mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by one or more computers for outputting a measurement of a dimension of a body part in an input image , the method comprising: receiving the input image captured using an image capturing unit , the input image comprising the body part and a reference object of a predefined dimension; predicting by a segmentation deep neural network, S-DNN , a segmentation mask of the input image, the segmentation mask differentiating image pixels of the body part from image pixels of a background region in the input image; detecting the reference object in the input image and processing the detected reference object to predict a pixel dimension of the reference object by an object detection deep neural network, OD-DNN ; obtaining pixel coordinates of a plurality of key points (A, H, J, K, Q, T) of the body part using the segmentation mask; modifying the obtained pixel coordinates based on the predicted pixel dimension of the reference object; and measuring the dimension of the body part based on the modified pixel coordinates and outputting the measured dimension of the body part. receiving the input image captured using an image capturing unit , the input image comprising the body part and a reference object of a predefined dimension; predicting by a segmentation deep neural network, S-DNN , a segmentation mask of the input image, the segmentation mask differentiating image pixels of the body part from image pixels of a background region in the input image; detecting the reference object in the input image and processing the detected reference object to predict a pixel dimension of the reference object by an object detection deep neural network, OD-DNN ; obtaining pixel coordinates of a plurality of key points (A, H, J, K, Q, T) of the body part using the segmentation mask; modifying the obtained pixel coordinates based on the predicted pixel dimension of the reference object; and measuring the dimension of the body part based on the modified pixel coordinates and outputting the measured dimension of the body part.
A resin composition for electromagnetic interference (EMI) shielding, the resin composition comprising: (a) 100 parts by weight of a resin; based on 100 parts by weight of the resin, (b) 0.1 to 15 parts by weight of a carbon nanotube; and (c) 1 to 40 parts by weight of a carbon compound, metal, metal compound, or mixture thereof, characterized in that the carbon nanotube is surface-modified in a condition of the absence of oxidant. (a) 100 parts by weight of a resin; based on 100 parts by weight of the resin, (b) 0.1 to 15 parts by weight of a carbon nanotube; and (c) 1 to 40 parts by weight of a carbon compound, metal, metal compound, or mixture thereof, characterized in that the carbon nanotube is surface-modified in a condition of the absence of oxidant.
A fluid delivery system for delivery of aerosolized liquid to a ventilated patient comprising: an endotracheal tube configured to deliver breathing gases to a patient ; a multi-port connector coupled to the endotracheal tube , the multi-port connector including: a primary channel directing a flow of the breathing gases into the endotracheal tube ; and a secondary channel having a first end and a second end , wherein the secondary channel is fluidly coupled to the primary channel at the second end at an angle that is 90 degrees or less from the flow of the breathing gases; a pressure applicator ; and characterised by : an injection tip configured to engage with the first end of the secondary channel and the pressure applicator , wherein the injection tip includes a set of orifices configured to aerosolize a liquid when the liquid is applied at a pressure by the pressure applicator . an endotracheal tube configured to deliver breathing gases to a patient ; a multi-port connector coupled to the endotracheal tube , the multi-port connector including: a primary channel directing a flow of the breathing gases into the endotracheal tube ; and a secondary channel having a first end and a second end , a primary channel directing a flow of the breathing gases into the endotracheal tube ; and a secondary channel having a first end and a second end , wherein the secondary channel is fluidly coupled to the primary channel at the second end at an angle that is 90 degrees or less from the flow of the breathing gases; a pressure applicator ; and characterised by : an injection tip configured to engage with the first end of the secondary channel and the pressure applicator , wherein the injection tip includes a set of orifices configured to aerosolize a liquid when the liquid is applied at a pressure by the pressure applicator .
A sidelink information transmission method, applied to a terminal and comprising: mapping sidelink information to target notification information, wherein the sidelink information comprises at least one of sidelink hybrid automatic repeat request acknowledgement, sidelink HARQ-ACK, information corresponding to one or more sidelink transmissions, a sidelink scheduling request, and channel state information; and transmitting the target notification information on a target resource; characterized in that a mode of mapping the sidelink information to the target notification information comprises: mapping N3 bits to W second bits according to a preset mode, W is a positive integer, N3 is an integer greater than 1, and N3 is greater than W. mapping sidelink information to target notification information, wherein the sidelink information comprises at least one of sidelink hybrid automatic repeat request acknowledgement, sidelink HARQ-ACK, information corresponding to one or more sidelink transmissions, a sidelink scheduling request, and channel state information; and transmitting the target notification information on a target resource; characterized in that a mode of mapping the sidelink information to the target notification information comprises: mapping N3 bits to W second bits according to a preset mode, W is a positive integer, N3 is an integer greater than 1, and N3 is greater than W.
A fire protection cabinet, in particular safety cabinet, preferably hazardous material cabinet, with a body and with at least one door connected to the body , wherein for the most part, the body has a sandwich structure with at least one inwardly facing wooden composite layer and one outwardly facing fire protection layer , and wherein the fire protection layer is designed as one or more mineral-based thermal insulation boards , characterized in that the body is lined on the outside with a sheet steel shell and is constructed completely and finally from the sandwich structure and the sheet steel shell without further layers and without any spacing, that is, implemented, as viewed from the inside to the outside, are the wooden composite layer , the thermal insulation board(s) and finally the sheet steel shell .
Method for providing and manipulating anyons that are usable for topological quantum computation, comprising the steps of: - providing a magnetic material containing at least two magnetic textures ; - providing a superconductor containing at least two vortices ; and - creating at least two magnetic texture-vortex pairs by coupling the magnetic material to the superconductor , wherein each magnetic texture-vortex pair binds an anyon being localized at the vortex of the respective magnetic texture-vortex pair in the superconductor ; - structuring the magnetic material to form a grid of magnetic material, and wherein the grid of magnetic material forms a plurality of paths in which the magnetic textures are movable. - providing a magnetic material containing at least two magnetic textures ; - providing a superconductor containing at least two vortices ; and - creating at least two magnetic texture-vortex pairs by coupling the magnetic material to the superconductor , wherein each magnetic texture-vortex pair binds an anyon being localized at the vortex of the respective magnetic texture-vortex pair in the superconductor ; - structuring the magnetic material to form a grid of magnetic material, and wherein the grid of magnetic material forms a plurality of paths in which the magnetic textures are movable.
An electro acoustic apparatus adapted to operate in a gas filled space and from a first side of an object to be measured for making a non-contact ultrasound thickness measurement of the object to be measured or for making a non-contact ultrasound characterisation of a medium located on a second side of the object to be measured, the apparatus comprising an electro acoustic transducer means (307; 500; 600; 702; 801, 802, 804, 805; 904), a transceiver means coupled with the electro acoustic transducer means and adapted to excite the electro acoustic transducer means to output an acoustic signal towards the object to be measured and receive an acoustic response signal there from, and a signal processor adapted to process the response signal and to determine on basis of the acoustic response signal a thickness characteristic of the object to be measured, the electro acoustic transducer means has a transducer-to-gas acoustic interface, the transceiver is adapted to operate the electro acoustic transducer means so as to emit into a gas filled gap between the electro acoustic transducer means and the object to be measured an acoustic broad band pulse towards the object and to receive the an acoustic resonance response signal in the acoustic response signal at a level that allows an acquisition of the resonance response signal above a predetermined signal to noise level, and the signal processor is adapted to determine the thickness characteristic of the object to be measured or to make a characterisation of a medium located on a second side of the object to be measured using a fast Fourier transformation of the acquired resonance response signal above the predetermined signal to noise level, wherein the apparatus includes a transducer carrier means adapted to maintain the gas filled gap at a predetermined distance from a surface of the object facing the gas filled gap, wherein the apparatus is adapted to automatically establish the predetermined distance, so as to optimise a quality of the non-contact thickness measurement, characterised in that the distance between the transducers is changed according to the formula d1 =(2*d2*v)/c, where d1 is the distance between the transducers, d2 is the distance from the transducers to the object to be measured, v is the velocity in the gas and c is the speed of sound in the gas.
An aluminum alloy comprising, in weight percent: between 6 and 8 of Si; between 0.45 and 0.6 of Mg; between higher than 0.15 and equal to and lower than 0.30 of Mn; lower than 0.12 of Fe; up to 0.15 of Ti; between 0.005 to 0.03 of Sr; optionally equal to or lower than 0.2 La; optionally up to 0.25 of Cr; and the balance being aluminum and unavoidable impurities, wherein the unavoidable impurities may be present in an amount of up to 0.05 each and up to 0.15 total. between 6 and 8 of Si; between 0.45 and 0.6 of Mg; between higher than 0.15 and equal to and lower than 0.30 of Mn; lower than 0.12 of Fe; up to 0.15 of Ti; between 0.005 to 0.03 of Sr; optionally equal to or lower than 0.2 La; optionally up to 0.25 of Cr; and the balance being aluminum and unavoidable impurities, wherein the unavoidable impurities may be present in an amount of up to 0.05 each and up to 0.15 total.
A method for making a first draping ply of a fibrous preform on a tooling which comprises the steps consisting in: a. making an area called, catch area, on the draping surface of the tooling, said area being secured to said draping surface of the tooling; b. depositing a polymer by additive manufacturing over the surface of the tooling, said deposition being carried out over the catch area; c. draping the first ply while activating the tackiness of the polymer deposited by additive manufacturing so as to make the deposited fibres adhere on the polymer deposited by additive manufacturing. a. making an area called, catch area, on the draping surface of the tooling, said area being secured to said draping surface of the tooling; b. depositing a polymer by additive manufacturing over the surface of the tooling, said deposition being carried out over the catch area; c. draping the first ply while activating the tackiness of the polymer deposited by additive manufacturing so as to make the deposited fibres adhere on the polymer deposited by additive manufacturing.
A level measurement system for conductive liquids including a liquid container , at least three electrodes arranged inside the liquid container at different levels and a network, wherein - the electrodes are connected to the network consisting of a plurality of resistor elements (R, R1, R2, R3, RP1, RP2, RR1, RR2) arranged out of the liquid container , - the network comprises two input terminals (V+, GND), namely a voltage terminal (V+) and a ground terminal (GND), for applying an external voltage, - a lower electrode of the at least three electrodes is connected to the ground terminal (GND), and - the network comprises two output terminals providing a voltage depending on the level of the conductive liquid in the liquid container , - so that the level measurement system is provided for detecting at least three different levels of conductive liquids in the liquid container and indicating said levels by one voltage value at the output terminals, characterised in that the network comprises two resistor elements (R, R3) connected in series between the input terminals (V+, GND), wherein at least two electrodes of the at least three electrodes arranged above the lower electrode are connected to the junction of the resistor elements (R, R3) of said series via a further resistor element (RR1, RR2) in each case, and wherein the output terminals are formed by the ground terminal (GND) and the junction of the resistor elements (R, R3) of said series. - the electrodes are connected to the network consisting of a plurality of resistor elements (R, R1, R2, R3, RP1, RP2, RR1, RR2) arranged out of the liquid container , - the network comprises two input terminals (V+, GND), namely a voltage terminal (V+) and a ground terminal (GND), for applying an external voltage, - a lower electrode of the at least three electrodes is connected to the ground terminal (GND), and - the network comprises two output terminals providing a voltage depending on the level of the conductive liquid in the liquid container , - so that the level measurement system is provided for detecting at least three different levels of conductive liquids in the liquid container and indicating said levels by one voltage value at the output terminals,
Hydraulic machine comprising a shaft rotating about a rotational axis (A1) and a fluid circuit for circulation of a fluid (F) around said shaft , the fluid being, in use when the shaft is rotating, radially outwardly centrifuged, characterized in that the hydraulic machine is further provided with a particle trap fixed to the shaft , said particle trap being arranged in the fluid circuit and being adapted to capture and retain particles (P) flowing in the fluid (F) and wherein, the particle trap comprises a trap housing fixed to the shaft , said trap housing defining a blind hole open in the fluid circuit and outwardly extending from the opening in the fluid circuit toward a blind end, the particle trap further comprising a retaining member arranged inside the blind hole and defining a lower chamber (LC), between the through opening in the fluid circuit and the retaining member and, an upper chamber (UC) between the retaining member and the blind end, the retaining member being provided with an orifice so that, in use particles (P) flowing in the fluid (F) are outwardly centrifuged and enter the lower chamber (LC) then pass through the orifice enter the upper chamber (UC) where they are trapped and retained and wherein, the retaining member is shaped having a concave side arranged toward the lower chamber (LC) and, wherein said concave shape has a pointy tip, the through opening being arranged at said tip.
A sensor element for determining the concentration of at least one analyte in a body fluid , wherein the sensor element is at least partially implantable into a body tissue, the sensor element having a substrate and at least two electrodes , the electrodes comprising at least one working electrode and at least one counter electrode , wherein the working electrode comprises at least one conductive pad applied to the substrate , wherein at least one electrically conductive sensor material is applied to the conductive pad , the electrically conductive sensor material comprising at least one detector substance adapted to perform an electrically detectable electrochemical detection reaction with the analyte, wherein the counter electrode comprises at least one counter electrode conductive pad applied to the substrate , wherein the sensor element further comprises at least one electrically insulating material , wherein the electrically insulating material surrounds the counter electrode on all sides, wherein a height of the electrically insulating material at least equals the height of the counter electrode conductive pad , wherein projections of the working electrode and the counter electrode into a common plane are arranged symmetrically with respect to an axis of symmetry, wherein the axis of symmetry is parallel to an axis of longitudinal extension of the sensor element , wherein the working electrode and the counter electrode are applied to opposing surfaces of the substrate , characterized in that a projection of the working electrode into a plane of the counter electrode is overlapped by the counter electrode , wherein the sensor element comprises at least two working electrodes , wherein in a direction of the longitudinal extension of the sensor element , one of the working electrodes is located on each side of the counter electrode , wherein the working electrodes are equally spaced apart from the counter electrode .
A method for organizing devices in a policy hierarchy, executed by a processor, the method comprising: creating a first node ; assigning a first policy to the first node ; creating a second node , the second node referencing the first node as a parent node such that the second node inherits the first policy of the first node ; assigning a second policy to the second node such that the second node is assigned the first policy and the second policy; registering a first device to the first node such that the first device is bound by the first policy of the first node ; registering a second device to the second node such that the second device is bound by the first and second policies of the second node ; and receiving an encryption key having a key attribute ; wherein the first policy and the second policy dictate acceptability of an encryption key based on security and cryptographic considerations of the encryption key. creating a first node ; assigning a first policy to the first node ; creating a second node , the second node referencing the first node as a parent node such that the second node inherits the first policy of the first node ; assigning a second policy to the second node such that the second node is assigned the first policy and the second policy; registering a first device to the first node such that the first device is bound by the first policy of the first node ; registering a second device to the second node such that the second device is bound by the first and second policies of the second node ; and receiving an encryption key having a key attribute ; wherein the first policy and the second policy dictate acceptability of an encryption key based on security and cryptographic considerations of the encryption key.
A computer-implemented method, comprising: receiving first dynamic contrast enhanced imaging data representing vascular tissue of interest and a first contrast material with weakly permeating particles and generating a first time enhancement curve based thereon; receiving second dynamic contrast enhanced imaging data representing the vascular tissue of interest and a second contrast material with strongly permeating particles and generating a second time enhancement curve based thereon; determining a permeability metric of vascular tissue of interest by determining an effective difference between the first time enhancement curve and the second time enhancement curve corresponding respectively to the first contrast material and the second contrast material flowing through the vascular tissue of interest; and generating a signal indicative thereof. receiving first dynamic contrast enhanced imaging data representing vascular tissue of interest and a first contrast material with weakly permeating particles and generating a first time enhancement curve based thereon; receiving second dynamic contrast enhanced imaging data representing the vascular tissue of interest and a second contrast material with strongly permeating particles and generating a second time enhancement curve based thereon; determining a permeability metric of vascular tissue of interest by determining an effective difference between the first time enhancement curve and the second time enhancement curve corresponding respectively to the first contrast material and the second contrast material flowing through the vascular tissue of interest; and generating a signal indicative thereof.
A method for determining a liquid level of a sample in a container, comprising: a) capturing an image of a sample housed in the container, wherein the image is represented as a two dimensional array of intensities of light; b) extracting an area of interest from the image to obtain a two dimensional array of interest; c) processing the two dimensional array of interest with a differential filter in the vertical dimension to obtain a differentially filtered two dimensional array; d) splitting the differentially filtered two dimensional array into "n" narrower vertical arrays; e) collapsing the "n" two dimensional vertical arrays horizontally to form "n" one dimensional differential arrays; f) applying a mask to the "n" one dimensional differential arrays to account for noise; g) analyzing each of the resulting "n" masked vertical one dimensional differential arrays to determine the presence of peaks; h) combining and counting, per vertical unit, the peaks resulting from the analysis; i) forming a histogram from the combined and counted peaks to obtain a frequency of peak appearance per vertical unit; and j) further processing the resulting histogram to determine the bottom of the container and interface/level of the liquid and ambient air, the presence of foam and/or other objects. a) capturing an image of a sample housed in the container, wherein the image is represented as a two dimensional array of intensities of light; b) extracting an area of interest from the image to obtain a two dimensional array of interest; c) processing the two dimensional array of interest with a differential filter in the vertical dimension to obtain a differentially filtered two dimensional array; d) splitting the differentially filtered two dimensional array into "n" narrower vertical arrays; e) collapsing the "n" two dimensional vertical arrays horizontally to form "n" one dimensional differential arrays; f) applying a mask to the "n" one dimensional differential arrays to account for noise; g) analyzing each of the resulting "n" masked vertical one dimensional differential arrays to determine the presence of peaks; h) combining and counting, per vertical unit, the peaks resulting from the analysis; i) forming a histogram from the combined and counted peaks to obtain a frequency of peak appearance per vertical unit; and j) further processing the resulting histogram to determine the bottom of the container and interface/level of the liquid and ambient air, the presence of foam and/or other objects.