mhurhangee/ep-ind-claims huggingface dataset:
Positioning and conveying device comprising an endless conveyor belt which runs around two rollers (3, 4) mounted to a stationary frame, such that the belt has an upper run forming a carrying side for objects to be positioned and transferred, and a lower run forming a return side of the belt, wherein the outer surface of at least one of the rollers (3, 4) is defined by a plurality of roller segments (31, 32, 33) extending in the axial and tangential direction of the roller, wherein each of the segments (31, 32, 33) is axially dimensioned to support the full width of the conveyor belt and tangentially dimensioned such that the segments (31, 32, 33) complementary cover the perimeter of the roller, wherein the segments (31, 32, 33) are individually movable in the axial direction of the roller for laterally moving the conveyor belt relative to the frame, the device furthermore including at least one actuator assembly (7, 8) for driving the segments (31, 32, 33) in the axial direction of the roller, said actuator assembly (7, 8) comprising a controllable magnetic actuator (71, 72, 81, 82) stationary mounted at either end of the roller, wherein at either end of each of the segments (31, 32, 33) a ferromagnetic counterpart (41, 42, 43, 51, 52, 53) is mounted which is configured and arranged to cooperate with the respective magnetic actuators (71, 72, 81, 82) so as to move the respective segments (31, 32, 33) in the axial direction of the roller, wherein the device comprises at the roller a "set" actuator assembly " and a "reset" actuator assembly, wherein the "set" actuator assembly is arranged to work on the roller segments (31, 32, 33) that are in contact with the belt to move the belt in the lateral direction, and wherein the "reset" actuator assembly is arranged to work on the roller segment(s) (31, 32, 33) that is/are not in contact with the belt to reset the roller segment(s) (31, 32, 33) to a neutral position, the positioning and conveying device furthermore comprising an electronic controller connected to the controllable magnetic actuators (71, 72, 81, 82) to control the magnetic force generated by the magnetic actuators (71, 72, 81, 82), and characterized in that the device furthermore includes air gap distance sensors (9, 10, 11) connected to the controller to measure the variable axial air gap between the magnetic actuator (71, 72, 81, 82) and the ferromagnetic counterpart (41, 42, 43, 51, 52, 53), wherein two air gap sensors (9, 10) are located near the "set" actuator assembly and one air gap sensor is located near the "reset" actuator assembly.
An implantable medical device comprising: a controller; a receiver having a higher power mode and a lower power mode, wherein: in the higher power mode, the receiver can receive a communication from an external device and pass the received communication to the controller; in the lower power mode the receiver operates at less than its maximum power level; a physiological sensor providing an output to the controller; and wherein the controller is configured to control whether the receiver is in the higher power mode or the lower power mode based at least in part on the output of the physiological sensor wherein the controller is configured to: identify a physiological parameter value based on the output of the physiological sensor; and based on one or more rules conditioned at least in part on the identified physiological parameter value, control whether the receiver is in the higher power mode or the lower power mode wherein the identified physiological parameter value comprises a heart rate value, and the one or more rules specify that the receiver is to be placed in the higher power mode when the heart rate value is above a heart rate threshold and the receiver is to be placed in the lower power mode when the heart rate value is below the heart rate threshold. a controller; a receiver having a higher power mode and a lower power mode, wherein: in the higher power mode, the receiver can receive a communication from an external device and pass the received communication to the controller; in the lower power mode the receiver operates at less than its maximum power level; in the higher power mode, the receiver can receive a communication from an external device and pass the received communication to the controller; in the lower power mode the receiver operates at less than its maximum power level; a physiological sensor providing an output to the controller; and wherein the controller is configured to control whether the receiver is in the higher power mode or the lower power mode based at least in part on the output of the physiological sensor wherein the controller is configured to: identify a physiological parameter value based on the output of the physiological sensor; and based on one or more rules conditioned at least in part on the identified physiological parameter value, control whether the receiver is in the higher power mode or the lower power mode identify a physiological parameter value based on the output of the physiological sensor; and based on one or more rules conditioned at least in part on the identified physiological parameter value, control whether the receiver is in the higher power mode or the lower power mode wherein the identified physiological parameter value comprises a heart rate value, and the one or more rules specify that the receiver is to be placed in the higher power mode when the heart rate value is above a heart rate threshold and the receiver is to be placed in the lower power mode when the heart rate value is below the heart rate threshold.
A transport device with a plurality of electro-magnetic actuators and a driving surface arranged above the electro-magnetic actuators, which driving surface is adapted to carry sample container carriers, wherein the driving surface is tiled comprising a plurality of driving surface modules with driving surface elements, wherein support elements arranged in a grid pattern are provided, and wherein each driving surface module is detachably mounted to a subset of the support elements, so that individual driving surface modules are detachable to access electro-magnetic actuators arranged below said individual driving surface modules.
Rolling bearing with a first raceway, a second raceway and at least one rolling body, arranged between the first raceway and the second raceway, and a lubricant, wherein the lubricant comprises a conventional lubricant as a basic lubricant and at least one first additive, wherein the first additive includes muscovite, and wherein the lubricant includes a proportion of muscovite that is between 3% and 5%.
A method performed by a terminal which communicates with a macro base station having a macrocell as coverage area and using a first frequency assignment, FA, the method comprising: determining a reference signal received power, RSRP, value of a second FA of a neighbor compact base station having a compact cell as coverage area by performing an inter-FA measurement; determining whether a measurement report triggering condition is satisfied or not by applying an offset value to the RSRP value of the second FA; if the measurement report triggering condition is satisfied, generating a measurement report message comprising the RSRP value of the second FA and transmitting the measurement report message to the macro base station; and after receiving a handover command message for instructing the terminal to inter-FA handover from the macro base station, performing the inter-FA handover to the neighbor compact base station using the second FA, wherein the first FA is a common FA of the compact cell and the macrocell, the second FA is a dedicated FA of the compact cell, and the second FA is used in a coverage area expanded according to the coverage area expansion of the compact cell based on the offset value. determining a reference signal received power, RSRP, value of a second FA of a neighbor compact base station having a compact cell as coverage area by performing an inter-FA measurement; determining whether a measurement report triggering condition is satisfied or not by applying an offset value to the RSRP value of the second FA; if the measurement report triggering condition is satisfied, generating a measurement report message comprising the RSRP value of the second FA and transmitting the measurement report message to the macro base station; and after receiving a handover command message for instructing the terminal to inter-FA handover from the macro base station, performing the inter-FA handover to the neighbor compact base station using the second FA, wherein the first FA is a common FA of the compact cell and the macrocell, the second FA is a dedicated FA of the compact cell, and the second FA is used in a coverage area expanded according to the coverage area expansion of the compact cell based on the offset value.
Scan planning system for planning a data acquisition process of an object of interest with a rotational X-ray C-arm examination apparatus, the scan planning system comprising: a control unit for predicting a field of view to be reconstructed and an image quality in the field of view on the basis of at least one of a scan parameter set and a previously acquired reference data set of the object; characterized in that for the image quality, with respect to actual fluoroscopic images, the control unit is adapted to highlight regions that may be seriously affected by artefacts like truncations or clipping. a control unit for predicting a field of view to be reconstructed and an image quality in the field of view on the basis of at least one of a scan parameter set and a previously acquired reference data set of the object; characterized in that for the image quality, with respect to actual fluoroscopic images, the control unit is adapted to highlight regions that may be seriously affected by artefacts like truncations or clipping.
An antireflection coating formed of a transparent first layer applied on a substrate of low refractive index (n substrate) and a transparent second layer over the first layer, wherein thickness (d 1) of the first layer ranges from 10 to 70 nm and refractive index (n 1) of said first layer satisfies the relation 1.05<n 1 <1.35 within the wavelength range of 375 to 1000 nm, and wherein thickness (d 2) of the second layer ranges from 30 to 100 nm and refractive index (n 2) of said second layer satisfies the relation 1.25<n 2 <1.5 within the wavelength range of 375 to 1000 nm, and wherein n 1 <n 2.
A sensing system for detecting degradation of a machine fluid which has an acid content which increases as a result of degradation of the machine fluid, comprising: a tag having electrical contacts, the tag being configured to transmit a wireless signal when the electrical contacts are in electrical communication; and a dissolvable element separating the electrical contacts and obstructing electrical communication between the electrical contacts, the dissolvable element being formed from one or more compounds that is sensitive to acid and configured to at least partially dissolve and allow electrical communication between the electrical contacts when an acid content of the machine fluid reaches a predetermined level indicative of the degradation of the machine fluid. a tag having electrical contacts, the tag being configured to transmit a wireless signal when the electrical contacts are in electrical communication; and a dissolvable element separating the electrical contacts and obstructing electrical communication between the electrical contacts, the dissolvable element being formed from one or more compounds that is sensitive to acid and configured to at least partially dissolve and allow electrical communication between the electrical contacts when an acid content of the machine fluid reaches a predetermined level indicative of the degradation of the machine fluid.
A thermoelectric conversion module comprising: a pair of opposing wiring substrates (2A,2B); a plurality of thermoelectric conversion elements (3,4) connected via the wiring substrates between the wiring substrates; ceramic substrates provided at the respective wiring substrates (2A,2B); electrode layers (12,13) made of aluminum or aluminum alloy, provided at the respective wiring substrates (2A,2B), formed on one surface of the respective ceramic substrates and connected to the thermoelectric conversion elements (3,4); and a silver base layer formed on a surface of the electrode layers (12,13) at at least one of the wiring substrates (2A,2B), and connected to the thermoelectric conversion elements (3,4); wherein the silver base layer is structured from: a glass layer formed on any of the electrode layers (12,13); and a silver layer made of a fired body of silver laminated on the glass layer. a pair of opposing wiring substrates (2A,2B); a plurality of thermoelectric conversion elements (3,4) connected via the wiring substrates between the wiring substrates; ceramic substrates provided at the respective wiring substrates (2A,2B); electrode layers (12,13) made of aluminum or aluminum alloy, provided at the respective wiring substrates (2A,2B), formed on one surface of the respective ceramic substrates and connected to the thermoelectric conversion elements (3,4); and a silver base layer formed on a surface of the electrode layers (12,13) at at least one of the wiring substrates (2A,2B), and connected to the thermoelectric conversion elements (3,4); wherein the silver base layer is structured from: a glass layer formed on any of the electrode layers (12,13); and a silver layer made of a fired body of silver laminated on the glass layer. a glass layer formed on any of the electrode layers (12,13); and a silver layer made of a fired body of silver laminated on the glass layer.
A secondary battery comprising: an electrode assembly comprising a first electrode plate, a second electrode plate, and a separator between the first electrode plate and the second electrode plate; a first electrode terminal; a case housing the electrode assembly and a first collecting plate; and a cap assembly sealing the case, wherein the first collecting plate has a first region (121 a) contacting the first electrode plate or the second electrode plate, a second region extending at a right angle to the first region (121 a), and a first reinforcement part that extends at a right angle to both the first region (121 a) and the second region (121 b), characterized in that, (i) a width W2 of the second region is greater than a width W1 of the first region (121 a); or (ii) a width W1 of the first region (121 a) is greater than a width W2 of the second region. an electrode assembly comprising a first electrode plate, a second electrode plate, and a separator between the first electrode plate and the second electrode plate; a first electrode terminal; a case housing the electrode assembly and a first collecting plate; and a cap assembly sealing the case, wherein the first collecting plate has a first region (121 a) contacting the first electrode plate or the second electrode plate, a second region extending at a right angle to the first region (121 a), and a first reinforcement part that extends at a right angle to both the first region (121 a) and the second region (121 b), characterized in that, (i) a width W2 of the second region is greater than a width W1 of the first region (121 a); or (ii) a width W1 of the first region (121 a) is greater than a width W2 of the second region. (i) a width W2 of the second region is greater than a width W1 of the first region (121 a); or (ii) a width W1 of the first region (121 a) is greater than a width W2 of the second region.
A fiber preform for a turbine engine blade, the preform comprising a main fiber structure obtained by a single piece of three-dimensional weaving, said main first structure comprising: - a first longitudinal segment suitable for forming a blade root; - a second longitudinal segment extending the first longitudinal segment and suitable for forming an airfoil portion; and - at least one transverse segment extending transversely from the junction between the first and second longitudinal segments (41, 42) and suitable for forming a tongue for a platform; characterized in that the transverse segment extends axially over a length that is less than 30% of the length of the junction between the first and second longitudinal segments (41, 42). - a first longitudinal segment suitable for forming a blade root; - a second longitudinal segment extending the first longitudinal segment and suitable for forming an airfoil portion; and - at least one transverse segment extending transversely from the junction between the first and second longitudinal segments (41, 42) and suitable for forming a tongue for a platform;
Mannich base of the formula: where X is H or a linear hydrocarbyl radical having 15 carbon atoms, Y is in each case independently a radical of the formula or H or dimethylaminoethyl or methoxy, where at least one of the Y radicals is a radical of the formula, R 1 is H or an alkyl radical having 1 to 6 carbon atoms or a phenyl radical, and A is an alkylene radical having 2 to 10 carbon atoms, where the two nitrogen atoms to which the A radical is bonded are separated from one another by at least two carbon atoms. X is H or a linear hydrocarbyl radical having 15 carbon atoms, Y is in each case independently a radical of the formula or H or dimethylaminoethyl or methoxy, where at least one of the Y radicals is a radical of the formula, R 1 is H or an alkyl radical having 1 to 6 carbon atoms or a phenyl radical, and A is an alkylene radical having 2 to 10 carbon atoms, where the two nitrogen atoms to which the A radical is bonded are separated from one another by at least two carbon atoms.
A food composition comprising at least 0.1% w/w Chlorella protothecoides microalgal biomass and one or more other edible ingredient, wherein the microalgal biomass (i) comprises microalgal cells cultured under heterotrophic conditions, (ii) is reduced in green pigmentation, and (iii) comprises at least 10% oil by dry weight, wherein less than 5% by weight of the oil is docosahexanoic acid (C22:6).
A common mode choke, CMC, component, comprising: an upper chassis element comprising a first plurality of comb structures vertically protruding from an edge of the upper chassis element, and a lower chassis element comprising a second plurality of comb structures vertically protruding from an edge of the lower chassis element, the second plurality of comb structures configured to interlock with the first plurality of comb structures to form an enclosure when the upper chassis element is mechanically coupled with the lower chassis element, wherein the lower chassis element further comprises a plurality of pegs, the plurality of pegs distending outward from the enclosure, and wherein the plurality of pegs are each configured to receive a respective toroid wire from a magnetic toroid disposed within the enclosure. an upper chassis element comprising a first plurality of comb structures vertically protruding from an edge of the upper chassis element, and a lower chassis element comprising a second plurality of comb structures vertically protruding from an edge of the lower chassis element, the second plurality of comb structures configured to interlock with the first plurality of comb structures to form an enclosure when the upper chassis element is mechanically coupled with the lower chassis element, wherein the lower chassis element further comprises a plurality of pegs, the plurality of pegs distending outward from the enclosure, and wherein the plurality of pegs are each configured to receive a respective toroid wire from a magnetic toroid disposed within the enclosure.
An apparatus comprising means (500, 502, 506) for forming a cell for carrying out uplink and downlink communication with cellular mobile devices, the cell having a physical cell identity and a tracking area code unused by neighboring real cells of a communication system; means (500, 502, 506) for transmitting channel bandwidth indication which indicates to cellular mobile devices that the formed cell utilizes bandwidth identical to the bandwidth utilized in neighboring real cells; means (500, 502, 506) for providing a downlink radio channel power level on a given continuous channel subset of the indicated channel bandwidth, the downlink radio channel power level being higher than downlink radio channel power level utilized in real neighboring real cells; means (500, 502, 506) for receiving a communication request from a cellular mobile device; means (500, 502, 506) for allocating radio resources to the cellular mobile device from the given continuous channel subset of the indicated channel bandwidth; and means (500, 502, 506) for receiving a subscriber identity of the cellular mobile device sent from the cellular mobile device. means (500, 502, 506) for forming a cell for carrying out uplink and downlink communication with cellular mobile devices, the cell having a physical cell identity and a tracking area code unused by neighboring real cells of a communication system; means (500, 502, 506) for transmitting channel bandwidth indication which indicates to cellular mobile devices that the formed cell utilizes bandwidth identical to the bandwidth utilized in neighboring real cells; means (500, 502, 506) for providing a downlink radio channel power level on a given continuous channel subset of the indicated channel bandwidth, the downlink radio channel power level being higher than downlink radio channel power level utilized in real neighboring real cells; means (500, 502, 506) for receiving a communication request from a cellular mobile device; means (500, 502, 506) for allocating radio resources to the cellular mobile device from the given continuous channel subset of the indicated channel bandwidth; and means (500, 502, 506) for receiving a subscriber identity of the cellular mobile device sent from the cellular mobile device.