mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for designing a new assembly of parts (20,30) in a three-dimensional scene comprising the steps of: - upon user action, selecting at least a first part of a first assembly and selecting a second part of a second assembly, the parts and the assemblies being stored in a relational database; - for each part (20,32): (i) querying, in the database, for one or more existing geometric constraints (24,26,34,36) previously defined by a user in the respective assembly between the part (20,32) and another part (22,30); (ii) retrieving, in the database, geometries of the part (20,32) on which the said one or more existing geometric constraints (24,26,34,36) were applied; - computing at least one relative position of the first and the second part that form a new assembly of parts by using the retrieved geometries; and - displaying the new assembly of parts to the user. - upon user action, selecting at least a first part of a first assembly and selecting a second part of a second assembly, the parts and the assemblies being stored in a relational database; - for each part (20,32): (i) querying, in the database, for one or more existing geometric constraints (24,26,34,36) previously defined by a user in the respective assembly between the part (20,32) and another part (22,30); (ii) retrieving, in the database, geometries of the part (20,32) on which the said one or more existing geometric constraints (24,26,34,36) were applied; (i) querying, in the database, for one or more existing geometric constraints (24,26,34,36) previously defined by a user in the respective assembly between the part (20,32) and another part (22,30); (ii) retrieving, in the database, geometries of the part (20,32) on which the said one or more existing geometric constraints (24,26,34,36) were applied; - computing at least one relative position of the first and the second part that form a new assembly of parts by using the retrieved geometries; and - displaying the new assembly of parts to the user.
A composition, comprising 5 to 90 weight percent poly(isophthalate-terephthalate-resorcinol ester)-co-(bisphenol-A carbonate); 10 to 75 weight percent poly(ethylene terephthalate); and 1 to 40 weight percent poly(1,4-butylene terephthalate); wherein all weight percents are based on the total weight of the composition. 5 to 90 weight percent poly(isophthalate-terephthalate-resorcinol ester)-co-(bisphenol-A carbonate); 10 to 75 weight percent poly(ethylene terephthalate); and 1 to 40 weight percent poly(1,4-butylene terephthalate); wherein all weight percents are based on the total weight of the composition.
A heating device (1,1', 1") for a lens (6, 6', 6") of a camera (5, 5'), wherein the heating device (1, 1', 1") comprises: at least one body (2, 2', 2") comprising at least one matrix material and at least one conductive material, wherein the conductive material is dispersed in the matrix material to form a conductive mass; and at least two electric contacts (3a, 3b, 3a', 3b') contacting the conductive mass for applying an electric voltage to the conductive mass, characterized in that the at least two electric contacts (3a, 3b, 3a', 3b') are injection-molded onto the body (2, 2', 2") or injected into the body (2, 2', 2"), or more conductive material is distributed near the regions where the two electric contacts (3a, 3b, 3a', 3b') are arranged compared to the conductive material distributed in the remaining body (2, 2', 2"). at least one body (2, 2', 2") comprising at least one matrix material and at least one conductive material, wherein the conductive material is dispersed in the matrix material to form a conductive mass; and at least two electric contacts (3a, 3b, 3a', 3b') contacting the conductive mass for applying an electric voltage to the conductive mass, characterized in that the at least two electric contacts (3a, 3b, 3a', 3b') are injection-molded onto the body (2, 2', 2") or injected into the body (2, 2', 2"), or more conductive material is distributed near the regions where the two electric contacts (3a, 3b, 3a', 3b') are arranged compared to the conductive material distributed in the remaining body (2, 2', 2").
A microscopy system comprising: a light source for transmitting a single light beam; a first microlens array for splitting the single light beam into a plurality of light beams for forming at least one multi-focal pattern; a scanner for scanning the plurality of light beams that forms the at least one multi-focal pattern onto a sample such that the sample generates a plurality of fluorescent emissions with each of the at least one multi-focal pattern; a pinhole array to block out-of-focus fluorescent emissions for each of the at least one multi-focal pattern and allowing through in-focus fluorescent emissions to pass through the pinhole array; a 4f telescope pair consisting of a first relay lens which focuses the in-focus fluorescence emission onto a first mirror that diverts the in-focus fluorescence emission through a second relay lens which is then diverted by a second mirror and a third mirror in succession, a second microlens array for receiving the light beam from the third mirror, the second microlens array being positioned one focal length before the focus that would have been formed by the second relay lens thereby producing a non-inverted image of the in-focus fluorescent emissions having a one half magnification, wherein the non-inverted image is relayed through another telescope arrangement of a third scan lens and fourth scan lens, wherein the scanner rescans the non-inverted image of the in-focus fluorescent emissions; and a camera for capturing the scanned non-inverted image. a light source for transmitting a single light beam; a first microlens array for splitting the single light beam into a plurality of light beams for forming at least one multi-focal pattern; a scanner for scanning the plurality of light beams that forms the at least one multi-focal pattern onto a sample such that the sample generates a plurality of fluorescent emissions with each of the at least one multi-focal pattern; a pinhole array to block out-of-focus fluorescent emissions for each of the at least one multi-focal pattern and allowing through in-focus fluorescent emissions to pass through the pinhole array; a 4f telescope pair consisting of a first relay lens which focuses the in-focus fluorescence emission onto a first mirror that diverts the in-focus fluorescence emission through a second relay lens which is then diverted by a second mirror and a third mirror in succession, a second microlens array for receiving the light beam from the third mirror, the second microlens array being positioned one focal length before the focus that would have been formed by the second relay lens thereby producing a non-inverted image of the in-focus fluorescent emissions having a one half magnification, wherein the non-inverted image is relayed through another telescope arrangement of a third scan lens and fourth scan lens, wherein the scanner rescans the non-inverted image of the in-focus fluorescent emissions; and a camera for capturing the scanned non-inverted image.
A piston for a reciprocating piston type internal combustion engine of a nitride-forming base alloy with a piston upper part, comprising multiple circumferential piston ring grooves, and at least its uppermost ring groove near the combustion chamber comprises hardened groove flanks (5a, b) protected against wear by means of a surface layer, characterized in that at least the outer surfaces of the piston upper part, which comprise the ring grooves (4a, b, c) that are protected against wear, are provided with a further wear and corrosion protection layer in the form of a nitration layer, wherein the wear and corrosion protection layer through converting the nitride-forming base alloy is created through plasma nitriding or plasma nitrocarburizing in a nitrogen or nitrogen-carbon atmosphere, so that the hardened groove flanks (5a, b) are additionally protected by means of a nitration layer.
A shovel including a lower travelling body and an upper swivelling body, which is mounted on the lower travelling body through a swivelling function and on which a boom and an arm are mounted, a cabin mounted on the upper swivelling body; an operation unit provided inside the cabin; an imaging unit capturing an image of a peripheral region of the shovel, a display unit provided inside the cabin and displaying the image of the peripheral region of the shovel; a motor provided in the lower travelling body, the motor being driven to swivel in conformity with an operation direction of the operation unit; a guideline setting unit that sets a guideline, which includes at least two color information pieces, on the image captured by the at least one imaging unit, around the shovel at a predetermined distance, which is preset with respect to an end of a contour of the shovel; and a guideline generating unit (23, 42, 61) that generates the guideline on the image based on setup information obtained by the guideline setting unit; wherein the image having the guideline generated by the guideline generating unit (23, 42, 61) is displayed on a screen of the display unit so that the guideline is displayed through a back side and right and left sides of an image of the shovel on the image including the back side and the right and left sides of the image of the shovel. a lower travelling body and an upper swivelling body, which is mounted on the lower travelling body through a swivelling function and on which a boom and an arm are mounted, a cabin mounted on the upper swivelling body; an operation unit provided inside the cabin; an imaging unit capturing an image of a peripheral region of the shovel, a display unit provided inside the cabin and displaying the image of the peripheral region of the shovel; a motor provided in the lower travelling body, the motor being driven to swivel in conformity with an operation direction of the operation unit; a guideline setting unit that sets a guideline, which includes at least two color information pieces, on the image captured by the at least one imaging unit, around the shovel at a predetermined distance, which is preset with respect to an end of a contour of the shovel; and a guideline generating unit (23, 42, 61) that generates the guideline on the image based on setup information obtained by the guideline setting unit; wherein the image having the guideline generated by the guideline generating unit (23, 42, 61) is displayed on a screen of the display unit so that the guideline is displayed through a back side and right and left sides of an image of the shovel on the image including the back side and the right and left sides of the image of the shovel.
A reciprocating work machine provided with a motor, a striking mechanism (17, 28) reciprocating by power of the motor and striking a tool, and a housing accommodating the motor and the striking mechanism (17, 28), the reciprocating work machine comprising: a resin handle operably connected to the housing; an elastic body (74, 78) provided between the housing and the handle and expanding and contracting in a reciprocating direction of the striking mechanism (17, 28) when the handle is operated relative to the housing; and a weight provided to the handle and made of a material having a density higher than each of a density of a material constituting the handle and a density of a material constituting the housing, wherein the elastic body (74, 78) is supported by the housing and the handle, and is a spring (74, 78) that is sandwiched by the housing and the handle and the weight is fixed to the handle and supports an end portion of the spring (74, 78) in an expansion and contraction direction, each of the weight and the spring (74, 78) is made of a metal, the weight includes: a base portion supporting an end of the spring (74, 78); a pair of arm portions extending from the base portion in the axial direction; and a recessed portion formed between the pair of arm portions, and the spring (74, 78) is arranged in the recessed portion. a resin handle operably connected to the housing; an elastic body (74, 78) provided between the housing and the handle and expanding and contracting in a reciprocating direction of the striking mechanism (17, 28) when the handle is operated relative to the housing; and a weight provided to the handle and made of a material having a density higher than each of a density of a material constituting the handle and a density of a material constituting the housing, wherein the elastic body (74, 78) is supported by the housing and the handle, and is a spring (74, 78) that is sandwiched by the housing and the handle and the weight is fixed to the handle and supports an end portion of the spring (74, 78) in an expansion and contraction direction, each of the weight and the spring (74, 78) is made of a metal, the weight includes: a base portion supporting an end of the spring (74, 78); a pair of arm portions extending from the base portion in the axial direction; and a recessed portion formed between the pair of arm portions, and the spring (74, 78) is arranged in the recessed portion. a base portion supporting an end of the spring (74, 78); a pair of arm portions extending from the base portion in the axial direction; and a recessed portion formed between the pair of arm portions, and the spring (74, 78) is arranged in the recessed portion.
Method for the purification of exhaust gas from an internal combustion engine, comprising in series removal of volatile organic components in the exhaust gas by passing the gas through an oxidation catalyst, reducing the content of soot in the exhaust gas by passing the gas through a filter, subsequently reducing the content of nitrogen oxides in presence of ammonia or a precursor thereof in contact with a catalyst being active in NH 3 -SCR, periodically actively regenerating the filter by burning of soot captured in the filter, and passing the exhaust gas from the filter through the catalyst being active in NH 3 -SCR during the regeneration of the filter, wherein the catalyst consists of a hydrothermally microporous stable zeolite SSZ-39 promoted with copper.
A method by a source node of a cell clearance with regard to authorized shared access, the method comprising: obtaining resource information of at least one target node for the cell clearance for providing service to primary users; choosing at least one target node for traffic transfers of the cell clearance based on the resource information of the at least one target node; informing the chosen at least one target node about coming traffic transfers whereby the at least one target node reserves random access channel resources for the coming traffic transfers, and carrying out the traffic transfers by using handover procedures. obtaining resource information of at least one target node for the cell clearance for providing service to primary users; choosing at least one target node for traffic transfers of the cell clearance based on the resource information of the at least one target node; informing the chosen at least one target node about coming traffic transfers whereby the at least one target node reserves random access channel resources for the coming traffic transfers, and carrying out the traffic transfers by using handover procedures.
A method comprising: determining, by an edge device, a quality of service QoS of a direct link between the edge device and a communications controller; determining, by the edge device, a hub search parameter in accordance with the QoS of the direct link between the edge device and the communications controller; determining, by the edge device, a likelihood of proximity to a hub device, wherein determining, by the edge device, the hub search parameter further comprises determining the hub search parameter in accordance with the likelihood of proximity to the hub device; and searching, by the edge device, for hub devices in accordance with the hub search parameter. determining, by an edge device, a quality of service QoS of a direct link between the edge device and a communications controller; determining, by the edge device, a hub search parameter in accordance with the QoS of the direct link between the edge device and the communications controller; determining, by the edge device, a likelihood of proximity to a hub device, wherein determining, by the edge device, the hub search parameter further comprises determining the hub search parameter in accordance with the likelihood of proximity to the hub device; and searching, by the edge device, for hub devices in accordance with the hub search parameter.
A computer-implemented method for integrating post quantum cryptographic, PQC, algorithms into transport layer security, TLS, the computer-implemented method comprising: transmitting a client hello message to a server requesting a PQC mode of operation to establish a secure connection between a client and the server, wherein the client hello message includes a PQC public client key; receiving a server hello message from the server, wherein the server hello message includes a PQC server key exchange generated from the PQC public client key; determining the server hello message includes an authorization to operate the PQC mode of operation; transmitting a second client hello message to the server, wherein the second client hello message includes a PQC encrypted client key share; receiving a second server hello message, wherein the second server hello message includes a PQC encrypted server key share; decrypting the PQC encrypted server key share using a server encryption key to reveal a server key share; and establishing a secure connection between the client and the server using the server key share. transmitting a client hello message to a server requesting a PQC mode of operation to establish a secure connection between a client and the server, wherein the client hello message includes a PQC public client key; receiving a server hello message from the server, wherein the server hello message includes a PQC server key exchange generated from the PQC public client key; determining the server hello message includes an authorization to operate the PQC mode of operation; transmitting a second client hello message to the server, wherein the second client hello message includes a PQC encrypted client key share; receiving a second server hello message, wherein the second server hello message includes a PQC encrypted server key share; decrypting the PQC encrypted server key share using a server encryption key to reveal a server key share; and establishing a secure connection between the client and the server using the server key share.
System for detecting fog in a predetermined vicinity in front of a motor vehicle, wherein the vicinity is an annular segment which has an inner radius in a range from 0.5 metres to 2 metres and an outer radius in a range from 5 metres to 25 metres, and wherein a light cone is emitted into the vicinity by a front headlamp as light source of the motor vehicle and during this a camera image at least of the vicinity is generated by a camera of the motor vehicle and a local brightness distribution (54, 58) in the camera image is determined by an analysis device and the presence of fog is signalised by means of a fog signal, in the case that the brightness distribution (54, 58) fulfils a predetermined distribution criterium, wherein the distribution criterium defines an expected brightness distribution (54, 58) in the camera image in which a light of the light cone is perceivable in the camera image, in the case that the vicinity is either fog-free or foggy, characterised in that the light cone is emitted as a light pulse lasting less than 0.5s.
Integrated optical system (100, 100', 100", 100'") for a microendoscopic apparatus, said system comprising: - a distal microendoscopic probe having a prevalently longitudinal extension, capable of penetrating into a tissue to be observed, through which light radiations, directed towards said tissue and/or coming from said tissue, are able to pass; and - a substantially plate-shaped proximal element extending transversally to said probe, said element being capable of being coupled to a frame of said apparatus; wherein said element is optically transparent in at least an input optical interface region towards which the optically usable area of said probe faces; said probe having an elongated body; said system being characterized in that between the optically usable output area of said probe and the input optical interface region of said element an optically transparent adhesive is directly interposed, which constrains said probe securely to said element; and that said probe comprises a lens with microfabricated aspherical curvature; said system further comprising a corrective lens carried by said element, on the side opposed to that from which said probe protrudes. - a distal microendoscopic probe having a prevalently longitudinal extension, capable of penetrating into a tissue to be observed, through which light radiations, directed towards said tissue and/or coming from said tissue, are able to pass; and - a substantially plate-shaped proximal element extending transversally to said probe, said element being capable of being coupled to a frame of said apparatus;
A cleaning system comprising: a vacuum cleaner; and a box-shaped dust collecting station configured to be in communication with the vacuum cleaner and to remove foreign substances collected by the vacuum cleaner, wherein the dust collecting station comprises: a cover configured to pivot about an axis between an open position and a closed position; a detachable dust bag configured to collect the foreign substances removed from the vacuum cleaner, characterized in that the dust collecting station further comprises a panel forming at least part of a front surface; and a rear surface arranged opposite the front surface, wherein the panel is configured to be moved to expose the cover of the dust collecting station toward a front of the dust collecting station, so that the cover is accessible from the front of the dust collecting station, and wherein the detachable dust bag of the dust collecting station is removable from the dust collecting station toward the front of the dust collecting station, when the cover is in the open position. a vacuum cleaner; and a box-shaped dust collecting station configured to be in communication with the vacuum cleaner and to remove foreign substances collected by the vacuum cleaner, wherein the dust collecting station comprises: a cover configured to pivot about an axis between an open position and a closed position; a detachable dust bag configured to collect the foreign substances removed from the vacuum cleaner, characterized in that the dust collecting station further comprises a panel forming at least part of a front surface; and a rear surface arranged opposite the front surface, a cover configured to pivot about an axis between an open position and a closed position; a detachable dust bag configured to collect the foreign substances removed from the vacuum cleaner, characterized in that the dust collecting station further comprises a panel forming at least part of a front surface; and a rear surface arranged opposite the front surface, wherein the panel is configured to be moved to expose the cover of the dust collecting station toward a front of the dust collecting station, so that the cover is accessible from the front of the dust collecting station, and wherein the detachable dust bag of the dust collecting station is removable from the dust collecting station toward the front of the dust collecting station, when the cover is in the open position.