mhurhangee/ep-ind-claims huggingface dataset:
In-ground-luminaire with a housing having a light outlet opening, with a glass pane for covering the light outlet opening and a sealing ring arranged between the housing and the glass pane, wherein an underside of the glass pane rests on a support section of the housing, an upper side of the glass pane is formed with a step arranged on the pane edge, and the sealing ring is held and pressed by means of an end ring enclosing at least the housing and the step of the glass pane, the sealing ring is conical in cross-section and can be inserted with its tapered end into a gap formed as an extension of the support section between the housing and an pane edge, characterized in that the end ring rests directly on the upper side of the glass pane and the sealing ring seals the gap between the housing and the glass pane exclusively radially.
Method for burning gaseous hydrogen-containing fuel which has a hydrogen content of at least 50%, using a burner provided with a swirl generator into which liquid fuel can be fed centrally along a burner axis, forming a conical liquid fuel column which is surrounded by and mixed with a rotating flow of combustion air flowing tangentially into the swirl generator, characterised in that the gaseous hydrogen-containing fuel is fed into the swirl generator largely axially and/or coaxially to the burner axis, forming a fuel flow with a largely spatially defined flow form and with a flow pulse such that the flow form of the fuel mixture is maintained inside the burner and widens out in the region of the burner outlet and comes to ignition within the limits of a formed backflow zone.
A cartridge (100, 400, 500) comprising: a chamber structure configured to contain endodontic material; an electrically conductive heating layer provided adjacent to the chamber structure; a first electrode (118, 402) positioned at one side of the cartridge (100, 400, 500), the first electrode (118, 402) being in electrical contact with the heating layer; a second electrode (120, 406) positioned at a second side of the cartridge (100, 400, 500), the second electrode (120, 406) being in electrical contact with the heating layer; an outer sleeve (102, 402, 502) encasing the chamber structure, the heating layer, and the electrodes (118, 402, 120, 406), wherein an air gap is provided between the outer sleeve (102, 402, 502) and the heating layer, and an electrical insulation layer provided on an outer surface of the chamber structure, wherein the heating layer is provided on the electrical insulation layer. a chamber structure configured to contain endodontic material; an electrically conductive heating layer provided adjacent to the chamber structure; a first electrode (118, 402) positioned at one side of the cartridge (100, 400, 500), the first electrode (118, 402) being in electrical contact with the heating layer; a second electrode (120, 406) positioned at a second side of the cartridge (100, 400, 500), the second electrode (120, 406) being in electrical contact with the heating layer; an outer sleeve (102, 402, 502) encasing the chamber structure, the heating layer, and the electrodes (118, 402, 120, 406), wherein an air gap is provided between the outer sleeve (102, 402, 502) and the heating layer, and an electrical insulation layer provided on an outer surface of the chamber structure, wherein the heating layer is provided on the electrical insulation layer.
An elevator car, comprising an elevator car door and a jamb, the elevator car door having a gap communicating with an exterior of the elevator car when in a closed state, wherein the elevator car further comprises a fire-proof seal disposed on the elevator car door and/or the jamb, and arranged to intumesce to at least partially fill the gap when the temperature of an environment in which the fire-proof seal is located exceeds a preset value; wherein the elevator car door at least comprises a fast door and a slow door, the gap comprises a first gap between the fast door and the slow door and a second gap between the slow door and the jamb, and the fire-proof seal comprises: a first fire-proof seal arranged in at least a part of the first gap; and a second fire-proof seal arranged in at least a part of the second gap and configured to be the same as or different from the first fire-proof seal; characterized in that the first gap and/or the second gap are configured to be a labyrinth gap, the first fire-proof seal is adhered to at least two outer surfaces of the fast door and/or the slow door, and the second fire-proof seal is adhered to at least two outer surfaces of the slow door and/or the jamb. a first fire-proof seal arranged in at least a part of the first gap; and a second fire-proof seal arranged in at least a part of the second gap and configured to be the same as or different from the first fire-proof seal; characterized in that the first gap and/or the second gap are configured to be a labyrinth gap, the first fire-proof seal is adhered to at least two outer surfaces of the fast door and/or the slow door, and the second fire-proof seal is adhered to at least two outer surfaces of the slow door and/or the jamb.
A counterplate positioning jig for a sheet blanking machine, comprising a housing in which is formed an accommodation hole that houses a sliding shaft member, the sliding shaft member for determining a position installed in the housing, and an engaging means for engaging with the sliding shaft member; and wherein a locking structure is provided that locks as a result of the engaging means engaging with an inclined portion of the sliding shaft member, the locking structure entering a lower-side locked state when the sliding shaft member is pulled downwards, and when the sliding shaft member is pushed upwards, the locking structure releasing the lower-side lock, which allows the sliding shaft member to move upwards and subsequently enter an upper-side locked state, wherein the lower-side inclined portion and a middle inclined portion are integrally formed on the sliding shaft member, wherein the middle inclined portion and the lower-side inclined portion are inclined in opposite directions, wherein the engaging means uses the biasing force of an elastic body to engage with the sliding shaft member.
A method of transmitting power headroom reports from a wireless terminal to a base station, wherein a primary component carrier and at least one secondary component carrier are provided for uplink transmissions from the wireless terminal to the base station, wherein a respective component carrier index is assigned to each of the component carriers provided for the wireless terminal, the method comprising: generating respective power headroom reports for the primary component carrier and for each of the at least one secondary component carriers; generating a MAC control element including the power headroom reports for the primary and secondary component carriers, characterized in that a Type 2 power headroom report for the primary component carrier is provided first, and then Type 1 power headroom reports for the primary component carrier and each of the at least one secondary component carriers are added in an order according to the component carrier indices for the respective component carriers, and wherein no specific component carrier identifier field is included for each power headroom report; and transmitting the MAC control element including the power headroom reports for the primary and secondary component carriers from the wireless terminal to the base station over one of the component carriers. generating respective power headroom reports for the primary component carrier and for each of the at least one secondary component carriers; generating a MAC control element including the power headroom reports for the primary and secondary component carriers, characterized in that a Type 2 power headroom report for the primary component carrier is provided first, and then Type 1 power headroom reports for the primary component carrier and each of the at least one secondary component carriers are added in an order according to the component carrier indices for the respective component carriers, and wherein no specific component carrier identifier field is included for each power headroom report; and transmitting the MAC control element including the power headroom reports for the primary and secondary component carriers from the wireless terminal to the base station over one of the component carriers.
A method of making a three-dimensional object by bottom-up additive manufacturing, comprising: (a) providing a carrier platform, a light source, and a light transmissive window therebetween, the light transmissive window comprising a gas permeable member having a top surface and a bottom surface; (b) depositing a liquid resin on the window, the resin comprising a cyclic olefin monomer and a ring-opening metathesis polymerization, ROMP, photocatalyst; (c) contacting a gas comprising oxygen to said gas permeable member bottom surface, wherein said gas includes oxygen at a partial pressure in a range of 0.1 to 11 kilopascals; and (d) exposing said resin to light from said light source while advancing said carrier platform away from said window to form said three-dimensional object on said carrier platform. (a) providing a carrier platform, a light source, and a light transmissive window therebetween, the light transmissive window comprising a gas permeable member having a top surface and a bottom surface; (b) depositing a liquid resin on the window, the resin comprising a cyclic olefin monomer and a ring-opening metathesis polymerization, ROMP, photocatalyst; (c) contacting a gas comprising oxygen to said gas permeable member bottom surface, wherein said gas includes oxygen at a partial pressure in a range of 0.1 to 11 kilopascals; and (d) exposing said resin to light from said light source while advancing said carrier platform away from said window to form said three-dimensional object on said carrier platform.
A plasmonic metamaterial structure comprising: a plurality of optical antenna elements comprising: a first electrode, a second electrode and a plasmonic nanostructure element located between said first and second electrode to form an electron tunnelling junction between said first and second electrodes; said plurality of optical antenna elements being configured such that the electromagnetic field of one optical antenna element spatially overlaps that of adjacent optical antenna elements and adjacent optical antenna elements are electromagnetically coupled to allow said plurality of optical antenna elements to act as a plasmonic metamaterial and wherein at least one of said optical-antenna elements comprise: a target-sensitive material located in said electron tunnelling junction. a first electrode, a second electrode and a plasmonic nanostructure element located between said first and second electrode to form an electron tunnelling junction between said first and second electrodes; said plurality of optical antenna elements being configured such that the electromagnetic field of one optical antenna element spatially overlaps that of adjacent optical antenna elements and adjacent optical antenna elements are electromagnetically coupled to allow said plurality of optical antenna elements to act as a plasmonic metamaterial and wherein at least one of said optical-antenna elements comprise: a target-sensitive material located in said electron tunnelling junction.
Method of inspecting images on printed products in a machine for processing printing materials by means of a computer, wherein an image recording system records and digitizes the produced printed products by means of at least one image sensor in the course of the image inspection process, the computer compares the recorded digital printed images which have been created in this way to a digital reference image and wherein, if deviations are found between the recorded digital printed images and the digital reference image, the printed products which have been found defective are removed, characterized in that the computer separates regions of paper white for printed and reference images, determines the colour values thereof, and, on the basis of the differences between these two colour values, compensates brightness differences between printed and reference images.
An exhaust gas cooler (60, 260, 360) for cooling exhaust gas of an internal combustion engine, the exhaust gas cooler (60, 260, 360) comprising: a cooler housing (262, 362) having an exhaust gas inlet (264, 364) and an exhaust gas outlet (266, 366) forming an exhaust gas passage (268, 368, 568) extending between the exhaust gas inlet (264, 364) and the exhaust gas outlet (266, 366); a cooling unit (272, 372, 572) installed in the exhaust gas passage (268, 368, 568) with a cooling surface for cooling the exhaust gas, the cooling surface comprising a condensation starting region where the exhaust gas is cooled to a temperature within the range of a dew point of an evaporated liquid within the exhaust gas, the cooling unit (272, 372, 572) being configured as a finned tube bundle and the cooling surface being formed by a plurality of spaced opposed fins and at least one cooling tube; and a liquid injection system (270, 370, 570) comprising at least one liquid spray outlet (270A, 570A) installed in the exhaust gas passage (268, 368, 568) and configured to provide the liquid at a temperature and/or droplet size such that during operation of the internal combustion engine at least some liquid sprayed from the at least one liquid spray outlet (270A, 570A) is transported in a liquid phase to the condensation starting region. a cooler housing (262, 362) having an exhaust gas inlet (264, 364) and an exhaust gas outlet (266, 366) forming an exhaust gas passage (268, 368, 568) extending between the exhaust gas inlet (264, 364) and the exhaust gas outlet (266, 366); a cooling unit (272, 372, 572) installed in the exhaust gas passage (268, 368, 568) with a cooling surface for cooling the exhaust gas, the cooling surface comprising a condensation starting region where the exhaust gas is cooled to a temperature within the range of a dew point of an evaporated liquid within the exhaust gas, the cooling unit (272, 372, 572) being configured as a finned tube bundle and the cooling surface being formed by a plurality of spaced opposed fins and at least one cooling tube; and a liquid injection system (270, 370, 570) comprising at least one liquid spray outlet (270A, 570A) installed in the exhaust gas passage (268, 368, 568) and configured to provide the liquid at a temperature and/or droplet size such that during operation of the internal combustion engine at least some liquid sprayed from the at least one liquid spray outlet (270A, 570A) is transported in a liquid phase to the condensation starting region.
A method of operating a satellite of a plurality of satellites (110-113, 120-123, 510-514, 610-614, 710) deployed as an orbiting platform, the method comprising: determining a first quality of service for a virtual node (241-244, 441-444, 741-743) executing on the satellite, the virtual node capable of receiving data from sensors (220, 802) of the satellite; allocating resources of the satellite to the virtual node based on the first quality of service; obtaining data from the sensors of the satellite corresponding to an object or region of interest (541, 641), the first quality of service determined based on the object or region of interest (541, 641); generating a plurality of data packets comprising the data from the sensors to be transmitted to at least one other system of the orbiting platform; identifying a quality of service modification event caused by a geographic movement of the satellite in orbit; in response to the quality of service modification event, allocating the resources of the satellite to the virtual node based on a second quality of service; prioritizing the plurality of data packets for transmission based on the quality of service associated with each of the plurality of data packets; and transmitting the plurality of data packets based on the prioritization. determining a first quality of service for a virtual node (241-244, 441-444, 741-743) executing on the satellite, the virtual node capable of receiving data from sensors (220, 802) of the satellite; allocating resources of the satellite to the virtual node based on the first quality of service; obtaining data from the sensors of the satellite corresponding to an object or region of interest (541, 641), the first quality of service determined based on the object or region of interest (541, 641); generating a plurality of data packets comprising the data from the sensors to be transmitted to at least one other system of the orbiting platform; identifying a quality of service modification event caused by a geographic movement of the satellite in orbit; in response to the quality of service modification event, allocating the resources of the satellite to the virtual node based on a second quality of service; prioritizing the plurality of data packets for transmission based on the quality of service associated with each of the plurality of data packets; and transmitting the plurality of data packets based on the prioritization.
A method of analysing blade tip displacements (d ijk), wherein the displacements (d ijk) are derived from a rotor having an array of blades that rotate at a rotational speed (ω), the blades monitored by an array of stationary timing probes for at least two revolutions (j) of the rotor; the method approximating the blade tip displacements (d ijk) by an expression of asynchronous displacement (d ijk_A) and, separately, an expression of synchronous displacement (d ijk_S) and comprising steps for each blade to: a) define asynchronous displacement (d ijk_A) as a sum of a sinusoidal term ( Va) and an offset per probe term ( Oo); b) define synchronous displacement (d ijk_S) as a sum of a sinusoidal term ( Vs) and a common offset term ( Cc); c) solve the asynchronous displacements (d ijk_A) using the blade tip displacements (d ijk) to give asynchronous amplitude (| a |), offset per probe (o k) and asynchronous residuals (r ijk_A); and d) solve the synchronous displacements (d ijk_S) using the blade tip displacements (d ijk) to give synchronous amplitude (| s |), common offset (c j) and synchronous residuals (r ijk_ s). a) define asynchronous displacement (d ijk_A) as a sum of a sinusoidal term ( Va) and an offset per probe term ( Oo); b) define synchronous displacement (d ijk_S) as a sum of a sinusoidal term ( Vs) and a common offset term ( Cc); c) solve the asynchronous displacements (d ijk_A) using the blade tip displacements (d ijk) to give asynchronous amplitude (| a |), offset per probe (o k) and asynchronous residuals (r ijk_A); and d) solve the synchronous displacements (d ijk_S) using the blade tip displacements (d ijk) to give synchronous amplitude (| s |), common offset (c j) and synchronous residuals (r ijk_ s).
A medical instrument for grasping an object (74, 78), in particular a surgical needle holder, comprising an elongated shaft, two jaw parts (22, 24) arranged at a distal end of the shaft, at least one of the jaw parts being pivotable with respect to the other one of the jaw parts between a grasp state for grasping the object (74, 78) between the jaw parts (22, 24) and a release state for releasing the object (74, 78), a handle arranged at a proximal end of the shaft and having at least one operating element for moving the at least one pivotable jaw part between the grasp state and the release state via an axially movable force transmission element running within the shaft and being operatively connected with the at least one operating element and with the at least one pivotable jaw part via a connection element, and further comprising a latching mechanism for immobilizing the at least one pivotable jaw part in the grasp state, wherein the latching mechanism comprises at least one latching element which is at least a part of the connection element, and which is operatively connected to the transmission element and the at least one pivotable jaw part, wherein the latching element comprises an elongated opening to accommodate a connection pin for connecting the at least one pivotable jaw part with the latching element, wherein the elongated opening comprises two opposing longer walls (60, 62), characterized in that the elongated opening is divided in several sections along its length, wherein the sections are formed by periodical projections (64, 64', 64", 66, 66') on at least one of the opposing walls (60, 62) along the length of the elongated opening, each section forming a latching position, such that the at least one pivotable jaw part pivots stepwise from one stable latched position to another stable latched position, when the transmission element is moved axially, wherein the latching mechanism comprises at least three latching positions.
A method for facilitating account login, wherein the method is implemented by a first server that is associated with a first account providing access to resources of the first server, the method comprising: receiving, from a terminal device, a request, generated by a built-in browser of an app associated with the first server and installed on the terminal device, to log into a second account associated with a second server, the second account providing access to resources of the second server, wherein the request includes a first identifier associated with the first account and a second identifier associated with the second server; generating account information to be transmitted to the second server based on the first identifier; authenticating the second server to confirm that the second server is authorized to receive the first identifier; and transmitting, based on the second identifier, the account information, including the first identifier, to the second server to enable the second server to determine the second account based on an association between the first identifier and the second account; wherein the transmission of the account information enables the second account to be automatically logged into at the second server. receiving, from a terminal device, a request, generated by a built-in browser of an app associated with the first server and installed on the terminal device, to log into a second account associated with a second server, the second account providing access to resources of the second server, wherein the request includes a first identifier associated with the first account and a second identifier associated with the second server; generating account information to be transmitted to the second server based on the first identifier; authenticating the second server to confirm that the second server is authorized to receive the first identifier; and transmitting, based on the second identifier, the account information, including the first identifier, to the second server to enable the second server to determine the second account based on an association between the first identifier and the second account; wherein the transmission of the account information enables the second account to be automatically logged into at the second server.