mhurhangee/ep-ind-claims huggingface dataset:
A propeller blade comprising a plurality of blade sections stacked in a radial direction over a height h between a blade root and a blade tip, each blade section extending between a leading edge and a trailing edge, and between a pressure side and a suction side; and wherein the leading edge presents negative sweep at the blade root, positive sweep at the blade tip, and between the negative sweep and the positive sweep, a convex portion the propeller blade being characterized in that the convex portion is situated at a radial position z v at a distance lying in the range 0.2xh to 0.4xh from the blade root, and in that each blade section presents a chord of function C(z) for which the derivative dC/dz presents a first local maximum between the blade root and the position z v, a local minimum between the position z v and a radial position z t lying at a distance in the range 0.7xh to 0.8xh from the blade root, and a second local maximum between the position z t and the blade tip.
A bichrysene compound represented by the following general formula: where R 1 to R 18 each independently represent a substituent selected from the group consisting of a hydrogen atom, a substituted or unsubstituted alkyl group, a substituted or unsubstituted cyclopropyl group, a substituted or unsubstituted cyclobutyl group, a substituted or unsubstituted cyclopentyl group, a substituted or unsubstituted cyclohexyl group, a substituted or unsubstituted norbornyl group, a substituted or unsubstituted adamantyl group, a substituted or unsubstituted alkoxy group, a substituted or unsubstituted aryloxy group, and a substituted or unsubstituted benzyloxy group, and Ar 1 to Ar 4 each independently represent a substituted or unsubstituted hydrocarbon aromatic ring group.
A system for monitoring usage of a functional facility, comprising: (i) a plurality of detectors for detecting the presence of at least one client device in the functional facility, wherein the plurality of detectors are geographically mapped in the functional facility; and (ii) a client device mapping module for determining the location of the at least one client device detected by one or more of the plurality of detectors, wherein the client device mapping module is configured to perform the following steps: determining, based on a measured value of electromagnetic radiation received by at least one of the plurality of detectors, an estimate of a location point pertaining to a first client device which is associated with a user and wirelessly coupled with at least one of the plurality of detectors; detecting a wired LAN connection that is made by a second client device associated with the user with at least one other detector of the plurality of detectors; and determining a distance between the estimated location point pertaining to the first client device and the location associated with the detected wired LAN connection that is made by the second client device with at least one other detector of the plurality of detectors; and if the distance is within a certain range, mapping the first client device to the location of the detected wired LAN connection. (i) a plurality of detectors for detecting the presence of at least one client device in the functional facility, wherein the plurality of detectors are geographically mapped in the functional facility; and (ii) a client device mapping module for determining the location of the at least one client device detected by one or more of the plurality of detectors, determining, based on a measured value of electromagnetic radiation received by at least one of the plurality of detectors, an estimate of a location point pertaining to a first client device which is associated with a user and wirelessly coupled with at least one of the plurality of detectors; detecting a wired LAN connection that is made by a second client device associated with the user with at least one other detector of the plurality of detectors; and determining a distance between the estimated location point pertaining to the first client device and the location associated with the detected wired LAN connection that is made by the second client device with at least one other detector of the plurality of detectors; and if the distance is within a certain range, mapping the first client device to the location of the detected wired LAN connection.
An electric motor, comprising: an electric motor shaft; a rotor which rotates about the electric motor shaft; a stator disposed in an outer periphery of the rotor; a housing which houses the rotor and the electric motor shaft; a sealing body formed in the housing, the sealing body being formed of sealant made of synthetic resin material having a heat conductive property and electrical insulation property, the sealant having been injected so as to cover at least a coil end of the stator; a temperature sensitive device disposed in the housing and configured to be operated in response to temperature; an end cover to be mounted on an axial end of the housing; and a retaining member having elasticity, wherein: the electric motor shaft is disposed to pass through the end cover; the sealing body has surfaces including a temperature-sensitive-device support surface (21b, 20a) opposed to the end cover; characterized in that the temperature sensitive device is elastically retained between the end cover and the temperature-sensitive-device support surface (21b, 20a) by the elasticity of the retaining member and by a fastening force applied to the end cover in such away that the retaining member is interposed between the temperature sensitive device and the end cover. an electric motor shaft; a rotor which rotates about the electric motor shaft; a stator disposed in an outer periphery of the rotor; a housing which houses the rotor and the electric motor shaft; a sealing body formed in the housing, the sealing body being formed of sealant made of synthetic resin material having a heat conductive property and electrical insulation property, the sealant having been injected so as to cover at least a coil end of the stator; a temperature sensitive device disposed in the housing and configured to be operated in response to temperature; an end cover to be mounted on an axial end of the housing; and a retaining member having elasticity, wherein: the electric motor shaft is disposed to pass through the end cover; the sealing body has surfaces including a temperature-sensitive-device support surface (21b, 20a) opposed to the end cover; characterized in that the temperature sensitive device is elastically retained between the end cover and the temperature-sensitive-device support surface (21b, 20a) by the elasticity of the retaining member and by a fastening force applied to the end cover in such away that the retaining member is interposed between the temperature sensitive device and the end cover. the electric motor shaft is disposed to pass through the end cover; the sealing body has surfaces including a temperature-sensitive-device support surface (21b, 20a) opposed to the end cover; characterized in that the temperature sensitive device is elastically retained between the end cover and the temperature-sensitive-device support surface (21b, 20a) by the elasticity of the retaining member and by a fastening force applied to the end cover in such away that the retaining member is interposed between the temperature sensitive device and the end cover.
A method of washing a cation exchange resin, the method comprising: washing a cation exchange resin with deionized water (DI water) one or more times to prepare a washed cation exchange resin; and adding the washed cation exchange resin to deionized water and storing the washed cation exchange resin in deionized water, wherein a temperature of storing the washed cation exchange resin is 50 °C to 90 °C and a time of storing the washed cation exchange resin is 6 hours to 20 hours, wherein in the step, the washing of the cation exchange resin is repeatedly performed while repeatedly replacing the deionized water until a pH of the deionized water discharged after the washing of the cation exchange resin is 6.2 to 7, wherein in the step, a temperature of washing of the cation exchange resin is 10°C to 30°C, and wherein the step and the step are performed repeatedly while replacing the deionized water until a concentration of an acidic effluent of the deionized water discharged in the step is 0.5 ppm or less. washing a cation exchange resin with deionized water (DI water) one or more times to prepare a washed cation exchange resin; and adding the washed cation exchange resin to deionized water and storing the washed cation exchange resin in deionized water, wherein a temperature of storing the washed cation exchange resin is 50 °C to 90 °C and a time of storing the washed cation exchange resin is 6 hours to 20 hours, wherein in the step, the washing of the cation exchange resin is repeatedly performed while repeatedly replacing the deionized water until a pH of the deionized water discharged after the washing of the cation exchange resin is 6.2 to 7, wherein in the step, a temperature of washing of the cation exchange resin is 10°C to 30°C, and wherein the step and the step are performed repeatedly while replacing the deionized water until a concentration of an acidic effluent of the deionized water discharged in the step is 0.5 ppm or less.
Triaxial monolithic acceleration sensor which has the following features: a) the acceleration sensor consists of a plurality of individual sensors (2a-d) arranged on a common substrate and each having a main sensitivity axis, b) each individual sensor (2a-d) has a seismic mass (3a-d) with a centre of gravity (S a, S b, S c, S d), which seismic mass is suspended from two torsion spring elements (4a-h) so as to be able to move rotationally, c) each individual sensor (2a-d) has means for measuring the deflection of the seismic mass (3a-d), characterized in that d) the acceleration sensor consists of at least three identical individual sensors (2a-d), e) the seismic mass of each individual sensor (2a-d) is suspended eccentrically relative to its centre of gravity (S a, S b, S c, S d), and f) the respective individual sensor is rotated by 90°, 180° or 270° relative to the other individual sensors (2a-d), g) an error angle Φ resulting in accordance with tan φ = b a where a denotes the distance between the axis of rotation (D b) and the centre of gravity (S b) in the X- and the Y-directions, and b denotes the distance between the axis of rotation (D b) and the centre of gravity (S b) in the Z-direction, h) an error angle Φ of 45° being set. a) the acceleration sensor consists of a plurality of individual sensors (2a-d) arranged on a common substrate and each having a main sensitivity axis, b) each individual sensor (2a-d) has a seismic mass (3a-d) with a centre of gravity (S a, S b, S c, S d), which seismic mass is suspended from two torsion spring elements (4a-h) so as to be able to move rotationally, c) each individual sensor (2a-d) has means for measuring the deflection of the seismic mass (3a-d), characterized in that d) the acceleration sensor consists of at least three identical individual sensors (2a-d), e) the seismic mass of each individual sensor (2a-d) is suspended eccentrically relative to its centre of gravity (S a, S b, S c, S d), and f) the respective individual sensor is rotated by 90°, 180° or 270° relative to the other individual sensors (2a-d), g) an error angle Φ resulting in accordance with tan φ = b a where a denotes the distance between the axis of rotation (D b) and the centre of gravity (S b) in the X- and the Y-directions, and b denotes the distance between the axis of rotation (D b) and the centre of gravity (S b) in the Z-direction, h) an error angle Φ of 45° being set.
A method for producing a composite element, in particular a window or door frame element, comprising the following steps: • providing at least one metal profile element (3, 4), in particular made of a light metal alloy; • providing at least one thermoplastic plastic foam body, • fixing the plastic foam body to the metal profile element (3, 4); the plastic foam body being bonded to the at least one metal profile element (3, 4) by melting the plastic foam body at a contact surface (5, 6) and by contacting of the plastic foam body and the metal profile element (3, 4) and thus establishing an adhesive bond, and the at least one metal profile element (3, 4) being electrically contacted in order to be heated, in particular at ends facing away from one another along the longitudinal extension of the at least one metal profile element (3, 4), and electric current flowing through the at least one metal profile element (3, 4), characterized in that the plastic foam body is disposed between two metal profile elements (3, 4), preferably an inner frame shell and an outer frame shell, and that the plastic foam body is simultaneously bonded to the two metal profile elements (3, 4) by simultaneous heating of the metal profile elements (3, 4) by energization on two sides of the plastic foam body. • providing at least one metal profile element (3, 4), in particular made of a light metal alloy; • providing at least one thermoplastic plastic foam body, • fixing the plastic foam body to the metal profile element (3, 4);
Method of managing the operation of a contactless communication device, said contactless communication device being configured to support a card emulation mode using active load modulation -ALM- and a peer to peer mode and comprising a phase locked loop and a frequency locked loop having in common the same controlled oscillator, said method comprising firstly placing the contactless communication device in the card emulation mode at the beginning of a communication between said contactless communication device and a contactless reader, said firstly placing comprising synchronizing within the contactless device, an ALM carrier frequency (DVCLK) with a reader carrier frequency (CLEX) by operating at least said phase locked loop, and upon reception by the contactless communication device of an indication sent by the reader indicating a further communication in a peer to peer mode with said reader, secondly placing the contactless communication device in the peer to peer mode, said secondly placing including deactivating the phase locked loop and operating the frequency locked loop with a reference clock signal (XOCLK) and a frequency set point depending on said reader carrier frequency and the frequency of the reference clock signal.
A peripheral device for a fire alarm system or a security system, the peripheral device comprising: a near field communication interface; and control circuitry of the peripheral device in communication with the near field communication interface, wherein the near field communication interface receives a first near field communication signal, wherein the control circuitry is powered via power in the first near field communication signal, wherein the control circuity is configured via configuration data in the first near field communication signal, wherein the peripheral device includes a software application with a security feature for limiting access to the peripheral device to a particular group of configuration devices following the configuration of the peripheral device, wherein the near field communication interface receives a second near field communication signal, and wherein the second near field communication signal causes the control circuitry to transmit diagnostic information regarding the control circuitry and configuration thereof via the near field communication interface. a near field communication interface; and control circuitry of the peripheral device in communication with the near field communication interface, wherein the near field communication interface receives a first near field communication signal, wherein the control circuitry is powered via power in the first near field communication signal, wherein the control circuity is configured via configuration data in the first near field communication signal, wherein the peripheral device includes a software application with a security feature for limiting access to the peripheral device to a particular group of configuration devices following the configuration of the peripheral device, wherein the near field communication interface receives a second near field communication signal, and wherein the second near field communication signal causes the control circuitry to transmit diagnostic information regarding the control circuitry and configuration thereof via the near field communication interface.
A portable device for analysing and monitoring exercise done by a user, comprising at least a portable support, electric power supply means, sensor means for measuring the exercise done by the user during at least one predetermined period of time, expressed in the form of one non-dimensional parameter, at least one memory designed to archive data relating to the measurement of exercise done by the user, display means for displaying the measurement of the exercise done by the user and the data archived in the memory, data communication means, for communicating with at least one processing unit,; wherein the sensor means comprise at least an accelerometer connected to respective means for processing and treating the signals generated by it, characterised in that said memory contains overall measurement of overall exercise done by the user and is provided with at least one algorithm which sets a daily exercise goal which the user must reach, based on the exercise values recorded in the past by the user, wherein the processing means are programmed for processing the signal generated by the accelerometer to generate a signal substantially directly proportional to the exercise done by the user wearing the device, and wherein said non-dimensional parameter indicates the measurement of the exercise done by the user and is substantially directly proportional to the accelerometric measurements of the sensor means.
An apparatus for sorting cells or particles by light induced dielectrophoresis, the apparatus comprising: a fluidic chamber having a first surface and a second surface (48, 50) configured for retaining in the fluidic chamber a liquid containing a population of particles or cells to be sorted; a photoconductive area on said first or said second surface configured for conversion of received light to a local electric field in the vicinity of the received light; a light source to provide the light to the photoconductive area; an input channel (112; 144) being configured for receiving a sample liquid containing a population of particles or cells to be sorted; the input channel flaring outward to form a sorting area (114; 146); and a light pattern controller configured for controlling output and pattern of light provided to the photoconductive area from the light source, wherein the light source is arranged to provide light patterns (104; 122; 154) at an angle to a flow of said sample liquid in the fluidic chamber; the sorting area breaking up into a plurality of outlet channels (116, 118; 148, 150, 152) spaced-apart at relative distances in relation to the position of the photoconductive area of the fluidic chamber. a fluidic chamber having a first surface and a second surface (48, 50) configured for retaining in the fluidic chamber a liquid containing a population of particles or cells to be sorted; a photoconductive area on said first or said second surface configured for conversion of received light to a local electric field in the vicinity of the received light; a light source to provide the light to the photoconductive area; an input channel (112; 144) being configured for receiving a sample liquid containing a population of particles or cells to be sorted; the input channel flaring outward to form a sorting area (114; 146); and a light pattern controller configured for controlling output and pattern of light provided to the photoconductive area from the light source, wherein the light source is arranged to provide light patterns (104; 122; 154) at an angle to a flow of said sample liquid in the fluidic chamber; the sorting area breaking up into a plurality of outlet channels (116, 118; 148, 150, 152) spaced-apart at relative distances in relation to the position of the photoconductive area of the fluidic chamber.
A composition for a gel polymer electrolyte, the composition comprising: i) an electrolyte solution solvent; ii) an ionizable lithium salt; iii) a polymerization initiator; and iv) a monomer having a functional group bondable to metal ions wherein the monomer is acrylate-based monomer having the functional group selected from the group consisting of and which are substituted or unsubstituted with C 1 -C 5 alkyl or halogen, or a mixture of two or more thereof. i) an electrolyte solution solvent; ii) an ionizable lithium salt; iii) a polymerization initiator; and iv) a monomer having a functional group bondable to metal ions
A computer implemented method for analyzing a digital pathology image (300, 400) comprising: selecting an analysis region (301, 303) of the digital pathology image (300, 400); separating a tissue region and a background region in the analysis region (301, 303) of the digital pathology image (300, 400) using a predetermined separation threshold; selecting nuclei within the tissue region; calculating a nuclear perimeter (805, 1406) of the nuclei as a first perimeter; determining an estimated membrane perimeter based on the nuclear perimeter (805, 1406) according to an a priori cell model (1400, 1410); designating a membrane region according to the tissue region and the selected nuclei; refining the membrane region according to at least one refinement parameter; calculating an actual membrane perimeter of the refined membrane region as a second perimeter; calculating a staining extent as a function of the estimated membrane perimeter and the actual membrane perimeter; generating a membrane intensity score of the refined membrane region according to a predetermined model based on a data mining exercise; and scoring the analysis region according to the membrane intensity score and the staining extent. selecting an analysis region (301, 303) of the digital pathology image (300, 400); separating a tissue region and a background region in the analysis region (301, 303) of the digital pathology image (300, 400) using a predetermined separation threshold; selecting nuclei within the tissue region; calculating a nuclear perimeter (805, 1406) of the nuclei as a first perimeter; determining an estimated membrane perimeter based on the nuclear perimeter (805, 1406) according to an a priori cell model (1400, 1410); designating a membrane region according to the tissue region and the selected nuclei; refining the membrane region according to at least one refinement parameter; calculating an actual membrane perimeter of the refined membrane region as a second perimeter; calculating a staining extent as a function of the estimated membrane perimeter and the actual membrane perimeter; generating a membrane intensity score of the refined membrane region according to a predetermined model based on a data mining exercise; and scoring the analysis region according to the membrane intensity score and the staining extent.