mhurhangee/patent-ind-claim-en huggingface dataset:
A method for disinfection of air which includes: creating a unipolar corona discharge zone between an ionizing portion of a first electrode and a non-ionizing second electrode by applying high DC voltage (22', 22") across the first and second electrodes; conveying an air flow through the corona discharge zone in order to convert water molecules in the air flow to hydrogen peroxide molecules owing to reaction of the water molecules with corona discharge ions; and generating an electric field between the non-ionizing portion of the first electrode and the second electrode across the air flow surrounding the corona discharge zone ; characterized by: generating respective auxiliary electric fields (27', 27") between the second electrode and respective auxiliary electrodes (17', 17") disposed respectively upstream and downstream of the corona discharge zone so as generate respective DC electric fields (27', 27") surrounding the corona discharge zone , for preventing ions escaping from the corona discharge zone into the atmosphere and for impeding dust found in the air flow from settling onto the ionizing portion of the first electrode . creating a unipolar corona discharge zone between an ionizing portion of a first electrode and a non-ionizing second electrode by applying high DC voltage (22', 22") across the first and second electrodes; conveying an air flow through the corona discharge zone in order to convert water molecules in the air flow to hydrogen peroxide molecules owing to reaction of the water molecules with corona discharge ions; and generating an electric field between the non-ionizing portion of the first electrode and the second electrode across the air flow surrounding the corona discharge zone ; characterized by: generating respective auxiliary electric fields (27', 27") between the second electrode and respective auxiliary electrodes (17', 17") disposed respectively upstream and downstream of the corona discharge zone so as generate respective DC electric fields (27', 27") surrounding the corona discharge zone , for preventing ions escaping from the corona discharge zone into the atmosphere and for impeding dust found in the air flow from settling onto the ionizing portion of the first electrode .
A vehicle power supply apparatus comprising: a main power storage device (BA), a power feed line (PL2) through which power is supplied to an inverter that drives a motor (MG2), a first voltage converter provided between said main battery (BA) and said power feed line (PL2) and supplying DC voltage converted from voltage of said main battery (BA) to said power feed line (PL2), a plurality of subpower batteries (BB1, BB2) provided parallel to each other, and a second voltage converter provided between said plurality of subpower batteries (BB1, BB2) and said power feed line (PL2) and supplying DC voltage converted from voltage of said subpower batteries (BB1, BB2) to said power feed line (PL2) , said first voltage converter performing voltage conversion exclusively between said main battery (BA) and said power feed line (PL2), and said second voltage converter being provided to be shared among said plurality of subpower batteries (BB1, BB2), and being selectively connected to any one of said plurality of subpower batteries (BB1, BB2) to convert voltage. a main power storage device (BA), a power feed line (PL2) through which power is supplied to an inverter that drives a motor (MG2), a first voltage converter provided between said main battery (BA) and said power feed line (PL2) and supplying DC voltage converted from voltage of said main battery (BA) to said power feed line (PL2), a plurality of subpower batteries (BB1, BB2) provided parallel to each other, and a second voltage converter provided between said plurality of subpower batteries (BB1, BB2) and said power feed line (PL2) and supplying DC voltage converted from voltage of said subpower batteries (BB1, BB2) to said power feed line (PL2) , said first voltage converter performing voltage conversion exclusively between said main battery (BA) and said power feed line (PL2), and said second voltage converter being provided to be shared among said plurality of subpower batteries (BB1, BB2), and being selectively connected to any one of said plurality of subpower batteries (BB1, BB2) to convert voltage.
A cold plate assembly comprising: a support structure including first and second opposing sides; a first cold plate disposed on the first side of the support structure ; a second cold plate disposed on the second side of the support structure ; each of the first and second cold plates including passages through which a cooling medium flows; and a bore defined within the first cold plate and the second cold plate and communicating with said passages ; and characterized by a transfer tube movable within the bore along an axis and extending through the support structure for communicating fluid between the first cold plate and the second cold plate , and first and second biasing members disposed at opposite ends of the transfer tube for holding the transfer tube suspended within the bore in a desired position while accommodating vibrational movement along the axis. a support structure including first and second opposing sides; a first cold plate disposed on the first side of the support structure ; a second cold plate disposed on the second side of the support structure ; each of the first and second cold plates including passages through which a cooling medium flows; and a bore defined within the first cold plate and the second cold plate and communicating with said passages ; and characterized by a transfer tube movable within the bore along an axis and extending through the support structure for communicating fluid between the first cold plate and the second cold plate , and first and second biasing members disposed at opposite ends of the transfer tube for holding the transfer tube suspended within the bore in a desired position while accommodating vibrational movement along the axis.
A chimeric antigen receptor expressed on the surface of immune effector cell, comprising an extracellular binding region, a transmembrane region and an intracellular signal region, wherein the extracellular binding region comprises a protein which specifically recognizing CLD18A2, wherein the extracellular binding region comprises an amino acid sequence of any one of SEQ ID NOs.4 and 6, and wherein the intracellular signal region sequence is selected of CD3ζ, EcεPIγ, CD27, CD28, CD137, CD134, or a combination thereof.
An item of furniture having a furniture body at which a flap is being held by means of two flap fittings , wherein each flap fitting can be arranged on the furniture body , wherein each flap fitting comprises a main body , on which a supporting lever is rotatably mounted, and a pivotably mounted control lever , wherein the supporting lever and the control lever are connectable in an articulated manner to a flap via space-apart axis of rotation , wherein the supporting lever drives a first gear wheel during a rotational movement, which directly or indirectly drives a second gear wheel , wherein the control lever is rotatably mounted on the second gear wheel spaced apart from the axis of rotation of the second gear wheel .
An apparatus for controlling a Shared Buffer, SB, the apparatus comprising: an interface configured to access flow-based data counts and admission states ; a SB controller configured to: perform flow-based accounting of packets received by a network device coupled to a communication network for producing flow-based data counts, each flow-based data count associated with one or more respective flows; and generate admission states , wherein the admission states comprise flow-based admission states based at least on the flow-based data counts, each flow-based admission state being generated from one or more respective flow-based data counts; and multiple ports including an ingress port , configured to connect to the communication network; and data-plane logic, configured to: receive a packet from the ingress port; classify the packet into a respective flow; and based on a plurality of the generated admission states, decide whether to admit the packet into the SB or drop the packet. an interface configured to access flow-based data counts and admission states ; a SB controller configured to: perform flow-based accounting of packets received by a network device coupled to a communication network for producing flow-based data counts, each flow-based data count associated with one or more respective flows; and generate admission states , wherein the admission states comprise flow-based admission states based at least on the flow-based data counts, each flow-based admission state being generated from one or more respective flow-based data counts; and perform flow-based accounting of packets received by a network device coupled to a communication network for producing flow-based data counts, each flow-based data count associated with one or more respective flows; and generate admission states , wherein the admission states comprise flow-based admission states based at least on the flow-based data counts, each flow-based admission state being generated from one or more respective flow-based data counts; and multiple ports including an ingress port , configured to connect to the communication network; and data-plane logic, configured to: receive a packet from the ingress port; classify the packet into a respective flow; and based on a plurality of the generated admission states, decide whether to admit the packet into the SB or drop the packet. receive a packet from the ingress port; classify the packet into a respective flow; and based on a plurality of the generated admission states, decide whether to admit the packet into the SB or drop the packet.
A round baler comprising a bale chamber having a crop mouth for introducing bale material into the bale chamber and a plurality of pressing elements configured to compress bale material in the bale chamber to form a round bale (B), a binding apparatus configured to apply at least one strip of binding material to a cylindrical surface of a bale (B) formed in the bale chamber to bind the bale, wherein the binding apparatus includes a supply device comprising a support for a supply of binding material and a feed device that feeds binding material from the supply to a feed opening of the bale chamber, wherein the feed device includes a pull-off device that is configured to draw binding material from the supply and a feed mouth that receives binding material from the pull-off device ; a feed detector located between the pull-off device and the feed opening , which is configured to detect correct/incorrect feeding of the binding material into the bale chamber ; characterised by the binding apparatus is configured to apply a plurality of strips of binding material to the cylindrical surface of a bale (B) formed in the bale chamber to bind the bale (B), and wherein the feed detector is configured to detect correct/incorrect feeding of each of the strips of binding material into the bale chamber .
A system for sensing harvested crop levels within an agricultural harvester , the system comprising: a crop tank extending in a vertical direction between a top end and a bottom end of the crop tank , the crop tank including a frame having an opening formed therethrough and a tank cover section provided in operative association with the frame such that the tank cover section is movable between an open position and a covered position relative to the opening of the frame , the crop tank being configured to receive harvested crop ; and a sensor array including a plurality of crop level sensors spaced apart from one another between a first end of the sensor array and a second end of the sensor array , each crop level sensor of the plurality of crop level sensors configured to capture data indicative of a crop level of the harvested crop received within the crop tank , the sensor array supported, at least in part, relative to the crop tank such that the sensor array is configured to have a first orientation when the tank cover section is in the covered position and a second orientation when the tank cover section is in the open position , characterized in that , when the sensor array is disposed in the first orientation , the sensor array defines a first vertical dimension in the vertical direction between the first and second ends of the sensor array that is less than a second vertical dimension defined by the sensor array in the vertical direction between the first and second ends of the sensor array when the sensor array is disposed in the second orientation . a crop tank extending in a vertical direction between a top end and a bottom end of the crop tank , the crop tank including a frame having an opening formed therethrough and a tank cover section provided in operative association with the frame such that the tank cover section is movable between an open position and a covered position relative to the opening of the frame , the crop tank being configured to receive harvested crop ; and a sensor array including a plurality of crop level sensors spaced apart from one another between a first end of the sensor array and a second end of the sensor array , each crop level sensor of the plurality of crop level sensors configured to capture data indicative of a crop level of the harvested crop received within the crop tank , the sensor array supported, at least in part, relative to the crop tank such that the sensor array is configured to have a first orientation when the tank cover section is in the covered position and a second orientation when the tank cover section is in the open position , characterized in that , when the sensor array is disposed in the first orientation , the sensor array defines a first vertical dimension in the vertical direction between the first and second ends of the sensor array that is less than a second vertical dimension defined by the sensor array in the vertical direction between the first and second ends of the sensor array when the sensor array is disposed in the second orientation .
Microparticulate varenicline citrate having an XRPD-diffraction pattern with peaks at 9.8°, 12.8°, 13.2°, 14.6°, 19.4°, 19.6°, 20.0°, 20.5° and 26.1° ± 0.2° (2θ), and characterized by a Dv -value of below 50 μm measured by laser diffraction.
A printing apparatus comprising: a printing portion configured to perform printing by discharging inks onto a recording medium (W); a transporting belt that includes a mounting portion on which a test medium , on which a test printing can be performed by discharging the inks before performing the printing, can be mounted; a guide portion for guiding the test medium to the mounting portion at the time of mounting the test medium on the mounting portion ; a cover that covers the transporting belt and the printing portion , wherein the guide portion is an opening portion which is provided on the cover and wherein the opening portion is provided on an upstream side of the printing portion in a transporting direction (y) of the recording medium (W); and a supporting portion that supports the transporting belt from the inside, wherein a part of the transporting belt , the part being supported by the supporting portion , functions as the mounting portion , and wherein the supporting portion has a plate shape having a higher stiffness than the transporting belt , and is provided inside the transporting belt and on an upstream side of the printing portion in the transporting direction (y) whereby the test medium can be mounted to the mounting portion above the supporting portion . a printing portion configured to perform printing by discharging inks onto a recording medium (W); a transporting belt that includes a mounting portion on which a test medium , on which a test printing can be performed by discharging the inks before performing the printing, can be mounted; a guide portion for guiding the test medium to the mounting portion at the time of mounting the test medium on the mounting portion ; a cover that covers the transporting belt and the printing portion , wherein the guide portion is an opening portion which is provided on the cover and wherein the opening portion is provided on an upstream side of the printing portion in a transporting direction (y) of the recording medium (W); and a supporting portion that supports the transporting belt from the inside, wherein a part of the transporting belt , the part being supported by the supporting portion , functions as the mounting portion , and wherein the supporting portion has a plate shape having a higher stiffness than the transporting belt , and is provided inside the transporting belt and on an upstream side of the printing portion in the transporting direction (y) whereby the test medium can be mounted to the mounting portion above the supporting portion .
A wing for an aircraft , comprising: - a wing box defining a first wing profile with a first leading edge , a first trailing edge opposite to said first leading edge , a first top surface and a first bottom surface opposite to each other and extending between said first leading edge and first trailing edge ; said first leading edge and first trailing edge having a longitudinal extension along respective first axes (E) spaced out from each other; - a first movable appendage hinged on said wing box and defining a second wing profile , in turn comprising an end wall and a second trailing edge opposite to each other, a second top surface and a second bottom surface opposite to each other and extending between said end wall and said second trailing edge ; said first movable appendage being movable with respect to said wing box between: - a first position, wherein said first and second wing profiles are contiguous with each other, and at least part of said second bottom surface and second top surface define respective extensions of said first bottom surface and first top surface ; and - a second position, wherein said second bottom surface and second top surface are respectively separated from said first bottom surface and first top surface ; said wing box comprising a first spar having a curved section in a plane orthogonal to the associated first axis (E); characterized in that said end wall is curved and arranged to abut against said first spar at least along said second top surface and said second bottom surface , when said first movable appendage is in said first position. - a wing box defining a first wing profile with a first leading edge , a first trailing edge opposite to said first leading edge , a first top surface and a first bottom surface opposite to each other and extending between said first leading edge and first trailing edge ; said first leading edge and first trailing edge having a longitudinal extension along respective first axes (E) spaced out from each other; - a first movable appendage hinged on said wing box and defining a second wing profile , in turn comprising an end wall and a second trailing edge opposite to each other, a second top surface and a second bottom surface opposite to each other and extending between said end wall and said second trailing edge ; said first movable appendage being movable with respect to said wing box between: - a first position, wherein said first and second wing profiles are contiguous with each other, and at least part of said second bottom surface and second top surface define respective extensions of said first bottom surface and first top surface ; and - a second position, wherein said second bottom surface and second top surface are respectively separated from said first bottom surface and first top surface ; said wing box comprising a first spar having a curved section in a plane orthogonal to the associated first axis (E); characterized in that said end wall is curved and arranged to abut against said first spar at least along said second top surface and said second bottom surface , when said first movable appendage is in said first position.
Toilet comprising a sterilizing device , the sterilizing device comprising an ozone generator , impelling means fluidly connected to the ozone generator that allow discharging the ozone generated in the ozone generator into flush water , control means that control generating the ozone and discharging said ozone into the flush water , and sensor means for detecting the presence or the actuation of a user, the sensor means being communicated with the control means and the control means controlling the ozone generator depending on the signal received from said sensor means , characterized in that the sterilizing device further comprises an ion plasma generator for discharging ion plasma directly into air, the control means controlling said ion plasma generator , wherein the control means are configured for not activating the ozone generator and the ion plasma generator simultaneously.
A panel vibration type sound generating display device comprising: a display panel for displaying an image; a sound generating actuator connected to a surface of the display panel and configured to vibrate the display panel to generate sound; a support structure; and another sound generating actuator , wherein the support structure further comprises a reinforcement member extending between or through the two sound generating actuators ; and wherein an air gap is provided between the surface and the support structure. a display panel for displaying an image; a sound generating actuator connected to a surface of the display panel and configured to vibrate the display panel to generate sound; a support structure; and another sound generating actuator , wherein the support structure further comprises a reinforcement member extending between or through the two sound generating actuators ; and wherein an air gap is provided between the surface and the support structure.
Method for controlling an elevator system using a computer-controlled mobile device , wherein the elevator system comprises an elevator shaft having multiple shaft thresholds each assigned to one floor, an elevator car which has a car threshold and can be moved along the elevator shaft , and a control unit for moving the elevator car , wherein the mobile device has an evaluation unit which is designed to communicate with the control unit , wherein the method comprises: receiving , in the evaluation unit , information generated using at least one component (122, 124, 125; 302, 304, 310) of the mobile device as a result of a height deviation between the car threshold and a current shaft threshold located opposite the car threshold , wherein the information comprises an input by a user in an application executed by the mobile device for controlling the elevator system , wherein the control information comprises a control command to the control unit on the basis of the input by the user ; evaluating the information and generating control information for moving the elevator car ; and sending the control information to the control unit in order to move the elevator car in such a way that the height deviation between the car threshold and the current shaft threshold is minimized. receiving , in the evaluation unit , information generated using at least one component (122, 124, 125; 302, 304, 310) of the mobile device as a result of a height deviation between the car threshold and a current shaft threshold located opposite the car threshold , wherein the information comprises an input by a user in an application executed by the mobile device for controlling the elevator system , wherein the control information comprises a control command to the control unit on the basis of the input by the user ; evaluating the information and generating control information for moving the elevator car ; and sending the control information to the control unit in order to move the elevator car in such a way that the height deviation between the car threshold and the current shaft threshold is minimized.