mhurhangee/ep-ind-claims huggingface dataset:
A method for determining wind speed components by way of a LiDAR sensor, said LiDAR sensor being oriented substantially vertically in order to carry out the measurements in at least one substantially horizontal measurement plane, wherein the following steps are implemented: a) Acquiring measurement signals from said LiDAR sensor in said at least one measurement plane; b) Determining an approximation of the wind speed components in said at least one measurement plane by way of a geometric reconstruction of said wind speed components based on said acquired measurement signals; c) Determining an average speed and a standard deviation of the wind in said at least one measurement plane by way of said approximated wind speed components; d) Constructing a wind signal model using the sum of two first-order filters, which is the sum of an integrator and of a low-pass filter, said wind signal model being dependent on two parameters (a, b) which are; e) Determining said two parameters (a, b) of said wind signal model by way of said determined standard deviation and the determined average wind speed; f) Filtering said acquired measurement signals by way of a non-stationary Kalman filter, said wind signal model and said two determined parameters; and g) Determining the wind speed components in said at least one measurement plane, by way of a geometric reconstruction of said wind speed components based on said filtered measurement signals. a) Acquiring measurement signals from said LiDAR sensor in said at least one measurement plane; b) Determining an approximation of the wind speed components in said at least one measurement plane by way of a geometric reconstruction of said wind speed components based on said acquired measurement signals; c) Determining an average speed and a standard deviation of the wind in said at least one measurement plane by way of said approximated wind speed components; d) Constructing a wind signal model using the sum of two first-order filters, which is the sum of an integrator and of a low-pass filter, said wind signal model being dependent on two parameters (a, b) which are; e) Determining said two parameters (a, b) of said wind signal model by way of said determined standard deviation and the determined average wind speed; f) Filtering said acquired measurement signals by way of a non-stationary Kalman filter, said wind signal model and said two determined parameters; and g) Determining the wind speed components in said at least one measurement plane, by way of a geometric reconstruction of said wind speed components based on said filtered measurement signals.
A heat storage material comprising a substance that induces an electronic phase transition, wherein the electronic phase transition is a phase transition with multiple degrees of freedom including a spin degree of freedom and an orbital degree of freedom, which are internal degrees of freedom of electrons, and the substance is V (1-X) Cr X O 2 (0<X≤0.23), wherein wherein the substance is synthesized by mixing V 2 O 3 powder, V 2 O 5 powder and Cr 2 O 3 powder in such a manner that a molar ratio of vanadium, chromium and oxygen is a predetermined molar ratio, and by heating a mixture obtained through mixing, and the substance is synthesized through vacuum sealing and heating of the mixture.
A method of communication between a producer node and a consumer node (12b, 12c, 12d) over a high reliability network in an industrial control system, wherein the high reliability network guards against the propagation of erroneous data or signals to a predetermined high level of probability, the method comprising the steps of: (a) preparing a message at the producer node, the message including: i. message data; ii. a first error detection code, EDC, being a compressed representation of the message data using a first protocol; and iii. a second EDC based on the message data using a second protocol different than the first protocol, wherein the second protocol provides a compressed representation of complementary message data and wherein complementary message data is achieved by inverting each bit of the message data; (b) transmitting the message to the consumer node; (c) at the consumer node, receiving the message over the network and calculating; i. an expected first EDC based on the received message data using the first protocol; and ii. an expected second EDC corresponding to the received message data using the second protocol; and (d) comparing the expected first and second EDCs to the received first and second EDCs to determine whether data had been corrupted during the transmission of the message. (a) preparing a message at the producer node, the message including: i. message data; ii. a first error detection code, EDC, being a compressed representation of the message data using a first protocol; and iii. a second EDC based on the message data using a second protocol different than the first protocol, wherein the second protocol provides a compressed representation of complementary message data and wherein complementary message data is achieved by inverting each bit of the message data; i. message data; ii. a first error detection code, EDC, being a compressed representation of the message data using a first protocol; and iii. a second EDC based on the message data using a second protocol different than the first protocol, wherein the second protocol provides a compressed representation of complementary message data and wherein complementary message data is achieved by inverting each bit of the message data; (b) transmitting the message to the consumer node; (c) at the consumer node, receiving the message over the network and calculating; i. an expected first EDC based on the received message data using the first protocol; and ii. an expected second EDC corresponding to the received message data using the second protocol; and i. an expected first EDC based on the received message data using the first protocol; and ii. an expected second EDC corresponding to the received message data using the second protocol; and (d) comparing the expected first and second EDCs to the received first and second EDCs to determine whether data had been corrupted during the transmission of the message.
An electronic device comprising: a proximity sensor; a storage configured to link and store a keyword with a type of gesture detected by the proximity sensor, and to link and store a priority to the keyword; and a controller configured to detect the keyword from notification information provided to a user, and to execute processing based on the type of gesture linked to the keyword when the priority associated with the keyword is equal to or greater than a reference priority. a proximity sensor; a storage configured to link and store a keyword with a type of gesture detected by the proximity sensor, and to link and store a priority to the keyword; and a controller configured to detect the keyword from notification information provided to a user, and to execute processing based on the type of gesture linked to the keyword when the priority associated with the keyword is equal to or greater than a reference priority.
A method of screening a vaccine for activity, assessing efficacy of a vaccine or predicting in vivo efficacy of a vaccine, comprising: (a) adding a vaccine and one or more cellular activator to a first in vitro cell culture comprising cord blood CD4+ T cells and maintaining the cell culture under conditions promoting development of vaccine-specific T follicular helper (T FH) cells, (b) forming a second in vitro cell culture comprising T FH cells developed in (a) and cord blood B cells, (c) adding a vaccine-specific antigen to the cell culture of (b) and maintaining the culture under conditions promoting a cellular response, and (d) analyzing supernatant and/or cells from the cell culture of (c) for a cellular response, thereby screening a vaccine for activity, thereby assessing efficacy of a vaccine or wherein when a cellular response is found the vaccine is predicted to have in vivo efficacy, wherein the one or more cellular activator is selected from the group consisting of an anti-CD28 antibody, IL-2, IL-6, IL-12, IL-21, and IL-23; and wherein the cellular response is one or more of production of a cytokine by the B cells, expression of a marker by the B cells, and production of an antibody with binding specificity for the vaccine-specific antigen by the B cells. (a) adding a vaccine and one or more cellular activator to a first in vitro cell culture comprising cord blood CD4+ T cells and maintaining the cell culture under conditions promoting development of vaccine-specific T follicular helper (T FH) cells, (b) forming a second in vitro cell culture comprising T FH cells developed in (a) and cord blood B cells, (c) adding a vaccine-specific antigen to the cell culture of (b) and maintaining the culture under conditions promoting a cellular response, and (d) analyzing supernatant and/or cells from the cell culture of (c) for a cellular response, thereby screening a vaccine for activity, thereby assessing efficacy of a vaccine or wherein when a cellular response is found the vaccine is predicted to have in vivo efficacy, wherein the one or more cellular activator is selected from the group consisting of an anti-CD28 antibody, IL-2, IL-6, IL-12, IL-21, and IL-23; and wherein the cellular response is one or more of production of a cytokine by the B cells, expression of a marker by the B cells, and production of an antibody with binding specificity for the vaccine-specific antigen by the B cells.
MR local coil comprising - an antenna unit having at least one antenna for receiving and/or transmitting HF signals, - a connection cable for connecting the MR local coil to a magnetic resonance apparatus, - a flat transmission element for transmitting energy and/or signals between the connection cable and the antenna unit, wherein the connection cable is designed so as to be rotated on a connecting site of the connection cable to the antenna unit about an axis of rotation relative to the antenna unit, characterised in that the transmission element is at least in part arranged about the axis of rotation in a spiral manner, wherein the transmission element describes a coil having at least one half winding about the axis of rotation. - an antenna unit having at least one antenna for receiving and/or transmitting HF signals, - a connection cable for connecting the MR local coil to a magnetic resonance apparatus, - a flat transmission element for transmitting energy and/or signals between the connection cable and the antenna unit, wherein the connection cable is designed so as to be rotated on a connecting site of the connection cable to the antenna unit about an axis of rotation relative to the antenna unit, characterised in that the transmission element is at least in part arranged about the axis of rotation in a spiral manner, wherein the transmission element describes a coil having at least one half winding about the axis of rotation.
An ammonia decomposition catalyst for treating an ammonia exhaust gas containing moisture, comprising: a lower layer having a noble metal, an inorganic oxide, phosphorus, and a first proton type zeolite or a first ion exchange type zeolite ion-exchanged with Cu, Co or Fe ions; and an upper layer provided on the lower layer and having a second proton type zeolite or a second ion exchange type zeolite ion-exchanged with Cu, Co or Fe ions. a lower layer having a noble metal, an inorganic oxide, phosphorus, and a first proton type zeolite or a first ion exchange type zeolite ion-exchanged with Cu, Co or Fe ions; and an upper layer provided on the lower layer and having a second proton type zeolite or a second ion exchange type zeolite ion-exchanged with Cu, Co or Fe ions.
An isolated apalbumin protein or fragment thereof, which protein or fragment thereof has been chemically modified by methylglyoxal, has anti-inflammatory capacity, and comprises an amino acid sequence having at least 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, 99% or 100% sequence identity to the amino acid sequence set forth in SEQ ID NO 1.
A method in a wireless terminal of an LTE telecommunications system, the method comprising the steps of using an enhanced physical downlink control channel, ePDCCH, to receive a downlink assignment of radio resources for one or more downlink messages relating to a random access procedure, prior to an ePDCCH being formally configured for use with the wireless terminal by a radio resource controller, RRC, reconfiguration procedure (step 101).
Reamer, comprising - a base body, - a rotation axis, - at least one insert seat countersunk into the base body, and including at least first and second lateral surfaces (47, 49), - a cutting insert inserted into the insert seat, including at least one minor cutting edge (31A,31B,31C,31D), in particular, a cutting insert as set forth in claims 10 through 14, - a clamping device that clamps in place the cutting insert in the insert seat and includes a clamping jaw, wherein the cutting insert is able to be brought into contact with at least the second lateral surface of the insert seat under the action of the clamping jaw, and comprising - an adjustment device including an adjustment part by which the projection of at least one cutting edge of the cutting insert is adjustable over a circumferential surface or over at least one guide strip (73A through 73E) of the reamer, characterised in that - at least the first lateral surface is designed even, that - the first lateral surface is inclined relative to an imaginary line (vertical), standing vertically upright on the rotation axis, such that the cutting insert is aligned by contacting the lateral surface so that its minor cutting edge has a defined taper, wherein - the cutting insert rests flatly with its seating contact surfaces on the first lateral surface and that - an opening is provided at the base of the insert seat, through which opening the adjustment part protrudes into the insert seat, and that the cutting insert at its side facing the adjustment part adjoins - preferably exclusively - this part. - a base body, - a rotation axis, - at least one insert seat countersunk into the base body, and including at least first and second lateral surfaces (47, 49), - a cutting insert inserted into the insert seat, including at least one minor cutting edge (31A,31B,31C,31D), in particular, a cutting insert as set forth in claims 10 through 14, - a clamping device that clamps in place the cutting insert in the insert seat and includes a clamping jaw, wherein the cutting insert is able to be brought into contact with at least the second lateral surface of the insert seat under the action of the clamping jaw, and comprising - an adjustment device including an adjustment part by which the projection of at least one cutting edge of the cutting insert is adjustable over a circumferential surface or over at least one guide strip (73A through 73E) of the reamer, - at least the first lateral surface is designed even, that - the first lateral surface is inclined relative to an imaginary line (vertical), standing vertically upright on the rotation axis, such that the cutting insert is aligned by contacting the lateral surface so that its minor cutting edge has a defined taper, wherein - the cutting insert rests flatly with its seating contact surfaces on the first lateral surface and that - an opening is provided at the base of the insert seat, through which opening the adjustment part protrudes into the insert seat, and that the cutting insert at its side facing the adjustment part adjoins - preferably exclusively - this part.
Valve having an electromagnet, having an inlet, having an outlet, having a housing, and having a fluid control means which is actuated mechanically by an armature of the electromagnet and, in manner dependent on the actuation by the armature of the electromagnet, fluidically connects a first pressure space, which is connected fluidically to the inlet, to a second pressure space, which is connected fluidically to the outlet, wherein the electromagnet has a third pressure space, wherein the third pressure space is of hollow-cylindrical form and is lined with a diaphragm at the inside on its cylinder surface, said diaphragm being surrounded at least partially by a support, wherein the support is mounted in the electromagnet, and wherein the support, by means of its shape and/or by means of its limited elasticity, limits the changes in shape of the diaphragm at pressures in the third pressure space that occur during operation to elastic changes in shape, characterized in that the electromagnet has a magnet pole which magnetically interacts with the armature, wherein the magnet pole is supported axially by a second spring means, and wherein the magnet pole is elastically displaceable in the direction of a second spring means counter to the force of the second spring means by way of a pressure in the third pressure space that is greater than a second predetermined limit pressure p g2.
A pharmaceutical formulation comprising: (i) an antibody at a concentration of from 5 mg/ml to 150 mg/ml that binds specifically to human angiopoietin 2 (human Ang-2), wherein the antibody is a human IgG1 antibody that comprises a heavy chain variable region (HCVR) having the amino acid sequence of SEQ ID NO: 18 and a light chain variable region (LCVR) having the amino acid sequence of SEQ ID NO: 20; (ii) a histidine buffer at a concentration of 10 mM ± 1.5 mM and a pH of 6.0 ± 0.3; (iii) polysorbate 20 at a concentration of 0.2% w/v ± 0.03% w/v; and (iv) sucrose at a concentration of 10% w/v ± 1.5% w/v. (i) an antibody at a concentration of from 5 mg/ml to 150 mg/ml that binds specifically to human angiopoietin 2 (human Ang-2), wherein the antibody is a human IgG1 antibody that comprises a heavy chain variable region (HCVR) having the amino acid sequence of SEQ ID NO: 18 and a light chain variable region (LCVR) having the amino acid sequence of SEQ ID NO: 20; (ii) a histidine buffer at a concentration of 10 mM ± 1.5 mM and a pH of 6.0 ± 0.3; (iii) polysorbate 20 at a concentration of 0.2% w/v ± 0.03% w/v; and (iv) sucrose at a concentration of 10% w/v ± 1.5% w/v.
A tungsten carbide powder with - a BET specific surface area as determined according to ASTM D 3663 of from 1.8 to 2.0 m 2 /g; - a crystallite size c in the individual tungsten carbide grains of from 75 to 100 nm, as determined by radiography using XRD/X-ray diffraction, single line, Scherrer method, and Fourier peak transformation evaluation with a NIST-certified crystallite size specimen as a reference; - an average grain size d, calculated by means of the formula d (nm) = 0.38 ((m 2 *nm)/g)/BET (m 2 /g) x 1000 from the BET specific surface area, of from 186 nm to 217 nm; - an average maximum crystallite number, n, per tungsten carbide grain, calculated according to n = d/c, of from 1.8 to 2.7. - a BET specific surface area as determined according to ASTM D 3663 of from 1.8 to 2.0 m 2 /g; - a crystallite size c in the individual tungsten carbide grains of from 75 to 100 nm, as determined by radiography using XRD/X-ray diffraction, single line, Scherrer method, and Fourier peak transformation evaluation with a NIST-certified crystallite size specimen as a reference; - an average grain size d, calculated by means of the formula d (nm) = 0.38 ((m 2 *nm)/g)/BET (m 2 /g) x 1000 from the BET specific surface area, of from 186 nm to 217 nm; - an average maximum crystallite number, n, per tungsten carbide grain, calculated according to n = d/c, of from 1.8 to 2.7.
A scoliosis monopiece plate, to fit tightly on the back of a user, comprising a lower section and an upper section, wherein the upper section is rounded in the sagittal plane, characterized in that said upper section is bent more than the corresponding upper back of the user without the plate being attached, thereby configuring the plate to force the thoracic spine of the user to bend forward in the sagittal plane.
A method for increasing quality of manufactured optical lenses at a second lens manufacturing side, the method comprising: - a manufacturing data collecting step, during which sets of manufacturing data are collected at a first lens manufacturing side different from the second lens manufacturing side wherein the sets of manufacturing data are indicative of at least a manufacturing process parameter and/or a manufacturing device parameters and/or measuring device parameter and/or an operator parameter and/or an environment parameter at the first lens manufacturing side, - a manufacturing information generating step, step- during which at least one manufacturing information is generated at the second lens manufacturing side based on the collected sets of manufacturing data, characterized in that the manufacturing data further comprise sets of yield data indicative of at least a yield at the first lens manufacturing side and, during the manufacturing information generating step the at least one manufacturing information is generated based on the collected sets of yield data, the method further comprises a target yield providing step, during which at least a target of yield of an optical lens manufacturing process at the second lens manufacturing side is provided and, during the manufacturing information generating step, the at least one manufacturing information is generated based on the target yield, and the at least one manufacturing information is an alert or a suggestion of using a new service or optical function more adapted to the optical lens manufacturing process at the second lens manufacturing side. - a manufacturing data collecting step, during which sets of manufacturing data are collected at a first lens manufacturing side different from the second lens manufacturing side wherein the sets of manufacturing data are indicative of at least a manufacturing process parameter and/or a manufacturing device parameters and/or measuring device parameter and/or an operator parameter and/or an environment parameter at the first lens manufacturing side, - a manufacturing information generating step, step- during which at least one manufacturing information is generated at the second lens manufacturing side based on the collected sets of manufacturing data, characterized in that the manufacturing data further comprise sets of yield data indicative of at least a yield at the first lens manufacturing side and, during the manufacturing information generating step the at least one manufacturing information is generated based on the collected sets of yield data, the method further comprises a target yield providing step, during which at least a target of yield of an optical lens manufacturing process at the second lens manufacturing side is provided and, during the manufacturing information generating step, the at least one manufacturing information is generated based on the target yield, and the at least one manufacturing information is an alert or a suggestion of using a new service or optical function more adapted to the optical lens manufacturing process at the second lens manufacturing side.