mhurhangee/ep-ind-claims huggingface dataset:
Swing door system for use with a freezer device, comprising two adjacent swing doors (1a, 1b) and at least one mullion being in contact with said swing doors (1a, 1b), wherein each swing door (1a, 1b) comprises a transparent pane (3a, 3b) and a non-transparent area, wherein each non-transparent area is proximal to the mullion when the swing doors (1a, 1b) are in a closed position, wherein the non-transparent areas and the mullion define a non-transparent region, and wherein under an horizontal viewing angle between 0° and 180° with respect to the plane in which the swing doors (1a, 1b) are arranged when the swing doors (1a, 1b) are in the closed position all of the horizontal diameters (10, 10') of the non-transparent region are less than 100 mm, preferably less than 90 mm, more preferably less than 80 mm, most preferably less than 70 mm, and wherein said horizontal viewing angle is the angle between the plane in which the swing doors (1a, 1b) are arranged when the swing doors (1a, 1b) are in the closed position and the direction of view, wherein the direction of view itself lies within a plane being perpendicular to the plane in which the swing doors (1a, 1b) are arranged when the swing doors (1a, 1b) are in a closed position and being perpendicular to the longitudinal extension of the mullion, characterized in that a part of the mullion reaches in between the two adjacent swing doors (1a, 1b), when the swing doors (1a, 1b) are in the closed position.
A method for measuring a flow velocity (v) of a gas flow comprising the steps: (a) time-resolved measurement of an IR radiation parameter at a first measurement point outside of the gas flow, thereby obtaining a first IR radiation parameter curve (E g1,1 (t)), (b) time-resolved measurement of the IR radiation parameter at a second measurement point outside of the gas flow, thereby obtaining a second IR radiation parameter curve (E g1,2 (t)), (c) calculating a run time (τ1) from the first IR radiation parameter curve (E g1,1 (t)) and the second IR radiation parameter curve (E g1,2 (t)) by means of cross-correlation, and (d) calculating the flow velocity (vG) from the run time (τ1), wherein (e) the gas flow is conducted in a line, the walls of which emit black body radiation, and contains particles that emit black body radiation, (f) the IR radiation parameter (E g1) is photoelectrically measured at a wavelength (λ g1) of at least 1.5 μm and at most 15 μm, (g) a measurement frequency (f) is at least 1 kilohertz, (h) the IR radiation parameter indicates the radiation intensity of IR radiation of the gas flow and (i) the temperature of the gas flow is at least 1000°C. (a) time-resolved measurement of an IR radiation parameter at a first measurement point outside of the gas flow, thereby obtaining a first IR radiation parameter curve (E g1,1 (t)), (b) time-resolved measurement of the IR radiation parameter at a second measurement point outside of the gas flow, thereby obtaining a second IR radiation parameter curve (E g1,2 (t)), (c) calculating a run time (τ1) from the first IR radiation parameter curve (E g1,1 (t)) and the second IR radiation parameter curve (E g1,2 (t)) by means of cross-correlation, and (d) calculating the flow velocity (vG) from the run time (τ1), wherein (e) the gas flow is conducted in a line, the walls of which emit black body radiation, and contains particles that emit black body radiation, (f) the IR radiation parameter (E g1) is photoelectrically measured at a wavelength (λ g1) of at least 1.5 μm and at most 15 μm, (g) a measurement frequency (f) is at least 1 kilohertz, (h) the IR radiation parameter indicates the radiation intensity of IR radiation of the gas flow and (i) the temperature of the gas flow is at least 1000°C.
Method for determining the fault position of a fault on a line of an electrical power supply network, in which - first current and voltage values are measured at a first line end of the line and provided with a time stamp; - second current and voltage values are measured at a second line end of the line and provided with a time stamp; and - by using the time-stamped first and second current and voltage values after the occurrence of a fault on the line, the fault position of the latter is determined; characterized in that - with the first current and voltage values measured at the first line end, second current and voltage values are determined, which indicate the current flowing at the second line end or the voltage applied at the second line end; - the estimated second current or voltage values are compared with the current or voltage values measured at the second line end; and - first and second current and voltage values that lie within a period of time established by a first data window are employed in order to determine a first fault position, the start of the first data window being established as a function of the time at which a discrepancy is identified between the estimated second current or voltage values and the measured second current or voltage values. - first current and voltage values are measured at a first line end of the line and provided with a time stamp; - second current and voltage values are measured at a second line end of the line and provided with a time stamp; and - by using the time-stamped first and second current and voltage values after the occurrence of a fault on the line, the fault position of the latter is determined; characterized in that - with the first current and voltage values measured at the first line end, second current and voltage values are determined, which indicate the current flowing at the second line end or the voltage applied at the second line end; - the estimated second current or voltage values are compared with the current or voltage values measured at the second line end; and - first and second current and voltage values that lie within a period of time established by a first data window are employed in order to determine a first fault position, the start of the first data window being established as a function of the time at which a discrepancy is identified between the estimated second current or voltage values and the measured second current or voltage values.
An air conditioning indoor unit comprising: a main body including a top side, a bottom side, and a side part connecting the top side to the bottom side, and including an intake surface on the side part; a blow-out panel at least partially covering the bottom side of the main body and including a blow-out port; an axial fan disposed inside the main body, having an axial direction orthogonal to the top side, including an intake side and a blow-out side formed during rotation of the axial fan, the blow-out side being located on a lower side of the axial fan, the blow-out side facing the blow-out panel; a heat exchanger located inside the intake surface and disposed surrounding the axial fan; characterized by an electric component disposed under the axial fan, and by a housing for housing the electric component, wherein the housing is at least partially located in a central part surrounded by a fin of the axial fan. a main body including a top side, a bottom side, and a side part connecting the top side to the bottom side, and including an intake surface on the side part; a blow-out panel at least partially covering the bottom side of the main body and including a blow-out port; an axial fan disposed inside the main body, having an axial direction orthogonal to the top side, including an intake side and a blow-out side formed during rotation of the axial fan, the blow-out side being located on a lower side of the axial fan, the blow-out side facing the blow-out panel; a heat exchanger located inside the intake surface and disposed surrounding the axial fan; characterized by an electric component disposed under the axial fan, and by a housing for housing the electric component, wherein the housing is at least partially located in a central part surrounded by a fin of the axial fan.
A method for projecting a special purpose image using a lower resolution digital projector array, the method comprising: choosing a pattern to be illuminated, the pattern having at least one high contrast edge feature that extends continuously across a plane of the illumination; and providing an anisotropically blurring optical element between an illumination source of the projector array and its projection, characterized by applying an illumination pattern on the projector array to define a pixellated, high contrast approximation to the edge feature, wherein the blurring optical element blurs each pixel of a connected set of pixels of the illumination pattern more in directions of pixels of equal or greater illumination, and less in directions of pixels of lower illumination. choosing a pattern to be illuminated, the pattern having at least one high contrast edge feature that extends continuously across a plane of the illumination; and providing an anisotropically blurring optical element between an illumination source of the projector array and its projection, characterized by applying an illumination pattern on the projector array to define a pixellated, high contrast approximation to the edge feature, wherein the blurring optical element blurs each pixel of a connected set of pixels of the illumination pattern more in directions of pixels of equal or greater illumination, and less in directions of pixels of lower illumination.
A method comprising: forming a recess into a semiconductor substrate, wherein a portion of the semiconductor substrate extends into the recess and is surrounded by the recess; forming a semiconductor single crystal in the recess, the semiconductor single crystal having a different composition from the semiconductor substrate; forming a first doped semiconductor region in the semiconductor substrate; forming a second doped semiconductor region in the semiconductor substrate; wherein the first doped semiconductor region and the second doped semiconductor region form a p-n junction that separates the portion from the rest of the semiconductor substrate. forming a recess into a semiconductor substrate, wherein a portion of the semiconductor substrate extends into the recess and is surrounded by the recess; forming a semiconductor single crystal in the recess, the semiconductor single crystal having a different composition from the semiconductor substrate; forming a first doped semiconductor region in the semiconductor substrate; forming a second doped semiconductor region in the semiconductor substrate; wherein the first doped semiconductor region and the second doped semiconductor region form a p-n junction that separates the portion from the rest of the semiconductor substrate.
A method of making a sintered article comprising: compressing particles of a material together to form a green body having an area, and a thickness that is measured transverse to the area, and at least partially embedding a solid body within the green body; and sintering the green body so that the particles of the material form a sintered body, characterized in that: in forming the green body, forming an opening extending into the thickness of the green body; in embedding the solid body at least partially within the green body, embedding the solid body to extend across the opening of the green body so that the solid body is not in contact with the green body within the opening of the green body; and in sintering the green body, stress applied to the solid body is relieved by deformation of the solid body within the opening of the green body. compressing particles of a material together to form a green body having an area, and a thickness that is measured transverse to the area, and at least partially embedding a solid body within the green body; and sintering the green body so that the particles of the material form a sintered body, characterized in that: in forming the green body, forming an opening extending into the thickness of the green body; in embedding the solid body at least partially within the green body, embedding the solid body to extend across the opening of the green body so that the solid body is not in contact with the green body within the opening of the green body; and in sintering the green body, stress applied to the solid body is relieved by deformation of the solid body within the opening of the green body. in forming the green body, forming an opening extending into the thickness of the green body; in embedding the solid body at least partially within the green body, embedding the solid body to extend across the opening of the green body so that the solid body is not in contact with the green body within the opening of the green body; and in sintering the green body, stress applied to the solid body is relieved by deformation of the solid body within the opening of the green body.
Anti-intrusion security system for a garage door of the for example tilting or sectional type designed to open vertically from a lowered position in which the garage is closed to a raised position in which the garage is accessible, or vice-versa, said system comprising: - a main body intended to be fixed securely in a middle zone of the bottom edge (PGa) of said door, and - a shoe intended to be fixed securely to the ground, wherein said main body and said shoe are facing one another, wherein said main body and said shoe comprise respectively first and second assembly means able to cooperate together so that, in the lowered position, said main body and said shoe are securely assembled with one another in order to prevent opening of said door, and wherein the main body comprises a so-called external stop intended to be in contact with the external face of the garage door, characterised in that the anti-intrusion security system further comprises two so-called internal lateral stops (31, 32) intended to be securely fixed to the ground inside said garage on either side of the external stop. - a main body intended to be fixed securely in a middle zone of the bottom edge (PGa) of said door, and - a shoe intended to be fixed securely to the ground,
A prosthesis, the prosthesis comprising: a graft having a tubular body, a wall defining an external surface of the graft, and a pouch; a strip comprising at least one fenestration, wherein the strip is at least partially contained within the pouch; and a window formed within the pouch; wherein the fenestration is at least partially aligned with the window thereby forming a channel through the fenestration and the window, and wherein the strip is slidable in at least one axial direction. a graft having a tubular body, a wall defining an external surface of the graft, and a pouch; a strip comprising at least one fenestration, wherein the strip is at least partially contained within the pouch; and a window formed within the pouch; wherein the fenestration is at least partially aligned with the window thereby forming a channel through the fenestration and the window, and wherein the strip is slidable in at least one axial direction.
A computer-implemented method comprising: deriving a plurality of meta-feature values from an inference dataset that contains a plurality of data units by, for each meta-feature of a plurality of meta-features, deriving a respective meta-feature value for the inference dataset from multiple data units of the plurality of data units of the inference dataset, wherein each meta-feature characterizes the inference dataset as a whole, and wherein the inference dataset comprises mono-chromatic photographs and/or full-color photographs having pixels; for each algorithm of a plurality of trainable algorithms: for each already trained algorithm-specific meta-model of a respective plurality of algorithm-specific regression meta-models that can predict performance of the algorithm, calculating a respective score emitted by the meta-model, of a plurality of meta-model scores, by stimulating the meta-model with (i) a respective subset of meta-feature values of the plurality of meta-feature values and (ii) a respective subset of hyperparameter values of a plurality of hyperparameters of the algorithm as inference inputs; selecting, based on the plurality of meta-model scores, and training a subset of the plurality of trainable algorithms with the inference dataset or with a training set for which the inference dataset is representative to classify or recognize an object within the inference dataset or a larger data set; wherein training of the plurality of trainable algorithms is limited to said training said subset of the plurality of trainable algorithms. deriving a plurality of meta-feature values from an inference dataset that contains a plurality of data units by, for each meta-feature of a plurality of meta-features, deriving a respective meta-feature value for the inference dataset from multiple data units of the plurality of data units of the inference dataset, wherein each meta-feature characterizes the inference dataset as a whole, and wherein the inference dataset comprises mono-chromatic photographs and/or full-color photographs having pixels; for each algorithm of a plurality of trainable algorithms: for each already trained algorithm-specific meta-model of a respective plurality of algorithm-specific regression meta-models that can predict performance of the algorithm, calculating a respective score emitted by the meta-model, of a plurality of meta-model scores, by stimulating the meta-model with (i) a respective subset of meta-feature values of the plurality of meta-feature values and (ii) a respective subset of hyperparameter values of a plurality of hyperparameters of the algorithm as inference inputs; selecting, based on the plurality of meta-model scores, and training a subset of the plurality of trainable algorithms with the inference dataset or with a training set for which the inference dataset is representative to classify or recognize an object within the inference dataset or a larger data set; wherein training of the plurality of trainable algorithms is limited to said training said subset of the plurality of trainable algorithms.
A superconducting package for providing direct current, DC, and microwave-frequency connectivity in a quantum processor, the superconducting package comprising: a first substrate having a top surface and a bottom surface and having at least one quantum circuit component provided thereon, each of the top and bottom surfaces of the first substrate comprising a patterned superconducting surface; a first superconducting signal via extending between the top surface and the bottom surface of the first substrate; and a plurality of first superconducting ground vias extending between the top surface and the bottom surface of the first substrate substantially parallel to the first signal via and arranged in a first ring with the first superconducting signal via being at a center of the first ring; wherein each of the first superconducting signal via and the plurality of first superconducting ground vias comprises an opening extending between the top surface and the bottom surface of the first substrate, the opening coated with a layer of a superconducting material having a thickness of at least 50 nanometers,nm. a first substrate having a top surface and a bottom surface and having at least one quantum circuit component provided thereon, each of the top and bottom surfaces of the first substrate comprising a patterned superconducting surface; a first superconducting signal via extending between the top surface and the bottom surface of the first substrate; and a plurality of first superconducting ground vias extending between the top surface and the bottom surface of the first substrate substantially parallel to the first signal via and arranged in a first ring with the first superconducting signal via being at a center of the first ring; wherein each of the first superconducting signal via and the plurality of first superconducting ground vias comprises an opening extending between the top surface and the bottom surface of the first substrate, the opening coated with a layer of a superconducting material having a thickness of at least 50 nanometers,nm.
A drug delivery device comprising: a housing including a bottom surface; a cartridge received within the housing, the cartridge configured to receive a medicament; a drive assembly received within the housing and configured to engage the cartridge and dispense medicament from the cartridge; a needle actuator assembly received within the housing, the needle actuator assembly comprising a patient needle configured to pierce a patient's skin, characterised in that the bottom surface of the housing defines a port recess; in that the drug delivery device further comprises a port interface plate configured to be secured to the bottom surface of the housing, the port interface plate comprising a port interface configured to be aligned with the port recess of the housing when the port interface plate is secured to the housing; in that the port interface plate includes a plate body having a first side and a second side positioned opposite the first side 68; in that the port interface is an opening extending from the first side of the plate body to the second side of the plate body; and in that the port interface plate is selected and secured to a main body of the housing depending on the size and shape of an implanted injection port (2, 4, 6), such that the opening has a shape corresponding to a shape of the implanted injection port (2, 4, 6). a housing including a bottom surface; a cartridge received within the housing, the cartridge configured to receive a medicament; a drive assembly received within the housing and configured to engage the cartridge and dispense medicament from the cartridge; a needle actuator assembly received within the housing, the needle actuator assembly comprising a patient needle configured to pierce a patient's skin, characterised in that the bottom surface of the housing defines a port recess; in that the drug delivery device further comprises a port interface plate configured to be secured to the bottom surface of the housing, the port interface plate comprising a port interface configured to be aligned with the port recess of the housing when the port interface plate is secured to the housing; in that the port interface plate includes a plate body having a first side and a second side positioned opposite the first side 68; in that the port interface is an opening extending from the first side of the plate body to the second side of the plate body; and in that the port interface plate is selected and secured to a main body of the housing depending on the size and shape of an implanted injection port (2, 4, 6), such that the opening has a shape corresponding to a shape of the implanted injection port (2, 4, 6).
A method comprising: assigning at a switch in a layer 2 multipath network, a number of costs to a link in the network, each of said link costs associated with a respective one of a number of different graphs for forwarding traffic in the network, wherein said link costs are assigned based on an amount of traffic to be carried on the link for the different graphs; transmitting said per-graph link costs to other switches in the layer 2 multipath network; and receiving and forwarding traffic at the switch according to one of said graphs, wherein a tag associated with said one of the graphs is inserted into said traffic received at the switch. assigning at a switch in a layer 2 multipath network, a number of costs to a link in the network, each of said link costs associated with a respective one of a number of different graphs for forwarding traffic in the network, wherein said link costs are assigned based on an amount of traffic to be carried on the link for the different graphs; transmitting said per-graph link costs to other switches in the layer 2 multipath network; and receiving and forwarding traffic at the switch according to one of said graphs, wherein a tag associated with said one of the graphs is inserted into said traffic received at the switch.