mhurhangee/ep-ind-claims huggingface dataset:
A method for supporting interworking between heterogeneous systems by a first element of a node, the method comprising: subscribing (611, 701) to a resource of a second element of the node by transmitting a subscription message to the second element of the node to know of an operation request from a first device for a resource of a second device; identifying (615, 705) that the first device requests an operation for the resource of the second device by receiving a notification message from the second element of the node; transmitting (617, 707) a request message to the second device regarding a request for the operation; receiving (619, 709) a response message regarding the operation from the second device in return for transmission of the request message, and transmitting (621, 711) a converted response message to the second element of the node by converting the response message, so that it can be transmitted by the second element of the node to the second device, wherein the operation is updating the resource of the second device or creating the resource of the second device, and wherein the first device is an one machine to machine, oneM2M, device and the second device is an open internet consortium, OIC, device. subscribing (611, 701) to a resource of a second element of the node by transmitting a subscription message to the second element of the node to know of an operation request from a first device for a resource of a second device; identifying (615, 705) that the first device requests an operation for the resource of the second device by receiving a notification message from the second element of the node; transmitting (617, 707) a request message to the second device regarding a request for the operation; receiving (619, 709) a response message regarding the operation from the second device in return for transmission of the request message, and transmitting (621, 711) a converted response message to the second element of the node by converting the response message, so that it can be transmitted by the second element of the node to the second device, wherein the operation is updating the resource of the second device or creating the resource of the second device, and wherein the first device is an one machine to machine, oneM2M, device and the second device is an open internet consortium, OIC, device.
A toilet seat apparatus, comprising: a main part mounted at a rear upper part of a toilet and including an upper casing; a toilet seat provided rotatably with respect to the main part, the toilet seat having an opening at the front and extending from the opening rearward to cover an upper casing and a radio wave sensor and having a rear end part that is bent, wherein the radio wave sensor is provided in an interior of the main part and uses a radio wave to sense a human body, characterized in that, the rear end part of the toilet seat is positioned rearward of the radio wave sensor and, in a state in which the toilet seat is lowered, the toilet seat is configured to cover the radio wave sensor that causes the radio wave to pass through the toilet seat and to be radiated frontward of the radio wave sensor. a main part mounted at a rear upper part of a toilet and including an upper casing; a toilet seat provided rotatably with respect to the main part, the toilet seat having an opening at the front and extending from the opening rearward to cover an upper casing and a radio wave sensor and having a rear end part that is bent, wherein the radio wave sensor is provided in an interior of the main part and uses a radio wave to sense a human body, characterized in that, the rear end part of the toilet seat is positioned rearward of the radio wave sensor and, in a state in which the toilet seat is lowered, the toilet seat is configured to cover the radio wave sensor that causes the radio wave to pass through the toilet seat and to be radiated frontward of the radio wave sensor.
Method for determining a measuring offset of a rotor position sensor assigned to a rotor of an electric machine, characterized by comprising steps of - determining a candidate value for the d-axis of the electric machine depending on voltages acquired over stator windings of the electric machine; - applying a short circuit to the stator windings of the electric machine; - acquiring currents flowing into the stator windings in the short-circuited state; - evaluating the plausibility of the candidate value depending on a q-current determined from the acquired currents; and - determining the measuring offset depending on the q-current; wherein the voltages for determining the candidate value are acquired with a lower integrity level than the currents acquired for determining the q-current. - determining a candidate value for the d-axis of the electric machine depending on voltages acquired over stator windings of the electric machine; - applying a short circuit to the stator windings of the electric machine; - acquiring currents flowing into the stator windings in the short-circuited state; - evaluating the plausibility of the candidate value depending on a q-current determined from the acquired currents; and - determining the measuring offset depending on the q-current;
A compound of formula: wherein: L1 is a direct bond; R 1 and R 2 are each independently selected from H and optionally substituted C 1-6 alkyl, aryl, heteroaryl, carbocyclyl and heterocyclyl, the optional substitution being with one or more substituents selected from halo, CN, NO 2, R 6, OR 6, N(R 6) 2, COR 6, CO 2 R 6, SO 2 R 6, NR 7 COR 6, NR 7 CO 2 R 6, NR 7 SO 2 R 6, NR 7 CONR 6 R 7, CONR 6 R 7 and SO 2 NR 6 R 7, provided that at least one of R 1 and R 2 is cyclic; Each R 5 is independently selected from H, halo, C 1-6 alkyl, OR 7, N(R 7) 2, CN and NO 2; X 1 and X 2 are each independently selected from N and CR 3; X 3 is selected from NR 4, O and S; X 4 is NH; and R 3 is selected from H, halo and C 1-6 alkyl; R 4 is selected from H and C 1-6 alkyl; R 6 is selected from H, C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 2 -C 6 alkynyl, C 4 -C 7 carbocyclyl, C 4 -C 7 heterocyclyl and 5- or 6- membered aryl or heteroaryl, any of which may be optionally substituted with one or more halo atoms; and R 7 is selected from hydrogen and C 1 -C 4 alkyl, either of which is optionally substituted with one or more halo atoms; or a pharmaceutically acceptable N-oxide, salt, hydrate or solvate thereof for use in a method of treating: infection with Clostridium difficile or Clostridium difficile- associated disease (CDAD) selected from: (a) colitis; (b) pseudomembranous colitis; and (c) diarrhoea caused by Clostridium difficile. L1 is a direct bond; R 1 and R 2 are each independently selected from H and optionally substituted C 1-6 alkyl, aryl, heteroaryl, carbocyclyl and heterocyclyl, the optional substitution being with one or more substituents selected from halo, CN, NO 2, R 6, OR 6, N(R 6) 2, COR 6, CO 2 R 6, SO 2 R 6, NR 7 COR 6, NR 7 CO 2 R 6, NR 7 SO 2 R 6, NR 7 CONR 6 R 7, CONR 6 R 7 and SO 2 NR 6 R 7, provided that at least one of R 1 and R 2 is cyclic; Each R 5 is independently selected from H, halo, C 1-6 alkyl, OR 7, N(R 7) 2, CN and NO 2; X 1 and X 2 are each independently selected from N and CR 3; X 3 is selected from NR 4, O and S; X 4 is NH; and R 3 is selected from H, halo and C 1-6 alkyl; R 4 is selected from H and C 1-6 alkyl; R 6 is selected from H, C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 2 -C 6 alkynyl, C 4 -C 7 carbocyclyl, C 4 -C 7 heterocyclyl and 5- or 6- membered aryl or heteroaryl, any of which may be optionally substituted with one or more halo atoms; and R 7 is selected from hydrogen and C 1 -C 4 alkyl, either of which is optionally substituted with one or more halo atoms;
An application process (Avatar j) provided as a service to a user (M j) of a communication network (MN k) by the operators of the network, the application process (Avatar j) is associated with a specific user (M j) and performs for the user's device the computationally and storage expensive services of monitoring, processing, backup, and data transmission; wherein these services are performed using processor and memory resources located at a base station (BS k) in the network (MN k) closest to the current location of the user (M j); characterized in that the application process (Avatar j) is configured to continue to provide these services at a base station (BS 1) in a different mobile network (MN l) when the user (M j) passes to a region of the different network (MN l) by taking the location closest to the current position of the user (M j) in the different mobile network (MN l) and continues to represent the user (M j) in his/her home network (MN k) by opening a connection to the user's (M j) home network (MN k) to receive messages and perform operations on behalf of the user (M j), or re-route messages sent to a second user (M i) when the user (M j) moves out of his/her home network (MN k).
A security device for use in association with a security pin and a detacher having at least two different releasing means, the device comprising: a tag body having a body aperture formed therein adapted to receive the security pin; a spring lock within the tag body configured for release by a first releasing means having a pusher, the spring lock having a spring lock aperture formed therein in registration with the body aperture and the spring lock being adapted to engage the security pin when in an engaged position and release the security pin when in a released position by the pusher of the first releasing means; and a magnetic lock within the tag body configured for release by a second releasing means having a magnet, the magnetic lock having a magnetic lock aperture and the magnetic lock being adapted to engage the security pin when in an engaged position and to release the security pin when in a release position by the magnet of the second releasing means, and the spring lock and the magnetic lock need to both be in the released position to successfully remove the security pin from the security device. a tag body having a body aperture formed therein adapted to receive the security pin; a spring lock within the tag body configured for release by a first releasing means having a pusher, the spring lock having a spring lock aperture formed therein in registration with the body aperture and the spring lock being adapted to engage the security pin when in an engaged position and release the security pin when in a released position by the pusher of the first releasing means; and a magnetic lock within the tag body configured for release by a second releasing means having a magnet, the magnetic lock having a magnetic lock aperture and the magnetic lock being adapted to engage the security pin when in an engaged position and to release the security pin when in a release position by the magnet of the second releasing means, and the spring lock and the magnetic lock need to both be in the released position to successfully remove the security pin from the security device.
A process for pressurizing bulk material in a hopper; wherein the hopper is configured as a lock hopper containing a bulk material, a source of pressurized gas, lines (22, 26, 28) to convey the pressurized gas from the source to one or more inlets of the lock hopper, a valve arranged in the lines, wherein the process is characterized in that the opening position of said valve (34, 35) is controlled to provide pressurizing gas to the lock hopper at a preset constant gas volume flow rate.
A control system for a wind power plant, characterized by means for sensing measurement values, which allow a direct or indirect quantification of the current loading and/or stress on the turbine occurring depending on the local and meteorological conditions, a suitable signal processing system for processing the measurement values into actual spectra or actual distribution functions, and an electronic signal processing system downstream of the suitable signal processing system, which allows to compare the actual spectra or actual distribution functions with target spectra or target distribution functions that are determined from externally supplied data regarding the economic efficiency of the wind power plant, and to restrict a required power reduction in consideration of the technical design of the WPP in cases of nominal wind velocity and in cases of wind velocities above the nominal wind velocity in order to improve the economic efficiency given at the current operating conditions.
A coffee machine for domestic use comprising a machine body, at least one boiler, at least one water tank, at least one machine operating selection system, at least one steam distribution system comprising at least two steam dispensers (4, 5), wherein at least a first steam dispenser extends horizontally from the machine body and is connected to a removable metal jug through a lid comprising a Venturi effect milk frother, said metal jug having a truncated-cone geometry and comprising an upper perimeter along an opening thereof, an inner surface, an outer surface, a handle, and a spout, said lid being shaped so as to adapt to said upper perimeter of said metal jug, and at least a second steam dispenser extends vertically from the machine body and is connected to a steam lance.
A method for purifying RNA from an in vitro transcription reaction sample, comprising a first step of core bead flow-through chromatography in the presence of a buffer containing a potassium salt, wherein the method further comprises one or more steps of buffer exchange comprising tangential flow filtration.
An endodontic condenser tip comprising: a heater including: an electrically resistive heating element operable to generate heat from electrical current flowing through the heating element; and a control circuit operable to sense either the electrical current through or the voltage across the heating element as the heating element receives the electrical current, and operable to determine a temperature of the heating element from the electrical current or voltage sensed, while the heating element generates heat; and a body for radiating the heat generated by the heating element. a heater including: an electrically resistive heating element operable to generate heat from electrical current flowing through the heating element; and a control circuit operable to sense either the electrical current through or the voltage across the heating element as the heating element receives the electrical current, and operable to determine a temperature of the heating element from the electrical current or voltage sensed, while the heating element generates heat; and a body for radiating the heat generated by the heating element. an electrically resistive heating element operable to generate heat from electrical current flowing through the heating element; and a control circuit operable to sense either the electrical current through or the voltage across the heating element as the heating element receives the electrical current, and operable to determine a temperature of the heating element from the electrical current or voltage sensed, while the heating element generates heat; and a body for radiating the heat generated by the heating element.
Protective tube produced using a heat-shrinkable yarn, which tube is produced using a circular knitting method, characterised in that, in the non-shrunk state of the knitted fabric, the ratio (P / M - Ø eff) of the length of the stitch period in the circumferential direction of the knitted fabric to the difference (M - Ø eff) of the outer width of the narrower stitches, measured in the circumferential direction, minus the effective thread diameter (Ø eff), is between 1.49 and 1.78, preferably between 1.54 and 1, 70, and/or in that, in the non-shrunk state of the knitted fabric, the ratio (p / M - Ø eff) of the length of the stitch period (p) in the longitudinal direction of the knitted fabric to the difference (M-Ø eff) of the outer width of the narrower stitches, measured in the circumferential direction, minus the effective thread diameter (Ø eff), is between 0.65 and 0.76.
A radar level measuring device for detecting a filling level in a container, with - a filling level sensor with an antenna for emitting and receiving electromagnetic waves, - a position recognition for detecting a position of the radar level measuring device, wherein the antenna is configured as an antenna with an adjustable main emission direction, characterized in that a position recognition takes place by changing the main emission direction of the antenna until a received signal reaches maximum when a perpendicular to the filling material surface is reached, and a 3-dimensional model of the container is stored in the radar level measuring device, and a remaining volume of the filling material in the container is calculated and outputted for different deviations of the 0° direction from the perpendicular to the filling material surface, wherein the 0° direction refers to the direction without a change. - a filling level sensor with an antenna for emitting and receiving electromagnetic waves, - a position recognition for detecting a position of the radar level measuring device, wherein the antenna is configured as an antenna with an adjustable main emission direction,
A device for lifting frames of a magazine hive for beekeeping, which frames each have an approximately horizontal, projecting strip on two opposite sides (7, 8) of the magazine hive, characterised by two pairs of support elements (11, 12) each with an upper and a lower support element, wherein each pair can be arranged on one side (7, 8) of the magazine hive and the support elements (11, 12) of one pair can be inserted between the strips of two frames, wherein, in each pair, the support elements (11, 12) are connected via a scissor mechanism which can be spread apart by means of a toggle lever consisting of two lever elements (28, 29) articulated to one another, characterised in that the upper support element of each pair is formed by a rail which is divided into at least two parts (37 - 39) which are displaceable relative to one another in longitudinal direction of the rail, of which the one part can be abutted from below against one of the strips and the other part is connected to the scissor mechanism. two pairs of support elements (11, 12) each with an upper and a lower support element, wherein each pair can be arranged on one side (7, 8) of the magazine hive and the support elements (11, 12) of one pair can be inserted between the strips of two frames, wherein, in each pair, the support elements (11, 12) are connected via a scissor mechanism which can be spread apart by means of a toggle lever consisting of two lever elements (28, 29) articulated to one another, characterised in that the upper support element of each pair is formed by a rail which is divided into at least two parts (37 - 39) which are displaceable relative to one another in longitudinal direction of the rail, of which the one part can be abutted from below against one of the strips and the other part is connected to the scissor mechanism.
A therapeutic preparation comprising C-type natriuretic peptide or B-type natriuretic peptide as the active ingredient for use in the treatment of rhinitis.
An apparatus for in-phase/quadrature, I/Q, imbalance correction in a transceiver, comprising: an I/Q imbalance correction circuit configured to modify I/Q data for transmission using correction coefficients to generate corrected I/Q data, wherein the I/Q imbalance correction circuit is configured to generate the corrected I/Q data based on the I/Q data and a complex conjugate of the I/Q data at a mirror image frequency; a correction coefficient generation circuit configured to generate the correction coefficients for the I/Q imbalance correction circuit based on the I/Q data and reference data using an adaptation algorithm; a digital-to-analog converter, DAC, (712a, 712b) configured to convert the corrected I/Q data to an analog transmit signal; a first mixer circuit (740a, 740b) for up-converting the analog transmit signal using a first local oscillator signal; and an observation receiver configured to receive the up-converted analog transmit signal as a feedback signal and generate the reference data based on the feedback signal, wherein the observation receiver includes a second mixer circuit (738a, 738b) configured to down-convert the feedback signal using a second local oscillator signal to a zero intermediate frequency, wherein the observation receiver is configured to generate the reference data by down-converting the feedback signal using the second local oscillator signal with different phase shifts at different time instants. an I/Q imbalance correction circuit configured to modify I/Q data for transmission using correction coefficients to generate corrected I/Q data, wherein the I/Q imbalance correction circuit is configured to generate the corrected I/Q data based on the I/Q data and a complex conjugate of the I/Q data at a mirror image frequency; a correction coefficient generation circuit configured to generate the correction coefficients for the I/Q imbalance correction circuit based on the I/Q data and reference data using an adaptation algorithm; a digital-to-analog converter, DAC, (712a, 712b) configured to convert the corrected I/Q data to an analog transmit signal; a first mixer circuit (740a, 740b) for up-converting the analog transmit signal using a first local oscillator signal; and an observation receiver configured to receive the up-converted analog transmit signal as a feedback signal and generate the reference data based on the feedback signal, wherein the observation receiver includes a second mixer circuit (738a, 738b) configured to down-convert the feedback signal using a second local oscillator signal to a zero intermediate frequency, wherein the observation receiver is configured to generate the reference data by down-converting the feedback signal using the second local oscillator signal with different phase shifts at different time instants.
A method for controlling a hardware accelerator (208, 210, 212, 416, 516) that is configured to receive input data to be processed and return processed input data, the method comprising: receiving from a host (202, 302, 402, 502), at a non-volatile memory express, NVMe interface (206, 414, 514) in communication with the hardware accelerator (208, 210, 212, 416, 516), a first NVMe command, the first NVMe command having a format of a disk read or write command but being associated with an acceleration function that is not a disk read or write function, and the first NVMe command including a first namespace of a plurality of namespaces, each of the namespaces having a format of a namespace associated with a solid state drive but being associated with a respective one of a plurality of acceleration functions and is not associated with an SSD; determining, by the NVMe interface (206, 414, 514), the acceleration function associated with the received first NVMe command based on the first namespace, the acceleration function being a function other than a disk read or write function; performing the acceleration function at the hardware accelerator (208, 210, 212, 416, 516) to generate result data. receiving from a host (202, 302, 402, 502), at a non-volatile memory express, NVMe interface (206, 414, 514) in communication with the hardware accelerator (208, 210, 212, 416, 516), a first NVMe command, the first NVMe command having a format of a disk read or write command but being associated with an acceleration function that is not a disk read or write function, and the first NVMe command including a first namespace of a plurality of namespaces, each of the namespaces having a format of a namespace associated with a solid state drive but being associated with a respective one of a plurality of acceleration functions and is not associated with an SSD; determining, by the NVMe interface (206, 414, 514), the acceleration function associated with the received first NVMe command based on the first namespace, the acceleration function being a function other than a disk read or write function; performing the acceleration function at the hardware accelerator (208, 210, 212, 416, 516) to generate result data.