mhurhangee/ep-ind-claims huggingface dataset:
A constant mesh gearbox providing eight forward speed ratios, said gearbox comprising a casing defining a plurality of parallel shaft axes (11, 12, 13) having shafts rotatable thereon, and between which gear wheel pairs associated with each speed ratio are arranged to transmit torque, said casing further defining a support plane substantially orthogonal to said axes and containing a support bearing (45, 33, 37) for a shaft on each of said axes, the gear wheel pairs associated with the 'odd' forward speed ratios being provided on one side of said support plane, and the gear pairs associated with the 'even' forward speed ratios being provided on the other side of said support plane, said gearbox also has two reverse speed ratios, the gear wheel pairs associated with one of said reverse speed ratios being provided on one side of said support plane, and the gear wheel pairs associated with the other of said reverse speed ratio being provided on the other side of said support plane, six forward speed ratios being defined by gear wheel pairs directly between a first input shaft and a first layshaft, and two forward speed ratios being defined by a gear train between either the first input shaft or a second input shaft, and a first layshaft via first idlers (73, 74, 81, 82) of the first layshaft and second idlers (83, 84, 93, 94) of a second layshaft.
A method to compensate for low frequency vibrations in a quantum information processing system, comprising: measuring a low frequency vibration of a trap holder holding an ion trap with ions, the measuring including: introducing a laser beam into an optical path parallel to an optical path of one of two Raman laser beams applied to at least one of the ions in the ion trap, the optical path of the one Raman laser beam and the parallel optical path of the laser beam having at least one optical component in common, and the laser beam and the one Raman laser beam having different wavelengths, providing the laser beam along the parallel optical path to a sensor mirror attached to the trap holder, and performing an interferometric measurement based on a reflection of the laser beam from the sensor mirror; generating a feedback control signal based on the interferometric measurement to adjust one or more optical components on the optical path of the one Raman laser beam; and controlling an operation of the one or more optical components using the control signal. measuring a low frequency vibration of a trap holder holding an ion trap with ions, the measuring including: introducing a laser beam into an optical path parallel to an optical path of one of two Raman laser beams applied to at least one of the ions in the ion trap, the optical path of the one Raman laser beam and the parallel optical path of the laser beam having at least one optical component in common, and the laser beam and the one Raman laser beam having different wavelengths, providing the laser beam along the parallel optical path to a sensor mirror attached to the trap holder, and performing an interferometric measurement based on a reflection of the laser beam from the sensor mirror; introducing a laser beam into an optical path parallel to an optical path of one of two Raman laser beams applied to at least one of the ions in the ion trap, the optical path of the one Raman laser beam and the parallel optical path of the laser beam having at least one optical component in common, and the laser beam and the one Raman laser beam having different wavelengths, providing the laser beam along the parallel optical path to a sensor mirror attached to the trap holder, and performing an interferometric measurement based on a reflection of the laser beam from the sensor mirror; generating a feedback control signal based on the interferometric measurement to adjust one or more optical components on the optical path of the one Raman laser beam; and controlling an operation of the one or more optical components using the control signal.
Photothermal method for determining a layer thickness of a layer applied to a substrate, in particular a lacquer layer, in which at least one surface region (7-7c; 22-25; 22e-25e; 27; 7g) of the coated substrate is heated by irradiation with at least one radiation source (5-5b; 5c, 19; 5d-g) and thermal radiation emitted by the at least one surface region (7-7c; 22-25; 22e-25e; 27; 7g) is detected by a detection device (8- 8g), and the layer thickness is determined on the basis of the emitted thermal radiation, wherein a plurality of adjacent surface regions (22-25; 22e-25e) are irradiated simultaneously or successively by the at least one radiation source (5-5b; 5c, 19; 5d-g) and an evaluation device is used to create a graphically displayable layer thickness profile of a surface to be measured, characterized in that the at least one radiation source (5-5b; 5c, 19; 5d-g) comprises a quantum cascade laser, and the thermal radiation emitted by the at least one surface region (7-7c; 22-25; 22e-25e; 27; 7g) is detected by a bolometer camera.
A merchandise display system comprising: a divider configured to be secured to a support structure, wherein the divider includes a forward end and a rearward end; the divider includes a divider wall and a divider floor, the divider wall extending upwardly from the divider floor, the divider floor includes a top surface; characterised by an unbiased barrier that is moveable by rotation between a folded position and an upright position, the unbiased barrier positioned proximate the forward end of the divider such that a product positioned on the top surface of the divider floor contacts the unbiased barrier when the product moves toward the forward end of the divider; wherein the unbiased barrier is configured to rotate from the folded position to the upright position, wherein when a product positioned on the top surface of the divider floor moves toward the forward end of the divider and contacts the unbiased barrier the forward movement of the product rotates the unbiased barrier from the folded position to the upright position, and the unbiased barrier is configured to cease the forward movement of the product when the unbiased barrier is in the upright position. a divider configured to be secured to a support structure, wherein the divider includes a forward end and a rearward end; the divider includes a divider wall and a divider floor, the divider wall extending upwardly from the divider floor, the divider floor includes a top surface; characterised by an unbiased barrier that is moveable by rotation between a folded position and an upright position, the unbiased barrier positioned proximate the forward end of the divider such that a product positioned on the top surface of the divider floor contacts the unbiased barrier when the product moves toward the forward end of the divider; wherein the unbiased barrier is configured to rotate from the folded position to the upright position, wherein when a product positioned on the top surface of the divider floor moves toward the forward end of the divider and contacts the unbiased barrier the forward movement of the product rotates the unbiased barrier from the folded position to the upright position, and the unbiased barrier is configured to cease the forward movement of the product when the unbiased barrier is in the upright position.
A chip surface base device structure (100, 200, 300, 400, 500, 600, 700, 800, 900, 1000, 1100), comprising: a first substrate comprising crystalline silicon that is physically coupled with a first superconducting layer, wherein the first superconducting layer is physically coupled with a second crystalline silicon substrate, the first substrate, the superconducting layer, and the second crystalline silicon substrate comprising a silicon-on-metal SOM base; and a vertical Josephson junction located in an etched region of the first substrate, the vertical Josephson junction comprising the first superconducting layer, a tunnel barrier layer, and a top superconducting layer. a first substrate comprising crystalline silicon that is physically coupled with a first superconducting layer, wherein the first superconducting layer is physically coupled with a second crystalline silicon substrate, the first substrate, the superconducting layer, and the second crystalline silicon substrate comprising a silicon-on-metal SOM base; and a vertical Josephson junction located in an etched region of the first substrate, the vertical Josephson junction comprising the first superconducting layer, a tunnel barrier layer, and a top superconducting layer.
A near-infrared shielding ultrafine particle dispersion body in which ultrafine particles having near-infrared shielding properties are dispersed in a solid medium, characterized in that the ultrafine particles are composite tungsten oxide ultrafine particles, a value of an XRD peak top intensity ratio of the composite tungsten oxide ultrafine particles is 0.13 or more when a value of the XRD peak intensity is set to 1, with plane of a silicon powder standard sample 640c produced by NIST as a reference, the composite tungsten oxide ultrafine particles are expressed by a general formula M x W y O z, wherein M element is one or more elements selected from the group consisting of Cs, Rb, K, Tl, Ba, Li, Na, Cu, Ag, Ca, Sr, In, Sn, Yb, and Si; W is tungsten; O is oxygen; and satisfying 0.001 ≤ x/y ≤ 1, 2.2 ≤ z/y ≤ 3.0, and the composite tungsten oxide ultrafine particles have a dispersed particle size of 1 nm or more and 200 nm or less. the ultrafine particles are composite tungsten oxide ultrafine particles, a value of an XRD peak top intensity ratio of the composite tungsten oxide ultrafine particles is 0.13 or more when a value of the XRD peak intensity is set to 1, with plane of a silicon powder standard sample 640c produced by NIST as a reference, the composite tungsten oxide ultrafine particles are expressed by a general formula M x W y O z, wherein M element is one or more elements selected from the group consisting of Cs, Rb, K, Tl, Ba, Li, Na, Cu, Ag, Ca, Sr, In, Sn, Yb, and Si; W is tungsten; O is oxygen; and satisfying 0.001 ≤ x/y ≤ 1, 2.2 ≤ z/y ≤ 3.0, and the composite tungsten oxide ultrafine particles have a dispersed particle size of 1 nm or more and 200 nm or less.
Electrolysis cell, having a membrane and an electrode for gas-producing electrochemical processes, comprising a plurality of horizontal lamellar elements which consist, in the design of a flat C-profile, of a flat belly part arranged plane-parallel to the membrane and two further flank parts (2, 3), and one or more transition regions (4a, 4b) of arbitrary shape are arranged between the flat belly part and the two further flank parts, wherein the lamellar elements are formed as perforated sheets which are three-dimensionally shaped by means of cold-work elongation and have a plurality of through-holes, wherein the flat belly part has a plurality of through-holes arranged in rows, wherein the rows of through-holes are arranged parallel to one another and the openings are arranged diagonally to one another from one row to the next, characterised in that the lamellar elements have a flat surface which does not contain any constructive protrusions and depressions formed by a groove arrangement and the through holes are designed as punched holes.
An apparatus comprising: a heater configured to heat smokeable material to volatilize at least one component of the smokeable material, the heater comprising a first heating cylinder configured to heat a first region of smokeable material located within the first heating cylinder and a second heating cylinder configured to heat a second region of smokeable material located within the second heating cylinder, the first heating cylinder and the second heating cylinder being axially aligned; and a smokeable material heating chamber, defined by the first heating cylinder and the second heating cylinder, configured to receive smokable material, wherein the first heating cylinder and the second heating cylinder are configured to be activated sequentially to independently heat the first region of the smokeable material and the second region of smokeable material. a heater configured to heat smokeable material to volatilize at least one component of the smokeable material, the heater comprising a first heating cylinder configured to heat a first region of smokeable material located within the first heating cylinder and a second heating cylinder configured to heat a second region of smokeable material located within the second heating cylinder, the first heating cylinder and the second heating cylinder being axially aligned; and a smokeable material heating chamber, defined by the first heating cylinder and the second heating cylinder, configured to receive smokable material, wherein the first heating cylinder and the second heating cylinder are configured to be activated sequentially to independently heat the first region of the smokeable material and the second region of smokeable material.
Unmanned aerial vehicle system comprising: - a rotary wing unmanned aerial vehicle comprising a body provided with at least one video camera mounted thereupon, said video camera having an optical axis (29, 29a, 29b) pivotable around at least one pivot axis at a pivot angle with respect to said body, the rotary wing unmanned aerial vehicle being adapted to transmit images produced by said video camera; - a control device adapted to communicate bidirectionally with the rotary wing unmanned aerial vehicle, the control device comprising a display unit for displaying images produced by said video camera and a manual control interface for inputting commands from an operator for controlling the movement of the rotary wing unmanned aerial vehicle and to instruct the rotary wing unmanned aerial vehicle to move and said optical axis (29, 29a, 29b) to pivot based on said commands input by the operator; wherein the unmanned aerial vehicle system is configured such that said movement instructions are adapted to control movement of the rotary wing unmanned aerial vehicle in a direction dependent on said optical axis (29, 29a, 29b) irrespective of said pivot angle between said optical axis (29, 29a, 29b) and said body, and such that the unmanned aerial vehicle system can be flown on the optical axis with a single command from an operator to said control device, characterised by said pivot command from the operator being directly related to the optical axis of the video camera, and then movement instructions for the unmanned aerial vehicle being calculated and transmitted based on the direction of the optical axis. - a rotary wing unmanned aerial vehicle comprising a body provided with at least one video camera mounted thereupon, said video camera having an optical axis (29, 29a, 29b) pivotable around at least one pivot axis at a pivot angle with respect to said body, the rotary wing unmanned aerial vehicle being adapted to transmit images produced by said video camera; - a control device adapted to communicate bidirectionally with the rotary wing unmanned aerial vehicle, the control device comprising a display unit for displaying images produced by said video camera and a manual control interface for inputting commands from an operator for controlling the movement of the rotary wing unmanned aerial vehicle and to instruct the rotary wing unmanned aerial vehicle to move and said optical axis (29, 29a, 29b) to pivot based on said commands input by the operator;
A Mobility Management Entity (MME, 400) in a Communications Network, the Mobility Management Entity (MME, 400) being configured to: - receive a Delete Bearer Request message (REQm), transmitted by a Serving Gateway (SGW, 200), indicating deletion of a default bearer connection of a last PDN connection of a User Equipment (UE, 600), - transmit a UE Context Release Command message (RELm) towards a Network Entity (NE, 100), and, before the last PDN connection is terminated: - receive a UE Context Release Complete message (COMPm +IDU) transmitted by the Network Entity (NE, 100), confirming that the User Equipment (UE, 600) is released, and comprising Secondary RAT usage data, and - transmit a Delete Bearer Response message (RESPm +IDU) towards the Serving Gateway (SGW, 200), acknowledging deletion of the default bearer connection of the last PDN connection of the User Equipment (UE, 600) and comprising the Secondary RAT usage data. - receive a Delete Bearer Request message (REQm), transmitted by a Serving Gateway (SGW, 200), indicating deletion of a default bearer connection of a last PDN connection of a User Equipment (UE, 600), - transmit a UE Context Release Command message (RELm) towards a Network Entity (NE, 100), and, before the last PDN connection is terminated: - receive a UE Context Release Complete message (COMPm +IDU) transmitted by the Network Entity (NE, 100), confirming that the User Equipment (UE, 600) is released, and comprising Secondary RAT usage data, and - transmit a Delete Bearer Response message (RESPm +IDU) towards the Serving Gateway (SGW, 200), acknowledging deletion of the default bearer connection of the last PDN connection of the User Equipment (UE, 600) and comprising the Secondary RAT usage data. - receive a UE Context Release Complete message (COMPm +IDU) transmitted by the Network Entity (NE, 100), confirming that the User Equipment (UE, 600) is released, and comprising Secondary RAT usage data, and - transmit a Delete Bearer Response message (RESPm +IDU) towards the Serving Gateway (SGW, 200), acknowledging deletion of the default bearer connection of the last PDN connection of the User Equipment (UE, 600) and comprising the Secondary RAT usage data.
A building-sensor-system, for integrative building management, including - a plurality of sensor modules, which are associated to a room unit, respectively, and which registrate a state of the room unit, - at least one central computing unit, including at least one application unit characterized in that the sensor module includes a sensor unit for the registration of micromovements and each sensor unit is connected to a communication network over which the sensors unit communicates with the at least one central computation unit which is adapted to identify micromovements in the sensor signals of the sensor units, the sensor module includes a motion sensor and a smoke detector, the central computing unit is connected with the at least one application unit which is adapted to send inquiries regarding the micromovements in the room units to the central computing units, to receive information regarding the micromovements in the room units, to process the received information regarding the micromovements in an application- and room-unit-sensitive fashion and to generate an application-specific output signal, and the application unit is further adapted to define within the output signal an evacuation- or rescue-urgency-level for the respective room unit, depending on the presence or absence of a living being in the room unit, identified vital functions, namely micromovements, with regard to the vital condition of a person present in the room unit and the development of smoke. - a plurality of sensor modules, which are associated to a room unit, respectively, and which registrate a state of the room unit, - at least one central computing unit, including at least one application unit the sensor module includes a sensor unit for the registration of micromovements and each sensor unit is connected to a communication network over which the sensors unit communicates with the at least one central computation unit which is adapted to identify micromovements in the sensor signals of the sensor units, the sensor module includes a motion sensor and a smoke detector, the central computing unit is connected with the at least one application unit which is adapted to send inquiries regarding the micromovements in the room units to the central computing units, to receive information regarding the micromovements in the room units, to process the received information regarding the micromovements in an application- and room-unit-sensitive fashion and to generate an application-specific output signal, and the application unit is further adapted to define within the output signal an evacuation- or rescue-urgency-level for the respective room unit, depending on the presence or absence of a living being in the room unit, identified vital functions, namely micromovements, with regard to the vital condition of a person present in the room unit and the development of smoke.
A monoclonal anti-HIV antibody comprising: a heavy chain sequence comprising the amino acid sequence of SEQ ID NO: 79 and a light chain sequence comprising the amino acid sequence of SEQ ID NO: 149. a heavy chain sequence comprising the amino acid sequence of SEQ ID NO: 79 and a light chain sequence comprising the amino acid sequence of SEQ ID NO: 149.
A pharmaceutical composition comprising a 5α-reductase inhibitor, and minoxidil or a pharmaceutically acceptable salt thereof, for use in the treatment of alopecia, wherein the composition is transdermally administered, and the daily dose of 5α-reductase inhibitor is 0.8 μg to 0.12 mg.
A system for applying an adhesive to a moving web of material comprising: a nozzle in fluid communication with an adhesive supply; a web conveying device for conveying a web of material, the web conveying device being configured to convey the web of material adjacent to the nozzle without contacting the nozzle; a web deflecting device that periodically causes a moving web of material being conveyed by the web conveying device to contact the nozzle for a length of time; an adhesive control device in communication with the nozzle, characterised in that the adhesive control device is configured to control a flow of adhesive through the nozzle in relation to contact of a moving web with the nozzle caused by the deflecting device such that flow of adhesive from the nozzle occurs prior to contact with the moving web of material; characterized in that the deflecting device is configured to cause a moving web of material to contact the nozzle in a manner such that the web forms a maximum exit angle with the nozzle, the maximum exit angle being from 5° to 30° in relation to a horizontal plane that is perpendicular to an exit port on the nozzle, wherein the deflecting device is further configured such that the exit angle changes from a minimum exit angle to the maximum exit angle while the web of material is in contact with the nozzle. a nozzle in fluid communication with an adhesive supply; a web conveying device for conveying a web of material, the web conveying device being configured to convey the web of material adjacent to the nozzle without contacting the nozzle; a web deflecting device that periodically causes a moving web of material being conveyed by the web conveying device to contact the nozzle for a length of time; an adhesive control device in communication with the nozzle, characterised in that the adhesive control device is configured to control a flow of adhesive through the nozzle in relation to contact of a moving web with the nozzle caused by the deflecting device such that flow of adhesive from the nozzle occurs prior to contact with the moving web of material; characterized in that the deflecting device is configured to cause a moving web of material to contact the nozzle in a manner such that the web forms a maximum exit angle with the nozzle, the maximum exit angle being from 5° to 30° in relation to a horizontal plane that is perpendicular to an exit port on the nozzle, wherein the deflecting device is further configured such that the exit angle changes from a minimum exit angle to the maximum exit angle while the web of material is in contact with the nozzle.