mhurhangee/ep-ind-claims huggingface dataset:
A radiation detection device (10, 10a to 10f) for detecting radiation which is irradiated to a test subject from a radiation source and is transmitted through the test subject, the radiation detection device comprising; a filter member (40, 40a to 40i, 41) having a filter (42, 42b to 42f) that attenuates at least a part of the incident radiation; a detector that detects the radiation with at least a part thereof having been attenuated by the filter (42, 42b to 42f), the detector comprising: a first line sensor including pixels having a first pixel width, the pixels being one-dimensionally arranged; and a second line sensor including pixels having a second pixel width, the pixels being one-dimensionally arranged, the second line sensor being disposed in parallel and adjacent to the first line sensor with an interval between said first and second line sensors narrower than the first and second pixel widths; and a housing that places the detector therein, wherein the housing comprises a principal surface including a part through which the radiation passes, and a side surface including an opening extending in a direction intersecting with the principal surface and allowing the filter (42, 42b to 42f) to be inserted therethrough, wherein the filter (42, 42b to 42f) is disposed in the housing so as to cover one of the first and second line sensors (21, 22) of the detector in a state of being apart from the detector. a first line sensor including pixels having a first pixel width, the pixels being one-dimensionally arranged; and a second line sensor including pixels having a second pixel width, the pixels being one-dimensionally arranged, the second line sensor being disposed in parallel and adjacent to the first line sensor with an interval between said first and second line sensors narrower than the first and second pixel widths; and
An earcup for a headphone, comprising: - a front opening adapted to be adjacent to the ear of a user of the headphone, - a baffle disposed within the earcup to define a front cavity and a rear cavity; - an outer cup arranged to accommodate the rear cavity, - a first inner cup arranged within the rear cavity surrounding the front opening, - a transducer; and - an earpad extending around the periphery of the front opening of the earcup arranged to accommodate the front cavity and the ear of the user, and wherein the earcup comprises a second inner cup arranged between the outer cup and the first inner cup for providing an acoustic barrier between outside noise and the ear of the user. - a front opening adapted to be adjacent to the ear of a user of the headphone, - a baffle disposed within the earcup to define a front cavity and a rear cavity; - an outer cup arranged to accommodate the rear cavity, - a first inner cup arranged within the rear cavity surrounding the front opening, - a transducer; and - an earpad extending around the periphery of the front opening of the earcup arranged to accommodate the front cavity and the ear of the user, and
A method for operating a radio communication apparatus communicating with at least one other apparatus, the method comprising: utilizing in communication a frequency block of a set of frequency blocks, each block having a given center frequency, each frequency block comprising a predetermined number of sub bands used in transmission, the center frequencies of at least some adjacent frequency blocks being separated by a given frequency offset, and selecting the offset between 30 to 60 Hz, such that all the sub bands of the adjacent frequency blocks are partly overlapping, and the apparatus, which receives at least one transmission on the adjacent frequency blocks, interprets said at least one transmission as noise. utilizing in communication a frequency block of a set of frequency blocks, each block having a given center frequency, each frequency block comprising a predetermined number of sub bands used in transmission, the center frequencies of at least some adjacent frequency blocks being separated by a given frequency offset, and selecting the offset between 30 to 60 Hz, such that all the sub bands of the adjacent frequency blocks are partly overlapping, and the apparatus, which receives at least one transmission on the adjacent frequency blocks, interprets said at least one transmission as noise.
An angle measuring system comprising: a rotary encoder including a reference support and a rotating body which is axially supported in a rotatable manner with respect to the reference support, wherein the reference support is regulated by a regulation member (8, 17) to be movable within a fixed range in a plane orthogonal to a rotation axis of the rotating body such that the reference support is in a non-restrained state where the reference support is not directly restrained, the rotary encoder being configured to detect a relative rotation angle of the rotating body with respect to the reference support; a laser interferometric angle detecting means which is separated from the rotating body and the reference support and configured to optically detect a rotation angle of the reference support. a rotary encoder including a reference support and a rotating body which is axially supported in a rotatable manner with respect to the reference support, wherein the reference support is regulated by a regulation member (8, 17) to be movable within a fixed range in a plane orthogonal to a rotation axis of the rotating body such that the reference support is in a non-restrained state where the reference support is not directly restrained, the rotary encoder being configured to detect a relative rotation angle of the rotating body with respect to the reference support; a laser interferometric angle detecting means which is separated from the rotating body and the reference support and configured to optically detect a rotation angle of the reference support.
A communication method applied to a mobile communication terminal, comprising: before obtaining remaining minimum system information, RMSI, transmitted by a network device, partitioning precoding resource block groups, PRGs, on an initial bandwidth part, BWP; and communicating with the network device on the initial bandwidth part; wherein the method is characterized in that the partitioning precoding resource block groups, PRGs, on an initial bandwidth part, BWP, comprises: after obtaining a synchronization signal and PBCH block, SSB, partitioning the PRGs on the initial bandwidth part from a third target position of RMSI control resource set, CORESET, signaled by the SSB, wherein the third target position is pre-agreed by the protocol. before obtaining remaining minimum system information, RMSI, transmitted by a network device, partitioning precoding resource block groups, PRGs, on an initial bandwidth part, BWP; and communicating with the network device on the initial bandwidth part; wherein the method is characterized in that the partitioning precoding resource block groups, PRGs, on an initial bandwidth part, BWP, comprises: after obtaining a synchronization signal and PBCH block, SSB, partitioning the PRGs on the initial bandwidth part from a third target position of RMSI control resource set, CORESET, signaled by the SSB, wherein the third target position is pre-agreed by the protocol.
A smoke detector of an aircraft cargo container comprising: a status light emitting diode, LED; at least one accelerometer configured to: sense movement of the aircraft cargo container; and provide a sensor signal representative of the sensed movement; and one or more processors configured to: receive the sensor signal; and adjust a blinking rate of the status LED based upon the sensor signal. a status light emitting diode, LED; at least one accelerometer configured to: sense movement of the aircraft cargo container; and provide a sensor signal representative of the sensed movement; and one or more processors configured to: receive the sensor signal; and adjust a blinking rate of the status LED based upon the sensor signal. sense movement of the aircraft cargo container; and provide a sensor signal representative of the sensed movement; and one or more processors configured to: receive the sensor signal; and adjust a blinking rate of the status LED based upon the sensor signal. receive the sensor signal; and adjust a blinking rate of the status LED based upon the sensor signal.
A system (100, 600) comprising: a Multiply-Accumulate Array (110, 610) comprising multiple processing elements (PE, 122); and a safety processing engine (SPE, 211, 411), wherein the MAC Array is configured to: perform matrix multiplication operations in parallel in multiple PE's to operate a convolution on the MAC Array; perform a subset of the matrix multiplication operations on the SPE; compare the results of the subset of matrix multiplication operations which are performed in parallel in multiple PE's and on the SPE; and determine a failure condition based on a mismatch of the results, wherein the matrix multiplication operations comprise matrix multiplication operations of an input data element with different weights of a filter matrix, and wherein the SPE performs a first operation of calculating a sum of the results of the matrix multiplication operations of an input data element with different weights of a filter matrix, a second operation of a multiplication of the input data element with a value corresponding to the sum of the different weights, and a third operation, following the first operation and the second operation, of a comparison of the result of the first operation with the result of the second operation. wherein the matrix multiplication operations comprise matrix multiplication operations of an input data element with different weights of a filter matrix, and wherein the SPE performs a first operation of calculating a sum of the results of the matrix multiplication operations of an input data element with different weights of a filter matrix, a second operation of a multiplication of the input data element with a value corresponding to the sum of the different weights, and a third operation, following the first operation and the second operation, of a comparison of the result of the first operation with the result of the second operation.
An ozonized olive oil, comprising: a peroxide value of 50-350 mEq O 2 /Kg and at least one liquid vegetable extract selected from among Allium spp., Aloe spp., Calendula officinalis, Cinnamomum spp., Curcuma spp., Lavandula spp., Melaleuca spp., Plantago, Salvia officinalis, Salvia miltiorrhiza, Thymus spp., Zingiber spp. and mixtures thereof.
Method for controlling a cooking appliance comprising at least one heating power transferring element for heating a cookware item placed on a cooking support and a temperature sensor provided below the cooking support, the temperature sensor providing information regarding a temperature correlated with the cookware item, characterized by the steps of: - after a heat-up process, gathering information regarding a power reduction action initiated by a user input; - evaluating temperature information provided by the temperature sensor, said temperature information being correlated with the temperature of the cookware item; - providing temperature lock information to the user if the variation of the temperature of the cookware item is equal or lower than a certain temperature variation value; - after providing temperature lock information, receiving temperature lock confirmation from the user; - after receiving temperature lock confirmation, controlling the provision of heat energy to the cookware item based on temperature information provided by the temperature sensor such that the temperature of the cookware item is maintained within a given temperature range. - after a heat-up process, gathering information regarding a power reduction action initiated by a user input; - evaluating temperature information provided by the temperature sensor, said temperature information being correlated with the temperature of the cookware item; - providing temperature lock information to the user if the variation of the temperature of the cookware item is equal or lower than a certain temperature variation value; - after providing temperature lock information, receiving temperature lock confirmation from the user; - after receiving temperature lock confirmation, controlling the provision of heat energy to the cookware item based on temperature information provided by the temperature sensor such that the temperature of the cookware item is maintained within a given temperature range.
A stationary exercise machine (10; 100)comprising: a stationary frame (12; 112); first and second foot pedals (32; 132) coupled to the frame; a crank shaft rotatably mounted to the stationary frame to rotate about a crank axis, the foot pedals operatively associated with the crank shaft such that motion of the foot pedals causes rotation of the crank shaft around the crank axis; a handle (34; 134) pivotally coupled to the frame to pivot about a first axis and configured to be driven by a user's hand, the first axis being substantially parallel to and spaced apart from the crank axis at a fixed distance; a first link member (38; 138) fixed relative to the handle and pivotable about the first axis and including a radial end that is distal from the first axis; a second link member (40; 140) including a first end pivotally coupled to the radial end of the first link member and a second end comprising an annular collar, and the second link member pivots about a second link member pivot axis that is substantially parallel to the crank axis; a disk (42; 142) that is rotatably mounted within the annular collar of the second link member, and the disk rotates about the crank axis; and the second link member pivot axis rotates around the crank axis. a stationary frame (12; 112); first and second foot pedals (32; 132) coupled to the frame; a crank shaft rotatably mounted to the stationary frame to rotate about a crank axis, the foot pedals operatively associated with the crank shaft such that motion of the foot pedals causes rotation of the crank shaft around the crank axis; a handle (34; 134) pivotally coupled to the frame to pivot about a first axis and configured to be driven by a user's hand, the first axis being substantially parallel to and spaced apart from the crank axis at a fixed distance; a first link member (38; 138) fixed relative to the handle and pivotable about the first axis and including a radial end that is distal from the first axis; a second link member (40; 140) including a first end pivotally coupled to the radial end of the first link member and a second end comprising an annular collar, and the second link member pivots about a second link member pivot axis that is substantially parallel to the crank axis; a disk (42; 142) that is rotatably mounted within the annular collar of the second link member, and the disk rotates about the crank axis; and the second link member pivot axis rotates around the crank axis.
Process for the production of diisobutyl ketone (DIBK), in which at least triacetone dialcohol and a bifunctional catalyst capable of carrying out a dehydration and hydrogenation reaction are brought together.
An inductive device comprising: - a first and second concentric winding (W1, W2U, W2L) wound around a center axis of the inductive device, where the second winding is placed outside of the first winding and provided in two separate parts a first upper part (W2U) and a second lower part (W2L), - wherein there is an opening between the first and second parts (W2U, W2L) of the second winding and the first winding has a first electrical winding connection (W1C) that passes through said opening, - characterised in that the inductive device further comprises a concentric shielding element being concentric with said windings and comprising a shield layer made of a metal with good electrical conduction ability for shielding with respect to an electrical field, the shielding element stretching all the way between the upper and the lower part (W2U, W2L) of the second winding. - a first and second concentric winding (W1, W2U, W2L) wound around a center axis of the inductive device, where the second winding is placed outside of the first winding and provided in two separate parts a first upper part (W2U) and a second lower part (W2L), - wherein there is an opening between the first and second parts (W2U, W2L) of the second winding and the first winding has a first electrical winding connection (W1C) that passes through said opening, - characterised in that the inductive device further comprises a concentric shielding element being concentric with said windings and comprising a shield layer made of a metal with good electrical conduction ability for shielding with respect to an electrical field, the shielding element stretching all the way between the upper and the lower part (W2U, W2L) of the second winding.
An siRNA, consisting of a nucleotide sequence selected from SEQ ID NOs: 2, 3, 4, 5, 6, 8, 9, 10, 11, 12, 13, 14, 15 or 16, for use in the treatment of an eye condition characterised by increased expression and/or activity of TRPV1 wherein said molecule specifically targets SEQ ID NO: 1, and wherein the use of said siRNA reduces the expression and/or activity of TRPV1.
An altimeter comprising: a laser projector for projecting a pattern (120,130,140) onto a surface; a camera for viewing the projected pattern (120,130,140); and an image processor operatively connected to the laser projector and camera for determining distance to the surface based on cross-correlation of the projected and imaged patterns (120,130,140) (122,132,142), wherein the camera and the projector are co-boresighted and are separated by an offset distance ( r), wherein the image processor is configured to: determine a correlation peak between the imaged pattern (122,132,142) and the expected projected pattern indicating when the patterns align; define a peak distance (p) between a center of the projected pattern (120,130,140) and a center of the imaged pattern (122,132,142); and determine height (h) above the surface as a function of the offset distance ( r), and the peak distance (p). a laser projector for projecting a pattern (120,130,140) onto a surface; a camera for viewing the projected pattern (120,130,140); and an image processor operatively connected to the laser projector and camera for determining distance to the surface based on cross-correlation of the projected and imaged patterns (120,130,140) (122,132,142), wherein the camera and the projector are co-boresighted and are separated by an offset distance ( r), wherein the image processor is configured to: determine a correlation peak between the imaged pattern (122,132,142) and the expected projected pattern indicating when the patterns align; define a peak distance (p) between a center of the projected pattern (120,130,140) and a center of the imaged pattern (122,132,142); and determine height (h) above the surface as a function of the offset distance ( r), and the peak distance (p).
A method of measuring temperature using a single-electron device comprising a quantum dot, a charge reservoir coupled to the quantum dot via a tunnel barrier and a gate capacitively coupled to the quantum dot, the single-electron device capable of exhibiting Coloumb blockade, the method comprising: varying a gate voltage applied to the gate around a given gate voltage at which electrochemical level of the quantum dot and electrochemical level of the reservoir are equal and measuring corresponding values of a voltage-dependent term of differential capacitance of the quantum dot and the reservoir as seen from the gate or measuring a phase shift of a reflected signal obtained using reflectometry; measuring a full width half maximum FWHM of the voltage-dependent term of the differential capacitance or the phase shift as a function of gate voltage; and converting the full width half maximum value into a temperature. varying a gate voltage applied to the gate around a given gate voltage at which electrochemical level of the quantum dot and electrochemical level of the reservoir are equal and measuring corresponding values of a voltage-dependent term of differential capacitance of the quantum dot and the reservoir as seen from the gate or measuring a phase shift of a reflected signal obtained using reflectometry; measuring a full width half maximum FWHM of the voltage-dependent term of the differential capacitance or the phase shift as a function of gate voltage; and converting the full width half maximum value into a temperature.
Method for monitoring printed material which is produced by a printing press and comprises one or more images printed on a substrate, in particular a paper web, comprising the steps of: a) determining, in at least one original for printing which is available in the form of a digital data file, reference values for one or more chosen parameters for the printed material, these parameters in any case comprising the colours (C, Y, M, K) of the printed material, b) detecting the values of these parameters in the corresponding printed image, c) digitizing the detection of the printed image, d) comparing the detected values to the reference values, and e) performing a correction when a difference (DE, DS) in one or more values is found during the comparison, wherein the digital data file of the original is derived from a number of separate files for each of the colours (C, Y, M, K) to be printed, wherein the digital data file of the original is formed by converting the colours (C, Y, M, K) to be individually printed to CIELab values or values in a similar three dimensional system, and wherein the digitized inspection of the printed image comprises RGB colour codes which prior to comparison are converted into colour codes for each of the colours (C, Y, M, K) to be printed. a) determining, in at least one original for printing which is available in the form of a digital data file, reference values for one or more chosen parameters for the printed material, these parameters in any case comprising the colours (C, Y, M, K) of the printed material, b) detecting the values of these parameters in the corresponding printed image, c) digitizing the detection of the printed image, d) comparing the detected values to the reference values, and e) performing a correction when a difference (DE, DS) in one or more values is found during the comparison,
A combined power plant for feeding energy into a non-local power network, comprising at least one turbine power plant and at least one energy storage installation with one or more energy storage modules, whereby the turbine power plant is connected to the non-local power network in order to feed in power, and comprising a monitoring unit, and whereby the energy storage installation is connected to the non-local power network separately or via the turbine power plant, in order to feed additional energy into the non-local power network, characterized in that without involving measurements of network parameters in the non-local power network, the monitoring unit monitors the rotational speed of the turbine, at least while energy is being fed into the non-local power network, on the basis of a speed-specific characteristic quantity without the use of a general network frequency of the non-local power network as the control parameter, whereby the monitoring unit is connected to a control unit of the appertaining energy storage installation in order to transmit a characteristic quantity signal based on the speed-specific characteristic quantity to the control unit via a data connection, and the control unit of the energy storage installation is configured in such a way that - in response to the characteristic quantity signal - it causes the energy storage installation to feed the additional energy into the non-local power network in order to improve the safety against a sudden power failure in the non-local network, if the rotational speed of the turbines is falling, without the energy storage installation having to be connected to a global external network control or to a network agency for this purpose.