mhurhangee/ep-ind-claims huggingface dataset:
An architectural opening covering system, comprising: a first motor configured to move a middle rail relative to a fixed top rail; a second motor configured to move a bottom rail relative to the middle rail and the fixed top rail; a control interface (222, 406) with which a user is able to control the architectural opening covering system; a controller configured, responsive to the control interface (222, 406), to selectively actuate the first motor to move the middle rail based on a first position of the middle rail and a first position of the bottom rail, and to selectively actuate the second motor to move the bottom rail based on a second position of the middle rail and a second position of the bottom rail; and a rotary encoder; wherein the controller is configured to determine a maximum upward position and a maximum downward position of the middle rail based on measurements of electrical current drawn by the first motor, to determine the maximum upward position by associating a first electrical current measurement with a first rotary encoder reading from the rotary encoder and to determine the maximum downward position by associating a second electrical current measurement with a second rotary encoder reading from the rotary encoder. a first motor configured to move a middle rail relative to a fixed top rail; a second motor configured to move a bottom rail relative to the middle rail and the fixed top rail; a control interface (222, 406) with which a user is able to control the architectural opening covering system; a controller configured, responsive to the control interface (222, 406), to selectively actuate the first motor to move the middle rail based on a first position of the middle rail and a first position of the bottom rail, and to selectively actuate the second motor to move the bottom rail based on a second position of the middle rail and a second position of the bottom rail; and a rotary encoder; wherein the controller is configured to determine a maximum upward position and a maximum downward position of the middle rail based on measurements of electrical current drawn by the first motor, to determine the maximum upward position by associating a first electrical current measurement with a first rotary encoder reading from the rotary encoder and to determine the maximum downward position by associating a second electrical current measurement with a second rotary encoder reading from the rotary encoder.
A soybean plant, or cells, parts, seed or progeny thereof, each comprising elite event EE-GM3 and elite event EE-GM2 in its genome, wherein elite event EE-GM3, as found in reference seed deposited at the NCIMB under deposit number NCIMB 41659, is a genetic locus comprising a foreign DNA comprising a chimeric 2mEPSPS encoding gene and a chimeric HPPD PF W336 encoding gene, and wherein elite event EE-GM2, as found in reference seed deposited at the NCIMB under deposit number NCIMB 41660, is a genetic locus comprising a foreign DNA comprising a chimeric phosphinothricin acetyltransferase encoding gene.
A filling machine to fill capsules with respective quantities of an incoherent product; the filling machine comprises: at least one tray having a plurality of first pockets, which are designed to each hold a corresponding capsule; a feeding unit, which receives a disorderly mass of empty capsules and inserts the capsules into the first pockets of the tray so as to fill the tray; a filling unit, which receives, from the feeding unit, the tray containing empty capsules, so as to feed into each capsule the corresponding quantity of product; a transferring unit, which receives, from the filling unit, the tray containing full capsules and transfers the full capsules to an output of the filling machine; and a main conveyor, which feeds the tray from an output station of the feeding unit to an input station of the feeding unit passing through the filling unit and the transferring unit; the filling machine is characterized in that: the main conveyor has a final straight branch, which is arranged at the input station of the feeding unit, and an initial straight branch, which is arranged at the output station of the feeding unit and is parallel to as well as faces the final branch; and the feeding unit comprises a feeding conveyor, which picks up the tray from the final branch of the main conveyor arranged at the input station and feeds the tray, along a feeding direction, up to the initial branch of the main conveyor arranged at the output station of the feeding unit. at least one tray having a plurality of first pockets, which are designed to each hold a corresponding capsule; a feeding unit, which receives a disorderly mass of empty capsules and inserts the capsules into the first pockets of the tray so as to fill the tray; a filling unit, which receives, from the feeding unit, the tray containing empty capsules, so as to feed into each capsule the corresponding quantity of product; a transferring unit, which receives, from the filling unit, the tray containing full capsules and transfers the full capsules to an output of the filling machine; and a main conveyor, which feeds the tray from an output station of the feeding unit to an input station of the feeding unit passing through the filling unit and the transferring unit; the main conveyor has a final straight branch, which is arranged at the input station of the feeding unit, and an initial straight branch, which is arranged at the output station of the feeding unit and is parallel to as well as faces the final branch; and the feeding unit comprises a feeding conveyor, which picks up the tray from the final branch of the main conveyor arranged at the input station and feeds the tray, along a feeding direction, up to the initial branch of the main conveyor arranged at the output station of the feeding unit.
A reflecting mirror for solar radiation collection, comprising a film mirror and a frame-shaped support member adapted to support a peripheral edge of the film mirror, wherein mm; the support member is in contact with the film mirror and has a curved face which is convexed outward in a horizontal direction with respect to an opening face of the support member; and characterised in that the film mirror has a film thickness of 0.10 to 0.30 mm; and the curved face has a radius of curvature between 15 mm and 30 mm.
A lighting device comprising - a transparent carrier plate, - a structured transparent electrically conductive layer, provided on a first surface of the transparent carrier plate and having a sheet resistance R tcl, - an LED, having a terminal, mounted on the transparent carrier plate, - a contact pad, provided directly on the structured transparent electrically conductive layer, with a sheet resistance R cp, the ratio R tcl / R cp being larger than 1, the contact pad having a first part, - the LED terminal being coupled to the structured transparent electrically conductive layer by means of a conductive adhesive via the first part, wherein the contact pad further has an elongated second part extending away from the LED for reducing the current density in the structured transparent electrically conductive layer, characterized in that the elongated second part has a first edge with a length L cp and a second edge with a width W cp, L cp and W cp satisfying the relation L cp < W cp * R tcl / R cp. - a transparent carrier plate, - a structured transparent electrically conductive layer, provided on a first surface of the transparent carrier plate and having a sheet resistance R tcl, - an LED, having a terminal, mounted on the transparent carrier plate, - a contact pad, provided directly on the structured transparent electrically conductive layer, with a sheet resistance R cp, the ratio R tcl / R cp being larger than 1, the contact pad having a first part, - the LED terminal being coupled to the structured transparent electrically conductive layer by means of a conductive adhesive via the first part,
A method for preparing squalene from a composition comprising squalene from an animal source, said method comprising steps of (a) a purification distillation carried out at a temperature T 1, (b) a denaturing distillation carried out at a temperature T 2; wherein steps (a) and (b) may be performed in either order; T 1 and T 2 are sufficient to cause squalene to boil; T 2 > T 1; and T 2 ≥ 200°C; and T 2 -T 1 is from 30°C to 250°C.
A method of calculating, in a workload manager, a dispatcher's share of the relative amount of workload items a dispatcher should receive, said workload manager coupled to an arbitrator, said arbitrator coupled to a plurality of systems, each system comprising a dispatcher, each dispatcher coupled to a plurality of execution units, said arbitrator being adapted for receiving and distributing a flow of workload items to said dispatchers, said execution units being adapted for executing said workload items, said workload items being of at least a first, a second or a third type, said method comprising the steps of: reading a total of service units (W, 407) for each workload type across said plurality of systems from a memory, said service units being a value for measuring CPU consumption in a time interval; reading a capacity (cap, 408, 409, 410) value for each workload type on each system of said plurality of systems from said memory, said capacity value being indicative of a maximum of service units that a system can execute in said time interval; calculating a first, second and third dispatcher's relative share by dividing said capacity of each workload type on each system by said total of service units of each workload type and obtaining the minimum value of said dispatcher's relative share of each system; calculating a relative queue length (V, 424, 425, 426) for each system by dividing a queue length (q, 421, 422, 423) of said workload items for each workload type on each system by said capacity of each workload type on each system; calculating said dispatcher's share for each system by combining said minimum value and a first function of said relative queue length using an arithmetic operation, wherein said first function of said relative queue length comprises calculating an inverse of one plus a maximum of said relative queue length and said arithmetic operation is a multiplication. reading a total of service units (W, 407) for each workload type across said plurality of systems from a memory, said service units being a value for measuring CPU consumption in a time interval; reading a capacity (cap, 408, 409, 410) value for each workload type on each system of said plurality of systems from said memory, said capacity value being indicative of a maximum of service units that a system can execute in said time interval; calculating a first, second and third dispatcher's relative share by dividing said capacity of each workload type on each system by said total of service units of each workload type and obtaining the minimum value of said dispatcher's relative share of each system; calculating a relative queue length (V, 424, 425, 426) for each system by dividing a queue length (q, 421, 422, 423) of said workload items for each workload type on each system by said capacity of each workload type on each system; calculating said dispatcher's share for each system by combining said minimum value and a first function of said relative queue length using an arithmetic operation,
Pressing member (100, 100') for pressing an electrical device against a surface, the pressing member (100, 100') comprising a portion in the form of a plate and a plurality of spring leaves, each spring leaf having a first end integral with the portion in the form of a plate and a second distal end with respect to the first end, said second end being intended to bear against the electrical device on which the pressing member (100, 100') exerts a force, said portion in the form of a plate comprising at least one first through-opening, the pressing member (100, 100') being characterized in that the edges of the first through-opening are entirely formed by said plurality of spring leaves.
A method for handling co-channel cell interference, comprising: obtaining, by a base station, interference information of a non-serving cell, wherein the interference information comprises a generation parameter, and the generation parameter is a parameter value used to determine an initialization parameter of a user-terminal-specific reference signal sequence of the non-serving cell; and sending, by the base station, the obtained interference information of the non-serving cell to a user terminal, UE, wherein the interference information is used to suppress co-channel interference of the non-serving cell in demodulating physical downlink shared channel, PDSCH; wherein the generation parameter is a physical cell identifier and the interference information further comprises physical resource block, PRB, bundling information of the non-serving cell. obtaining, by a base station, interference information of a non-serving cell, wherein the interference information comprises a generation parameter, and the generation parameter is a parameter value used to determine an initialization parameter of a user-terminal-specific reference signal sequence of the non-serving cell; and sending, by the base station, the obtained interference information of the non-serving cell to a user terminal, UE, wherein the interference information is used to suppress co-channel interference of the non-serving cell in demodulating physical downlink shared channel, PDSCH; wherein the generation parameter is a physical cell identifier and the interference information further comprises physical resource block, PRB, bundling information of the non-serving cell.
A photovoltaic module comprising: a base plate including: a support portion including one or more connection hooks and an overlap portion including one or more connection recesses; and a photovoltaic laminate that is connected to the base plate; wherein the photovoltaic module is configured to be directly connected to a roofing structure and provide roofing functions, wherein the photovoltaic laminate is connected to the support portion and the photovoltaic laminate is removable from the support portion without damaging the base plate and the overlap portion is configured to be at least partially covered by one or more adjacent photovoltaic modules; wherein one or more adjacent photovoltaic modules include one or more connection hooks that extend through the one or more connection recesses in the overlap portion so that the one or more adjacent photovoltaic modules are connected to the base plate; and wherein the base plate retains its roofing functions when the photovoltaic laminate is removed. a base plate including: a support portion including one or more connection hooks and an overlap portion including one or more connection recesses; and a support portion including one or more connection hooks and an overlap portion including one or more connection recesses; and a photovoltaic laminate that is connected to the base plate;
A valve assembly, comprising: a valve seat comprising an inner concentric valve seat and an outer concentric valve seat, the inner concentric valve seat being arranged radially inward of the outer concentric valve seat to provide an annular opening therebetween; a moveable plunger, being moveable between a closed position and an open position to vary a flow restriction at the inner and outer concentric valve seats, and arranged to simultaneously seal the inner concentric valve seat and the outer concentric valve seat when in the closed position; an inner valve member comprising the inner concentric valve seat; an outer valve member comprising the outer concentric valve seat; wherein the inner valve member is a separate component from the outer valve member and is mounted in fixed relation to the outer valve member via mounting means, the mounting means comprising: axial alignment means configured to maintain axial alignment of the inner concentric valve seat relative to the outer concentric valve seat along an axis, the axis being substantially orthogonal to a plane of the inner and outer concentric valve seats, characterized in that the mounting means further comprises radial alignment means (127, 150) configured to maintain concentricity of the inner concentric valve seat relative to the outer concentric valve seat. a valve seat comprising an inner concentric valve seat and an outer concentric valve seat, the inner concentric valve seat being arranged radially inward of the outer concentric valve seat to provide an annular opening therebetween; a moveable plunger, being moveable between a closed position and an open position to vary a flow restriction at the inner and outer concentric valve seats, and arranged to simultaneously seal the inner concentric valve seat and the outer concentric valve seat when in the closed position; an inner valve member comprising the inner concentric valve seat; an outer valve member comprising the outer concentric valve seat; wherein the inner valve member is a separate component from the outer valve member and is mounted in fixed relation to the outer valve member via mounting means, the mounting means comprising: axial alignment means configured to maintain axial alignment of the inner concentric valve seat relative to the outer concentric valve seat along an axis, the axis being substantially orthogonal to a plane of the inner and outer concentric valve seats, characterized in that the mounting means further comprises radial alignment means (127, 150) configured to maintain concentricity of the inner concentric valve seat relative to the outer concentric valve seat. axial alignment means configured to maintain axial alignment of the inner concentric valve seat relative to the outer concentric valve seat along an axis, the axis being substantially orthogonal to a plane of the inner and outer concentric valve seats, characterized in that the mounting means further comprises radial alignment means (127, 150) configured to maintain concentricity of the inner concentric valve seat relative to the outer concentric valve seat.
A method of determining a status of an acoustic feedback path of a head wearable hearing device, the head wearable hearing device comprising a first housing being located in the ear canal of a user, a microphone (110, 110', 110"), and a first control system configured for controlling an active vent of the first housing between an open state and a closed state; the first housing comprising a loudspeaker, and a proximal end and a distal end, the active vent comprising a vent canal forming a passage for air through the first housing from the proximal end to the distal end, and a valve member configured for blocking said vent canal in the closed state and allowing passage of air through the vent canal in said open state; the method comprising: - emitting an acoustic signal from said loudspeaker; - measuring (503, 603) a first transfer function (AV_Open) of the acoustic feedback path between the loudspeaker and the microphone in response to the emitted signal, when the first control system controls the active vent to be in an open state; - measuring (505, 605) a second transfer function (AV_Close) of the acoustic feedback path between the loudspeaker and the microphone in response to the emitted signal, when the first control system controls the active vent is expected to be in a closed state; determining the status of the active vent based at least on a comparison the first and second measured transfer functions (AV_Open, AV_Close). - emitting an acoustic signal from said loudspeaker; - measuring (503, 603) a first transfer function (AV_Open) of the acoustic feedback path between the loudspeaker and the microphone in response to the emitted signal, when the first control system controls the active vent to be in an open state; - measuring (505, 605) a second transfer function (AV_Close) of the acoustic feedback path between the loudspeaker and the microphone in response to the emitted signal, when the first control system controls the active vent is expected to be in a closed state;
An aerial distribution supporting apparatus which, when distribution material is distributed over a target site on a ground surface from an aircraft, offers support information to a pilot dropping the distribution material to efficiently distribute the distribution material, wherein the distribution material is water or a fire extinguishing agent to be distributed over a fire site, the apparatus comprising: an input section to which information items on at least a velocity and an altitude of the aircraft and a wind velocity are input, a computation section and a display control section; characterised in that the computation section is configured to compute a location at which the distribution material dropped from the aircraft arrives on the ground surface and a density distribution of the distribution material on the ground surface based on the information items input to the input section; and the display control section is configured to display, on a display, the support information relating to the location and density distribution computed by the computation section, the computation section is configured to compute an effective distribution density area in which the distribution material is distributed at a density higher than or equal to a predetermined density required to effectively extinguish a fire, and a location of the effective distribution density area, and the display control section is configured to display, on the display, the effective distribution density area obtained by dropping the distribution material at a present moment, and the location of the effective distribution density area as the support information in real time. an input section to which information items on at least a velocity and an altitude of the aircraft and a wind velocity are input, a computation section and a display control section; characterised in that the computation section is configured to compute a location at which the distribution material dropped from the aircraft arrives on the ground surface and a density distribution of the distribution material on the ground surface based on the information items input to the input section; and the display control section is configured to display, on a display, the support information relating to the location and density distribution computed by the computation section, the computation section is configured to compute an effective distribution density area in which the distribution material is distributed at a density higher than or equal to a predetermined density required to effectively extinguish a fire, and a location of the effective distribution density area, and the display control section is configured to display, on the display, the effective distribution density area obtained by dropping the distribution material at a present moment, and the location of the effective distribution density area as the support information in real time.
An agent for use in the prevention or treatment of a disease or disorder associated with lipid metabolism in an animal or human subject comprising, as an active ingredient, broken cells of a lactic acid bacterium.
A nitrogen-based non-thermal atmospheric pressure plasma for use in a method for treating damaged muscles or promoting regeneration of damaged muscles, the method comprising a step of treating a damaged muscle site with the nitrogen-based non-thermal atmospheric pressure plasma, wherein the nitrogen-based non-thermal atmospheric pressure plasma is produced by a method comprising the steps of: introducing nitrogen gas as a carrier gas; and applying a discharge initiation voltage of 5 to 10 kV to the introduced nitrogen gas at a frequency of 5 to 20 kHz, thereby producing a nitrogen-based non-thermal atmospheric pressure plasma. introducing nitrogen gas as a carrier gas; and applying a discharge initiation voltage of 5 to 10 kV to the introduced nitrogen gas at a frequency of 5 to 20 kHz, thereby producing a nitrogen-based non-thermal atmospheric pressure plasma.