mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a support structure configured to support a body , wherein the body is rotatable with respect to the support structure; the body including: a first runner and a second runner that are intertwined and helically wound around each other in a double helix that forms a toroidal shape, the toroidal shape having a center, wherein the toroidal shape is bisected by a plane that includes the center and divides the toroidal shape into two similar circular halves; and a first conductive wire spirally wound around the first runner ; anc one or more power sources configured to provide an alternating current to the first conductive wire, and configured to provide power to rotate the body with respect to the support structure at more than one revolution per second, wherein the body is rotatable around a rotational axis, wherein the rotational axis is positioned within the plane, wherein the rotational axis intersects the center, wherein the body is configured to accommodate an organism near the center, and wherein the system is configured to generate an electromagnetic effect responsive to the alternating current being provided. a support structure configured to support a body , wherein the body is rotatable with respect to the support structure; the body including: a first runner and a second runner that are intertwined and helically wound around each other in a double helix that forms a toroidal shape, the toroidal shape having a center, wherein the toroidal shape is bisected by a plane that includes the center and divides the toroidal shape into two similar circular halves; and a first conductive wire spirally wound around the first runner ; anc one or more power sources configured to provide an alternating current to the first conductive wire, and configured to provide power to rotate the body with respect to the support structure at more than one revolution per second, wherein the body is rotatable around a rotational axis, wherein the rotational axis is positioned within the plane, wherein the rotational axis intersects the center, wherein the body is configured to accommodate an organism near the center, and wherein the system is configured to generate an electromagnetic effect responsive to the alternating current being provided.
A motor drive control apparatus , comprising: a speed processing unit that generates a first value (D O ) by converting a second value corresponding to a current speed into a duty ratio; a torque processing unit that generates a third value (D T ) by converting a fourth value corresponding to a target torque into the duty ratio; and a drive unit that controls switching by a switch included in a complementary switching amplifier by an average duty ratio corresponding to a sum of the first value (D O ) and the third value (D T ) to drive a motor connected to the complementary switching amplifier . a speed processing unit that generates a first value (D O ) by converting a second value corresponding to a current speed into a duty ratio; a torque processing unit that generates a third value (D T ) by converting a fourth value corresponding to a target torque into the duty ratio; and a drive unit that controls switching by a switch included in a complementary switching amplifier by an average duty ratio corresponding to a sum of the first value (D O ) and the third value (D T ) to drive a motor connected to the complementary switching amplifier .
Doctor blade , in particular for printing cylinders and coating units, with a doctor blade edge , a doctor blade body which is limited by a doctor blade upper side and a doctor blade underside , and a curved blade profile which is formed between the doctor blade edge and the doctor blade body , characterized in that, in the unloaded state of the doctor blade and in relation to a Cartesian coordinate system, the curved blade profile has a cuboidal course f(x) from the doctor blade edge to the doctor blade body , wherein the y-axis of the Cartesian coordinate system coincides with the doctor blade edge and the x-axis of the Cartesian coordinate system coincides with the doctor blade upper side .
A shaped charge liner comprising: an axis ; a first section having a substantially conical shape, a first inner surface , a lowermost apex , and a first conical angle respective to the first inner surface ; a second section having a substantially frusto-conical shape, a second inner surface , and a second conical angle respective to the second inner surface ; a third section having a substantially frusto-conical shape, a third inner surface , a top surface perpendicular to the axis, and a third conical angle respective to the third inner surface ; wherein the first section , second section and third section are axially aligned about the axis , the second conical angle is larger than the first conical angle and the second conical angle is larger than the third conical angle ; and a total height , wherein the total height is measured from the apex of the first section along the axis to a plane perpendicular to the top surface ; characterised in that the first conical angle is larger than the third conical angle , wherein the first conical angle is between 44 and 52 degrees, the second conical angle is between 56 and 58 degrees, and the third conical angle is between 44 and 54 degrees. an axis ; a first section having a substantially conical shape, a first inner surface , a lowermost apex , and a first conical angle respective to the first inner surface ; a second section having a substantially frusto-conical shape, a second inner surface , and a second conical angle respective to the second inner surface ; a third section having a substantially frusto-conical shape, a third inner surface , a top surface perpendicular to the axis, and a third conical angle respective to the third inner surface ; wherein the first section , second section and third section are axially aligned about the axis , the second conical angle is larger than the first conical angle and the second conical angle is larger than the third conical angle ; and a total height , wherein the total height is measured from the apex of the first section along the axis to a plane perpendicular to the top surface ; characterised in that the first conical angle is larger than the third conical angle , wherein the first conical angle is between 44 and 52 degrees, the second conical angle is between 56 and 58 degrees, and the third conical angle is between 44 and 54 degrees.
An array of flow units arranged to have a lateral extension in a common lateral plane, wherein each flow unit is adapted to control a respective flow of a fluid a in a direction intersecting the common lateral plane, each flow unit comprising: a first electrode ; and a second electrode offset from the first electrode in a downstream direction of the flow of the fluid, the electrodes being connectable to a voltage source; wherein the first electrode comprises bridges and joints forming a grid structure, which is arranged to allow the fluid to flow through the first electrode; and at least a portion of at least one of the bridges has a maximum height (h 1 ) in a direction parallel to a direction of the flow and a maximum gauge (w 1 ) in a direction orthogonal to the direction of the flow, wherein said maximum height is larger than said maximum gauge; and wherein a downstream side (D) of a first one the flow units is in fluid communication with an upstream side (U) of a second one of the flow units so as to allow a flow of fluid to pass through said first and second one of the flow units. a first electrode ; and a second electrode offset from the first electrode in a downstream direction of the flow of the fluid, the electrodes being connectable to a voltage source; wherein the first electrode comprises bridges and joints forming a grid structure, which is arranged to allow the fluid to flow through the first electrode; and at least a portion of at least one of the bridges has a maximum height (h 1 ) in a direction parallel to a direction of the flow and a maximum gauge (w 1 ) in a direction orthogonal to the direction of the flow, wherein said maximum height is larger than said maximum gauge; and wherein a downstream side (D) of a first one the flow units is in fluid communication with an upstream side (U) of a second one of the flow units so as to allow a flow of fluid to pass through said first and second one of the flow units.
An apparatus for generating aerosol from an aerosolisable medium, the aerosol being generated by heating the aerosolisable medium, the apparatus comprising: a housing ; a chamber for receiving an article , the article comprising: the aerosolisable medium; and a marker arrangement comprising a first marker and a second marker spaced apart from each other by a predetermined distance; and a sensor arrangement comprising a first sensor for sensing the first marker and a second sensor for sensing the second marker , wherein: the first sensor and the second sensor are spaced from each other by approximately the same distance as the predetermined distance; the first sensor has a first sense region in which the first sensor is able to sense the first marker ; the second sensor has a second sense region in which the second sensor is able to sense the second marker ; and the first and second sensors are spaced from each other such that a point in the first sense region and a point in the second sense region are spaced apart from each other by the predetermined distance. a housing ; a chamber for receiving an article , the article comprising: the aerosolisable medium; and a marker arrangement comprising a first marker and a second marker spaced apart from each other by a predetermined distance; and a sensor arrangement comprising a first sensor for sensing the first marker and a second sensor for sensing the second marker , wherein: the first sensor and the second sensor are spaced from each other by approximately the same distance as the predetermined distance; the first sensor has a first sense region in which the first sensor is able to sense the first marker ; the second sensor has a second sense region in which the second sensor is able to sense the second marker ; and the first and second sensors are spaced from each other such that a point in the first sense region and a point in the second sense region are spaced apart from each other by the predetermined distance. the first sensor and the second sensor are spaced from each other by approximately the same distance as the predetermined distance; the first sensor has a first sense region in which the first sensor is able to sense the first marker ; the second sensor has a second sense region in which the second sensor is able to sense the second marker ; and the first and second sensors are spaced from each other such that a point in the first sense region and a point in the second sense region are spaced apart from each other by the predetermined distance.
A light deflection device , comprising: - a waveguide , having a diffraction grating with a periodically low-refractive-index region on a high-refractive member; - a lens characterized in that said lens is a prism lens comprising: a prism lens body having a set of facing planes , a mutual distance of which decreases or increases from one end to another end; and two cylindrical lenses integral to both planes of the set of facing planes , wherein the prism lens is configured such that light radiated from the waveguide enters from one plane of the set of facing planes and exits from the other plane of the set of facing planes , wherein the prism lens body is formed such that a distance between the set of facing planes is shorter toward a downstream side of the direction of incidence of light to the waveguide , and wherein each cylindrical lens is formed such that a cross section shape thereof, at a plane (Pa, Pb) perpendicular to a direction (A, B) of a slope of a facing plane of the prism lens body having the corresponding cylindrical lens thereon with respect to the other facing plane of the set of facing planes , has a certain curved shape to be convex against the facing plane having the corresponding cylindrical lens thereon. - a waveguide , having a diffraction grating with a periodically low-refractive-index region on a high-refractive member; - a lens a prism lens body having a set of facing planes , a mutual distance of which decreases or increases from one end to another end; and two cylindrical lenses integral to both planes of the set of facing planes , wherein the prism lens is configured such that light radiated from the waveguide enters from one plane of the set of facing planes and exits from the other plane of the set of facing planes , wherein the prism lens body is formed such that a distance between the set of facing planes is shorter toward a downstream side of the direction of incidence of light to the waveguide , and wherein each cylindrical lens is formed such that a cross section shape thereof, at a plane (Pa, Pb) perpendicular to a direction (A, B) of a slope of a facing plane of the prism lens body having the corresponding cylindrical lens thereon with respect to the other facing plane of the set of facing planes , has a certain curved shape to be convex against the facing plane having the corresponding cylindrical lens thereon.
Device for generating active haptic feedback, having a piezoelectric actuator which comprises a flat piezoelectric base body (GK) with plane-parallel main surfaces (DF) as well as first and second actuator electrodes (E 1 , E 2 ), wherein the base body is configured to generate active haptic feedback if a force which is applied to the base body is detected, wherein the haptic feedback is generated by virtue of the fact that an electrical actuator voltage is applied between the first and second actuator electrodes, said volage bringing about, by means of a piezoelectric actuator effect, a change in length of the base body along a line which is perpendicular to one of the main surfaces, wherein a truncated-cone-shaped piece of sheet metal (KB) - cymbal- is attached to each of the two main surfaces of the base body in such a way that the obtuse tip of the cone points away from the base body (GK) in each case, wherein the base body with the obtuse tips of the cone is secured between a base (B) and an activation means (BP, MB), wherein the activation means is connected to the base and is secured thereto by means of a prestress which is set as a tensile stress or compressive stress, characterized in that a measuring electrode (ME1) is arranged in the base body, wherein a measuring unit (ME) is provided for measuring a measuring volage which is generated between the measuring electrode and one of the actuator electrodes and arises owing to a force which is applied to the base body (GK), and wherein the component is configured to detect this applied force as soon as the measuring voltage which is sensed by the measuring unit (ME) exceeds a threshold value which is assigned to a triggering force, wherein when the triggering force is reached by means of a voltage generator an actuator voltage is generated and applied to the actuator electrodes, and at the same time a further action is triggered which serves to operate the device or an electrical component which is connected thereto.
A chamber frame element for an electrolyzer or an electrodialysis cell, the chamber frame element comprising: a bag body ; a frame housed in an interior space of the bag body ; and an inlet and an outlet to which piping can be attached, the inlet and the outlet being formed on the outside of a region where the frame is housed in the bag body , wherein the frame comprises a flow path that allows a liquid inflowing from the inlet to flow inside the frame and a liquid inside the frame to flow to the outlet , and the flow path is a groove or a channel that communicates to the outside and the inside of the frame . a bag body ; a frame housed in an interior space of the bag body ; and an inlet and an outlet to which piping can be attached, the inlet and the outlet being formed on the outside of a region where the frame is housed in the bag body , wherein the frame comprises a flow path that allows a liquid inflowing from the inlet to flow inside the frame and a liquid inside the frame to flow to the outlet , and the flow path is a groove or a channel that communicates to the outside and the inside of the frame .
A method for transmitting a Physical Random Access Channel PRACH, the method comprising: in a Carrier Aggregation CA scenario, transmitting in a Primary Serving Cell Pcell or a Secondary Serving Cell Scell, by a base station, a random access trigger message to a User Equipment UE ; transmitting in the Scell, by the UE, a PRACH ; transmitting in the Pcell or the Scell, by the base station, a random access procedure message 2 to the UE ; and when the base station transmits, in the Pcell, the random access procedure message 2 to the UE, detecting, in both the Pcell and the Scell, by the UE, downlink control information in a common search space within one subframe; or when the base station transmits, in the Scell, the random access procedure message 2 to the UE, detecting in both the Pcell and the Scell, by the UE, downlink control information in a common search space within one subframe; wherein the transmitting in a Pcell, by a base station, a random access trigger message to a UE comprises: transmitting, by the base station, the random access trigger message to the UE through downlink control channel information of the Pcell, wherein the downlink control channel information comprises an index of an uplink serving cell in which the PRACH is located. in a Carrier Aggregation CA scenario, transmitting in a Primary Serving Cell Pcell or a Secondary Serving Cell Scell, by a base station, a random access trigger message to a User Equipment UE ; transmitting in the Scell, by the UE, a PRACH ; transmitting in the Pcell or the Scell, by the base station, a random access procedure message 2 to the UE ; and when the base station transmits, in the Pcell, the random access procedure message 2 to the UE, detecting, in both the Pcell and the Scell, by the UE, downlink control information in a common search space within one subframe; or when the base station transmits, in the Scell, the random access procedure message 2 to the UE, detecting in both the Pcell and the Scell, by the UE, downlink control information in a common search space within one subframe; wherein the transmitting in a Pcell, by a base station, a random access trigger message to a UE comprises: transmitting, by the base station, the random access trigger message to the UE through downlink control channel information of the Pcell, wherein the downlink control channel information comprises an index of an uplink serving cell in which the PRACH is located.
Process for producing an aqueous polymer dispersion by means of free-radically initiated emulsion polymerization of radically polymerizable ethylenically unsaturated monomers in a polymerization reactor, wherein the polymer dispersion thus obtained is transferred to a post-treatment reactor and is post-treated therein by physical and/or chemical methods, characterized in that the polymer dispersion in the post-treatment reactor is conveyed, simultaneously to the post-treatment, to a circuit for filtration and analysis and is then fed back to the post-treatment reactor.
Machinery for wrapping up an item (A), in particular a pallet, comprising: - a rotatable support for supporting and rotating the item (A), - a releasing device for releasing a paper film (P) around the item (A) when said item (A) is rotating on the rotatable support , - a moving device for moving the releasing device , - a transfer system for transporting the film (P) from a coil , located in a fixed position relative to a supporting surface, to the releasing device ; wherein the transfer system comprises: • a first oblique diverter , mounted to the releasing device , for diverting the direction of the film (P) as it enters the releasing device ; • a compensation assembly , configured for sliding horizontally, comprising a plurality of rollers rotatable about a prevalently horizontal axis, and between which the film (P) is intended to pass, wherein at least one of such rollers can vary its distance from the other rollers ; wherein the releasing device is adapted to receive the film (P) as it exits the compensation assembly ; - moving means for moving the compensation assembly horizontally. - a rotatable support for supporting and rotating the item (A), - a releasing device for releasing a paper film (P) around the item (A) when said item (A) is rotating on the rotatable support , - a moving device for moving the releasing device , - a transfer system for transporting the film (P) from a coil , located in a fixed position relative to a supporting surface, to the releasing device ; wherein the transfer system comprises: • a first oblique diverter , mounted to the releasing device , for diverting the direction of the film (P) as it enters the releasing device ; • a compensation assembly , configured for sliding horizontally, comprising a plurality of rollers rotatable about a prevalently horizontal axis, and between which the film (P) is intended to pass, wherein at least one of such rollers can vary its distance from the other rollers ; wherein the releasing device is adapted to receive the film (P) as it exits the compensation assembly ; • a first oblique diverter , mounted to the releasing device , for diverting the direction of the film (P) as it enters the releasing device ; • a compensation assembly , configured for sliding horizontally, comprising a plurality of rollers rotatable about a prevalently horizontal axis, and between which the film (P) is intended to pass, wherein at least one of such rollers can vary its distance from the other rollers ; wherein the releasing device is adapted to receive the film (P) as it exits the compensation assembly ; - moving means for moving the compensation assembly horizontally.
A method for allocating transmission powers by a user equipment in a wireless communication system supporting a plurality of component carriers, the method comprising: if transmission of a sounding reference signal, SRS, on a first component carrier overlaps with a transmission of a physical uplink control channel, PUCCH, on a second component carrier and the user equipment has maximum power limitation allocating a transmission power for the PUCCH and a transmission power for the SRS, wherein the transmission power for the PUCCH is allocated with priority over the transmission power for the SRS. if transmission of a sounding reference signal, SRS, on a first component carrier overlaps with a transmission of a physical uplink control channel, PUCCH, on a second component carrier and the user equipment has maximum power limitation allocating a transmission power for the PUCCH and a transmission power for the SRS, wherein the transmission power for the PUCCH is allocated with priority over the transmission power for the SRS.