertia motion in which a current supplied to the motor is cut off so that the drum rotates by inertia after the drum rotates to the observing reference angle, wherein the inertia motion is configured to be executed after finish of the observing motion (S21); and an acceleration motion (S25) in which the drum is rotated up to a preset acceleration reference angle in the same direction as the direction set in the drum motion (S30) with reference to the lowest point of the drum , wherein the acceleration motion (S25) is configured to be executed after the inertia motion; wherein the observing reference angle is 15-45 degrees in a rotation direction of the observing motion (S21) with reference to a lowest point of the drum . an observing motion (S21) in which the drum is rotated from a stationary state up to a preset observing reference angle in a direction opposite to a direction set in the drum motion (S30) before the drum motion (S30) is performed; an inertia motion in which a current supplied to the motor is cut off so that the drum rotates by inertia after the drum rotates to the observing reference angle, wherein the inertia motion is configured to be executed after finish of the observing motion (S21); and an acceleration motion (S25) in which the drum is rotated up to a preset acceleration reference angle in the same direction as the direction set in the drum motion (S30) with reference to the lowest point of the drum , wherein the acceleration motion (S25) is configured to be executed after the inertia motion; wherein the observing reference angle is 15-45 degrees in a rotation direction of the observing motion (S21) with reference to a lowest point of the drum .