mhurhangee/ep-ind-claims huggingface dataset:
A fluid bed reactor, comprising: a housing; a plurality of trays, which are vertically spaced apart from one another disposed within the housing; at least one motor operatively connected to at least one tray, wherein the motor rotates the at least one tray; at least one wiper associated with the plurality of trays which directs product on a top surface of a respective tray down through at least one radial slot in each respective tray as each respective tray is rotated by the motor; and a fan, wherein the gas is caused to flow out of the top surface of each tray by the fan, wherein each tray of the plurality of trays at least partially comprises a perforated material; wherein the perforated material permits a gas to flow up out of the top surface of the tray; and wherein the flow of gas out of the top surface of the tray at least partially fluidizes product on the top surface of the tray. a housing; a plurality of trays, which are vertically spaced apart from one another disposed within the housing; at least one motor operatively connected to at least one tray, wherein the motor rotates the at least one tray; at least one wiper associated with the plurality of trays which directs product on a top surface of a respective tray down through at least one radial slot in each respective tray as each respective tray is rotated by the motor; and a fan, wherein the gas is caused to flow out of the top surface of each tray by the fan, wherein each tray of the plurality of trays at least partially comprises a perforated material; wherein the perforated material permits a gas to flow up out of the top surface of the tray; and wherein the flow of gas out of the top surface of the tray at least partially fluidizes product on the top surface of the tray.
A method performed by a wireless device configured with dual connectivity between a second cell group, SCG, and a master cell group, MCG, the method comprising: determining a limit of a power of transmission of a first uplink transmission in the SCG, wherein the limit is determined based on a detection, before a time offset in relation to a beginning of a time of transmission of the first uplink transmission, of a downlink grant or assignment that triggers a second uplink transmission in the MCG that would overlap in time with the first uplink transmission, wherein the time offset is based on a capability indicated by the wireless device to determine a total transmission power on the SCG at a first symbol of a transmission occasion on the SCG and wherein the time offset is calculated dependent on a channel information state, CSI, processing time if the wireless device indicates a first value for the capability and the time offset is calculated independent of the CSI processing time if the wireless device indicates a second value for the capability; and setting the power of transmission for the first uplink transmission based on the limit. determining a limit of a power of transmission of a first uplink transmission in the SCG, wherein the limit is determined based on a detection, before a time offset in relation to a beginning of a time of transmission of the first uplink transmission, of a downlink grant or assignment that triggers a second uplink transmission in the MCG that would overlap in time with the first uplink transmission, wherein the time offset is based on a capability indicated by the wireless device to determine a total transmission power on the SCG at a first symbol of a transmission occasion on the SCG and wherein the time offset is calculated dependent on a channel information state, CSI, processing time if the wireless device indicates a first value for the capability and the time offset is calculated independent of the CSI processing time if the wireless device indicates a second value for the capability; and setting the power of transmission for the first uplink transmission based on the limit.
A dental prophylaxis angle, comprising: a body having a neck that defines a first axial bore and a head that defines an outer circumferential surface and a second axial bore, the first and second axial bores communicating at an intersection and being angularly-offset from each other, and the body defining an opening that spans contiguous portions of both the neck and the head; a drive gear rotatably mounted in the first axial bore and having a drive gear head and a locking flange axially-offset from the drive gear head, an annular locking groove being defined between the drive gear head and the locking flange; a driven gear rotatably mounted in the second axial bore and operatively coupled to the drive gear; and a gear retainer having an annular body defining an inner circumferential surface of the gear retainer configured to extend about the outer circumferential surface of the head, a heel extending from the annular body, an arm extending from the heel, and a wedge extending from the arm, wherein the heel and the arm are cooperatively configured to cover the opening and the wedge is configured to be received in the annular locking groove. a body having a neck that defines a first axial bore and a head that defines an outer circumferential surface and a second axial bore, the first and second axial bores communicating at an intersection and being angularly-offset from each other, and the body defining an opening that spans contiguous portions of both the neck and the head; a drive gear rotatably mounted in the first axial bore and having a drive gear head and a locking flange axially-offset from the drive gear head, an annular locking groove being defined between the drive gear head and the locking flange; a driven gear rotatably mounted in the second axial bore and operatively coupled to the drive gear; and a gear retainer having an annular body defining an inner circumferential surface of the gear retainer configured to extend about the outer circumferential surface of the head, a heel extending from the annular body, an arm extending from the heel, and a wedge extending from the arm, wherein the heel and the arm are cooperatively configured to cover the opening and the wedge is configured to be received in the annular locking groove.
A process for imparting grease, oil and water repellence to a substrate, said process comprising applying by means of a printing process on at least a portion of the surface of said substrate a composition comprising at least one 5 (per)fluoropolyether derivative, wherein the (per)fluoropolyether derivative is a functional (per)fluoropolyether comprising recurring units, said recurring units comprising a fluoropolyoxyalkene chain having at least one ether linkage in the main chain and at least one fluorine atom, and having at least one functional group comprising a heteroatom other than fluorine.
A privacy door assembly for installation in an aircraft, which aircraft has a flight deck separated from a cabin by a flight deck door, the privacy door assembly installable between the flight deck door and the cabin, the privacy door assembly comprising: - a door frame comprising a first post and a second post, wherein the second post comprises a latch recess; - a privacy door rotatably coupleable to the first post via a set of hinges, wherein the privacy door comprises - a decompression latch arranged to engage the latch recess when the privacy door is in a closed position within the door frame, wherein, the decompression latch is configured to disengage from the latch recess in response to a decompression detected on a forward side of the privacy door, and wherein the privacy door further comprises a slam latch spring positioned to bias a slam latch toward the first post, wherein the first post comprises a cylindrical striker, and wherein the cylindrical striker comprises a slot. - a door frame comprising a first post and a second post, wherein the second post comprises a latch recess; - a privacy door rotatably coupleable to the first post via a set of hinges, wherein the privacy door comprises - a decompression latch arranged to engage the latch recess when the privacy door is in a closed position within the door frame, wherein,
Method for determining an operating range of an ultrasound oscillating structure, which ultrasound oscillating structure is supplied with electrical energy from a generator via an output and is excited to ultrasound oscillations, wherein at least components of the ultrasound oscillating structure, preferably an ultrasonic transducer contained therein, and components of the generator, preferably an adjusting network on the output side, form an oscillating circuit (2c, 2d), and wherein a measurement circuit and an output stage are connected upstream of the output of the generator, which output stage is configured to apply signals to the oscillating circuit (2c, 2d) to excite the ultrasound oscillating structure, and by means of which measuring circuit at least the phase, preferably phase and magnitude, of an impedance of the oscillating circuit (2c, 2d) are measured, and at least the phase, preferably phase and magnitude, of the impedance are evaluated in order to determine the operating range by applying a voltage to the oscillating circuit (2c, 2d) via the measuring circuit, characterised in that during the application of the voltage, U, via the measuring circuit to the oscillating circuit (2c, 2d), no voltage is applied via the output stage to the oscillating circuit (2c, 2d).
A track lamp comprising an adapter, a swivel arm and a lamp body, wherein the swivel arm comprises a first rotating shaft connected with the adapter in a tight fit mode, and the first rotating shaft is divided into a first rotating half shaft and a second rotating half shaft along a direction of a first rotating center line; wherein the swivel arm further comprises a second rotating shaft tightly fitted to the lamp body, wherein the second rotating shaft comprises an inner shaft and an outer shaft sleeved on the inner shaft, the swivel arm is split into two halves and comprises an inner half-arm disposed close to the lamp body and an outer half-arm remote from the lamp body, the first rotating half shaft and the outer shaft are integrally formed with the inner half arm, and the second rotating half shaft and the inner shaft are formed integrally with the outer half arm. the swivel arm comprises a first rotating shaft connected with the adapter in a tight fit mode, and the first rotating shaft is divided into a first rotating half shaft and a second rotating half shaft along a direction of a first rotating center line; wherein the swivel arm further comprises a second rotating shaft tightly fitted to the lamp body, wherein the second rotating shaft comprises an inner shaft and an outer shaft sleeved on the inner shaft, the swivel arm is split into two halves and comprises an inner half-arm disposed close to the lamp body and an outer half-arm remote from the lamp body, the first rotating half shaft and the outer shaft are integrally formed with the inner half arm, and the second rotating half shaft and the inner shaft are formed integrally with the outer half arm.
An electrosurgical device for cutting and sealing tissue, comprising an upper jaw located at a distal end of the electrosurgical device and opposing a lower jaw, the lower jaw being pivotally connected to the upper jaw by a pivot connection, and an actuation wire, the actuation wire comprising a first actuation wire section and a second actuation wire section, wherein the first actuation wire section crosses over the second actuation wire section at a cross-over point, characterized in that the actuation wire is looped through a passage in one of the upper and lower jaws (120, 132), such that the first and second actuation wire sections (176, 178) exert equal forces on said one of the upper and lower jaws (120, 132) through which the actuation wire is looped.
A method for discharging a hybrid battery system in an electric vehicle, the battery system being designed to supply a discharging current to an electric motor for driving the electric vehicle and the battery system comprising at least one high energy battery and at least one high power battery, whereat the at least one high energy battery supplies a discharging current to the electric motor when a speed of the electric vehicle is higher than a determined first speed value, and whereat the at least one high power battery supplies a discharging current to the electric motor when the speed of the electric vehicle is lower than the determined first speed value or the high power battery exclusively supplies a discharging current to the electric motor when a state of charge of the high energy battery is lower than a determined first level and when the state of charge of the high power battery is higher than a determined second level. the battery system being designed to supply a discharging current to an electric motor for driving the electric vehicle and the battery system comprising at least one high energy battery and at least one high power battery, whereat the at least one high energy battery supplies a discharging current to the electric motor when a speed of the electric vehicle is higher than a determined first speed value, and whereat the at least one high power battery supplies a discharging current to the electric motor when the speed of the electric vehicle is lower than the determined first speed value or the high power battery exclusively supplies a discharging current to the electric motor when a state of charge of the high energy battery is lower than a determined first level and when the state of charge of the high power battery is higher than a determined second level.
A system comprising: a turbine combustor comprising: a combustor liner disposed about a combustion chamber; a head end upstream of the combustion chamber relative to a downstream direction of a flow of combustion gases through the combustion chamber, wherein the head end is configured to direct an oxidant flow and a first fuel flow toward the combustion chamber; a flow sleeve disposed at an offset about the combustor liner to define a passage, wherein the passage is configured to direct a gas flow toward the head end and to direct a portion of the oxidant flow toward a turbine end of the turbine combustor, wherein the gas flow comprises a substantially inert gas; characterized in that a dynamic barrier section within the passage, comprising an interface between the gas flow and the oxidant flow wherein the gas flow toward the head end region interacts with the oxidant flow toward the turbine end. a turbine combustor comprising: a combustor liner disposed about a combustion chamber; a head end upstream of the combustion chamber relative to a downstream direction of a flow of combustion gases through the combustion chamber, wherein the head end is configured to direct an oxidant flow and a first fuel flow toward the combustion chamber; a flow sleeve disposed at an offset about the combustor liner to define a passage, wherein the passage is configured to direct a gas flow toward the head end and to direct a portion of the oxidant flow toward a turbine end of the turbine combustor, wherein the gas flow comprises a substantially inert gas; characterized in that a dynamic barrier section within the passage, comprising an interface between the gas flow and the oxidant flow wherein the gas flow toward the head end region interacts with the oxidant flow toward the turbine end. a combustor liner disposed about a combustion chamber; a head end upstream of the combustion chamber relative to a downstream direction of a flow of combustion gases through the combustion chamber, wherein the head end is configured to direct an oxidant flow and a first fuel flow toward the combustion chamber; a flow sleeve disposed at an offset about the combustor liner to define a passage, wherein the passage is configured to direct a gas flow toward the head end and to direct a portion of the oxidant flow toward a turbine end of the turbine combustor, wherein the gas flow comprises a substantially inert gas; characterized in that a dynamic barrier section within the passage, comprising an interface between the gas flow and the oxidant flow wherein the gas flow toward the head end region interacts with the oxidant flow toward the turbine end.
An oven comprising a housing or structure presenting a plurality of inner walls (2, 3, 4, 5, 6) and outer walls, the inner walls defining an oven cavity provided with a door for closing the cavity and means for cooking foods, said means comprising a grill for browning said foods, at least one aperture being present in at least one of said inner walls (2, 3, 4, 5, 6) of the oven cavity, and/or in said door, for direct connection to the environment external to the oven, said oven comprising means for introducing ambient air into said cavity during food preparation in one or more different steps, or subsequently at the end of said food preparation, controllable interceptor means being provided at said aperture to enable, selectivity in introducing the ambient air into said cavity, characterized in that the oven comprises a control unit configured to operate an actuator in accordance with an algorithm based on the cooking time or on the power and time activation of said means, such that air can penetrate into the oven cavity before commencement of a food browning stage.
A method for high-throughput screening of compounds for genotoxic and/or pro-genotoxic activity comprising the step of determining expression levels of active forms of at least the proteins Cellular tumor antigen p53 (p-p53), Cyclin-dependent kinase inhibitor 1, Histone H2A.X (p-H2A.X), Serine-protein kinase ataxia telangiectasia mutated (p-ATM) and Serine/threonine-protein checkpoint kinase 1 (p-Chk1) in a system incubated with the compounds in comparison with the expression levels in a system not incubated with the compounds, wherein an increase by a factor of at least 1.5 in the expression levels of said proteins in the system incubated with the compounds in comparison with the system not incubated with the compounds indicates said activity with a sensitivity and/or specificity of at least 80%.
A method for checking the authenticity of an identification document comprising the following steps: - capturing a first image of the identification document with first image capture parameters, - recognising information in the first image, wherein the information includes the specification of a document type, or wherein a document type of the identification document can be derived from the information, - performing a database query with the aid of the information to query second image capture parameters, - capturing a second image of the identification document with the second image capture parameters, wherein the second image capture parameters include document-type-specific parameters relating to the lighting of the identification document and relating to the exposure of an optical sensor with the aid of which the second image is captured, - inspecting one or more security features of the identification document on the basis of the second image, wherein at least one of the security features is fluorescent, and wherein the first image is captured in a first frequency range and the second image is captured in a second frequency range, wherein the first and second frequency ranges are different from one another, and wherein the first frequency range is an IR frequency range and the second frequency range is a UV frequency range, and wherein the information in the first image is recognised by means of optical character recognition. - capturing a first image of the identification document with first image capture parameters, - recognising information in the first image, wherein the information includes the specification of a document type, or wherein a document type of the identification document can be derived from the information, - performing a database query with the aid of the information to query second image capture parameters, - capturing a second image of the identification document with the second image capture parameters, wherein the second image capture parameters include document-type-specific parameters relating to the lighting of the identification document and relating to the exposure of an optical sensor with the aid of which the second image is captured, - inspecting one or more security features of the identification document on the basis of the second image,
A circuit of control of ultrasound transducers (TD 1,..., TD n), comprising a first terminal (b) intended to be connected to a first electrode of each of the transducers (TD 1,..., TD n), and a bias switch (SWp) configurable to connect the first terminal (b) to one or the other of first and second bias nodes, the circuit of control further comprising a receive circuit comprising an input node (c), a receive amplifier having its input coupled to the input node (c), an analog-to-digital converter having its input coupled to the output of the receive amplifier, and an output (d) coupled to the output of the analog-to-digital converter, wherein the receive circuit comprises an array of switched capacitors arranged upstream of the analog-to-digital converter, enabling to store analog samples representative of the output signal of receive amplifier prior to their digitization by the analog-to-digital converter. the circuit of control further comprising a receive circuit comprising an input node (c), a receive amplifier having its input coupled to the input node (c), an analog-to-digital converter having its input coupled to the output of the receive amplifier, and an output (d) coupled to the output of the analog-to-digital converter, wherein the receive circuit comprises an array of switched capacitors arranged upstream of the analog-to-digital converter, enabling to store analog samples representative of the output signal of receive amplifier prior to their digitization by the analog-to-digital converter.
A non-aqueous nicotine formulation comprising nicotine, an orally-acceptable nicotine salt, an orally-acceptable alcohol, flavor components, and an orally-acceptable binder, in a water-permeable, water-insoluble pouch, wherein the orally-acceptable alcohol is propylene glycol.