mhurhangee/ep-ind-claims huggingface dataset:
A profile cylinder key comprising a key bow and a key shaft extending from said key bow, wherein said key bow has a material recess, wherein a RFID tag unit is arranged in said material recess, wherein said material recess is formed in the shape of a through hole of said key bow, characterized in that a slit is formed in said key bow, said slit connecting said material recess and a boundary of said key bow.
A method for manufacture of a metal sheet article for a fixed wing aircraft, the metal sheet article comprises an outer surface serving as an aerodynamic surface during use of the article, the method comprises the steps of: - providing a blank of said metal sheet (1, 1'); - providing a porous outer layer (7, 7") of said metal sheet; wherein the step is performed by anodizing under pre-determined parameters; - pre-heating the metal sheet (1, 1') so that the outer layer is warmer than a hydrophobic material; - applying the hydrophobic material comprising wax by spraying a wax based aerosol spray onto said porous outer layer and applying said hydrophobic material into said porous outer layer (7, 7") by rubbing the surface such that the thickness of the porous outer layer (7, 7") is entirely impregnated with the hydrophobic material; and - finishing the outer surface of the article. - providing a blank of said metal sheet (1, 1'); - providing a porous outer layer (7, 7") of said metal sheet; wherein the step is performed by anodizing under pre-determined parameters; - pre-heating the metal sheet (1, 1') so that the outer layer is warmer than a hydrophobic material; - applying the hydrophobic material comprising wax by spraying a wax based aerosol spray onto said porous outer layer and applying said hydrophobic material into said porous outer layer (7, 7") by rubbing the surface such that the thickness of the porous outer layer (7, 7") is entirely impregnated with the hydrophobic material; and - finishing the outer surface of the article.
A method, comprising: transmitting, by a transmitting multiband wireless device, a session transfer request to a receiving multiband wireless device; and receiving from the receiving multiband wireless device, a session transfer response comprising a reply information element that includes at least a field that indicates a number of data streams to be switched between concurrently operating existing and new frequency bands, the reply information element further including a stream ID and an indication whether there is a need for a change in setup parameters for each data stream to be switched; thereby negotiating with the receiving multiband wireless device setup parameters that meet available resources in the new frequency band. transmitting, by a transmitting multiband wireless device, a session transfer request to a receiving multiband wireless device; and receiving from the receiving multiband wireless device, a session transfer response comprising a reply information element that includes at least a field that indicates a number of data streams to be switched between concurrently operating existing and new frequency bands, the reply information element further including a stream ID and an indication whether there is a need for a change in setup parameters for each data stream to be switched; thereby negotiating with the receiving multiband wireless device setup parameters that meet available resources in the new frequency band.
A distributed processing system, comprising: a control node, a first computing node, and a second computing node, wherein the first computing node is configured to process characteristic data reported by a terminal and characteristic data allocated by the control node, and the second computing node is configured to process characteristic data generated by the first computing node and the characteristic data allocated by the control node; wherein the control node obtains a type and a characteristic identifier of to-be-processed characteristic data, wherein the type is for identifying a home computing node of the to-be-processed characteristic data, and the home computing node is one of the first computing node and the second computing node; the control node determines process index information according to the characteristic identifier, and the process index information is for indicating a processing process on the home computing node to which the to-be-processed characteristic data belongs; the control node schedules, according to the process index information, one of data index information of the to-be-processed characteristic data and the to-be-processed characteristic data to the processing process on the home computing node, and the data index information is for instructing the home computing node to obtain the to-be-processed characteristic data; and the home computing node processes the to-be-processed characteristic data to obtain processed characteristic data; characterized in that, the distributed processing system further comprises a configuration update node, the configuration update node is configured to: store the to-be-processed characteristic data reported by the terminal and monitor updates of the to-be-processed characteristic data; and the control node is further configured to receive, in a case that the configuration update node detects that the to-be-processed characteristic data is updated, the type and the characteristic identifier of the to-be-processed characteristic data that are pushed by the configuration update node.
A method for deburring a ceramic foundry core obtained by injection-molding a ceramic slurry, said slurry containing a binder with a predetermined glass transition temperature, into a mold and having at least one surface portion with surplus material forming flash to be removed, said method comprising the following steps: a) arranging and securing the cast foundry core, unfired, on a support, b) placing a milling tool of elongate shape on a toolholder, c) rotating the tool about its axis and bringing the milling tool into contact with said surface portion to be deflashed, characterized by a cutting tool with a helical cutting edge and by the following step, d) cooling the surface portion to be deflashed in such a way as to keep the part at a temperature below said glass transition temperature during the deburring operation. a) arranging and securing the cast foundry core, unfired, on a support, b) placing a milling tool of elongate shape on a toolholder, c) rotating the tool about its axis and bringing the milling tool into contact with said surface portion to be deflashed, characterized by a cutting tool with a helical cutting edge and by the following step, d) cooling the surface portion to be deflashed in such a way as to keep the part at a temperature below said glass transition temperature during the deburring operation.
A polymerizable composition comprising: at least one isocyanate compound having a cyclic structure, selected from compounds represented by the following Formulae,, and: an aliphatic isocyanate compound having 4 to 11 carbon atoms; and a thiol compound, wherein in the case where the sum of the number of moles of the isocyanate compound and the number of moles of the isocyanate compound is taken as 100%, the proportion of the number of moles of the isocyanate compound is 30% to 60%. at least one isocyanate compound having a cyclic structure, selected from compounds represented by the following Formulae,, and: an aliphatic isocyanate compound having 4 to 11 carbon atoms; and a thiol compound, wherein in the case where the sum of the number of moles of the isocyanate compound and the number of moles of the isocyanate compound is taken as 100%, the proportion of the number of moles of the isocyanate compound is 30% to 60%.
A mock welding unicoupon (22,...) for a virtual welding system, comprising: a first exterior surface; a second exterior surface perpendicular to the first exterior surface, wherein the first exterior surface and the second exterior surface together provide a plurality of grooves (36, 38, 40,...) configured for simulation of a plurality of different types of groove welds on the mock welding unicoupon; a curved exterior surface (42,...) configured for simulation of a pipe fillet weld on the mock welding unicoupon; and a magnet source configured to generate a magnetic field around the mock welding unicoupon (22,...) for tracking movements of a mock welding tool with respect to the mock welding unicoupon. a first exterior surface; a second exterior surface perpendicular to the first exterior surface, wherein the first exterior surface and the second exterior surface together provide a plurality of grooves (36, 38, 40,...) configured for simulation of a plurality of different types of groove welds on the mock welding unicoupon; a curved exterior surface (42,...) configured for simulation of a pipe fillet weld on the mock welding unicoupon; and a magnet source configured to generate a magnetic field around the mock welding unicoupon (22,...) for tracking movements of a mock welding tool with respect to the mock welding unicoupon.
A system for localization of a target tissue region within a patient's body, comprising: a marker sized for implantation into a target tissue region within a patient's body; and a probe comprising one or more antennas (32, 34) for transmitting electromagnetic signals into a patient's body and receiving electromagnetic signals from the marker within patient's body, the probe analyzing the signals to identify the marker implanted within the patient's body; characterized in that the marker comprises an active reflector comprising an electronic circuit adapted to modulate the incident electromagnetic signals from the probe striking the marker, such that the electromagnetic signals reflected from the marker enhance identification of the marker by the probe.; and in that the probe is a micro-power impulse radar probe, the electromagnetic signals being micro-impulse radar signals. a marker sized for implantation into a target tissue region within a patient's body; and a probe comprising one or more antennas (32, 34) for transmitting electromagnetic signals into a patient's body and receiving electromagnetic signals from the marker within patient's body, the probe analyzing the signals to identify the marker implanted within the patient's body; characterized in that the marker comprises an active reflector comprising an electronic circuit adapted to modulate the incident electromagnetic signals from the probe striking the marker, such that the electromagnetic signals reflected from the marker enhance identification of the marker by the probe.; and in that the probe is a micro-power impulse radar probe, the electromagnetic signals being micro-impulse radar signals.
A sagging resistant strip produced by a) casting a melt comprising: 0.3-1.5% Si, ≤ 0.5% Fe, ≤ 0.3% Cu 1.0-2.0% Mn, ≤ 0.5% Mg, more preferably ≤ 0.3%, ≤ 4.0% Zn, ≤ 0.5% Ni, ≤ 0.3% each of dispersoid forming elements from group IVb, Vb, or Vlb, and unavoidable impurity elements, each at most 0.05%, in a total amount of at most 0.15%, the rest aluminium, so as to obtain an ingot, b) preheating the ingot at a temperature of less than 550°C, preferably 400-520°C, more preferably 450-520 °C, especially more than 470 up to 520 °C, so as to form dispersoid particles, c) hot rolling to obtain a strip d) cold rolling the strip obtained in step c) with a total reduction of at least 90%, preferably > 95% resulting in a strip having a first proof stress value, e) followed by a heat treatment to the delivery temper with the purpose to soften the material to a second proof stress by a tempering without any recrystallisation of the strip alloy, said second proof stress value being 10-50% lower than the first proof stress value obtained directly after cold rolling in step d), preferably 15-40% lower, and lying in the 0.2% proof stress range of 100-200 MPa, more preferably 120-180 MPa, most preferably 140-180 MPa. wherein the sagging resistant strip has a sagging resistance of ≤35 mm when measured on a 0.10 mm thick strip and a 0.2% proof stress value after brazing of at least 60 MPa. a) casting a melt comprising: 0.3-1.5% Si, ≤ 0.5% Fe, ≤ 0.3% Cu 1.0-2.0% Mn, ≤ 0.5% Mg, more preferably ≤ 0.3%, ≤ 4.0% Zn, ≤ 0.5% Ni, ≤ 0.3% each of dispersoid forming elements from group IVb, Vb, or Vlb, and unavoidable impurity elements, each at most 0.05%, in a total amount of at most 0.15%, the rest aluminium, so as to obtain an ingot, 0.3-1.5% Si, ≤ 0.5% Fe, ≤ 0.3% Cu 1.0-2.0% Mn, ≤ 0.5% Mg, more preferably ≤ 0.3%, ≤ 4.0% Zn, ≤ 0.5% Ni, ≤ 0.3% each of dispersoid forming elements from group IVb, Vb, or Vlb, and unavoidable impurity elements, each at most 0.05%, in a total amount of at most 0.15%, the rest aluminium, so as to obtain an ingot, b) preheating the ingot at a temperature of less than 550°C, preferably 400-520°C, more preferably 450-520 °C, especially more than 470 up to 520 °C, so as to form dispersoid particles, c) hot rolling to obtain a strip d) cold rolling the strip obtained in step c) with a total reduction of at least 90%, preferably > 95% resulting in a strip having a first proof stress value, e) followed by a heat treatment to the delivery temper with the purpose to soften the material to a second proof stress by a tempering without any recrystallisation of the strip alloy, said second proof stress value being 10-50% lower than the first proof stress value obtained directly after cold rolling in step d), preferably 15-40% lower, and lying in the 0.2% proof stress range of 100-200 MPa, more preferably 120-180 MPa, most preferably 140-180 MPa.
A method of synchronizing a client clock of a network node to a reference clock, wherein the network node performs the following steps: • receiving from the reference clock synchronization data indicative of a time and/or a frequency of the reference clock, • determining as a function of the synchronization data a comparison value (C1, C2, C11, C12) indicative of a degree of a time and/or a frequency deviation of the client clock with respect to the reference clock, and • determining a synchronization state (S1, S2) out of a free running state and a locked state, based on the comparison value (C1, C2, C11, C12), a first threshold (TH1, TH1'), and a second threshold • wherein a first state transition from the free running state to the locked state is performed as a result of a comparison of the comparison value with the first threshold (TH1, TH1'), and a second state transition from the locked state to the free running state is performed as a result of a comparison of the comparison value with the second threshold, characterized in that • the first threshold (TH1, TH1') is an adaptive value based on measurement variations of the comparison value (C1, C2, C11, C12). • receiving from the reference clock synchronization data indicative of a time and/or a frequency of the reference clock, • determining as a function of the synchronization data a comparison value (C1, C2, C11, C12) indicative of a degree of a time and/or a frequency deviation of the client clock with respect to the reference clock, and • determining a synchronization state (S1, S2) out of a free running state and a locked state, based on the comparison value (C1, C2, C11, C12), a first threshold (TH1, TH1'), and a second threshold • wherein a first state transition from the free running state to the locked state is performed as a result of a comparison of the comparison value with the first threshold (TH1, TH1'), and a second state transition from the locked state to the free running state is performed as a result of a comparison of the comparison value with the second threshold, characterized in that • the first threshold (TH1, TH1') is an adaptive value based on measurement variations of the comparison value (C1, C2, C11, C12).
A remote controlled actuator which comprises a spindle guide section of an elongated configuration, having a distal tip end and a proximal base end, a distal end member fitted to the distal end of the spindle guide section through a distal end member connecting unit for alteration in orientation, a tool rotatably fitted to the distal end member, a tool rotating drive source for rotating the tool, and an orientation altering drive source for manipulating the orientation of the distal end member; wherein the distal end member rotatably supports a spindle for holding the tool; wherein the spindle guide section includes a rotary shaft for transmitting rotation of the tool rotating drive source to the spindle, an outer shell pipe forming an outer shell for the spindle guide section, a guide pipe having a guide hole defined therein, and a flexible orientation altering member reciprocally movably inserted within the guide hole for altering the orientation of the distal end member; wherein the flexible orientation altering member is, while the distal end thereof is held in contact with the distal end member, configured to be selectively advanced and retracted one at a time by the orientation altering drive source.
Thermoplastic adhesive composition containing 1 to 30% by weight, based on the overall composition, of nanoscale particles having superparamagnetic properties.
A compound selected from the group consisting of: a) b) c) wherein R 1 is a C 1 -C 3 alkyl; d) wherein R 1 is a C 1 -C 3 alkyl; and e) wherein R 1 is a C 3 alkyl. a) b) c) wherein R 1 is a C 1 -C 3 alkyl; d) wherein R 1 is a C 1 -C 3 alkyl; and e) wherein R 1 is a C 3 alkyl.
An article of clothing comprising a textile main body and functional elements arranged on the textile main body, characterised in that the article of clothing comprises at least two functional elements (146a, 146b), which are of mutually differing Shore A-hardness.
A nozzle for guiding a metal melt from a first to a second means, comprising a) a refractory, tube-like body with b) an inlet opening at its first end, c) an outlet opening at its second end, d) a conduit, elongate along a central longitudinal axis which is oriented vertically during use, limited by an inner wall of the refractory, tube-like body and extending from said inlet opening to said outlet opening, and e) baffles (30, 32, 34, 36), projecting from said inner wall into the conduit, wherein f) the geometry of the conduit and the baffles (30, 32, 34, 36) is such that a continuous flow passage around the central longitudinal axis being provided for the metal melt between the inlet opening and one single outlet opening, characterized by g) at least one first pair of baffles (30, 32; 34, 36), protruding from opposing sections of the inner wall of the refractory body and leaving the continuous flow passage between them, through which the central longitudinal axis extends and that h) said first pair of baffles (30, 32; 34, 36) has a shape of an inverted V in a front view, and wherein i) the distance between the V-legs of said first pair of baffles (30, 32; 34, 36) increases toward the second end of the nozzle. a) a refractory, tube-like body with b) an inlet opening at its first end, c) an outlet opening at its second end, d) a conduit, elongate along a central longitudinal axis which is oriented vertically during use, limited by an inner wall of the refractory, tube-like body and extending from said inlet opening to said outlet opening, and e) baffles (30, 32, 34, 36), projecting from said inner wall into the conduit, wherein f) the geometry of the conduit and the baffles (30, 32, 34, 36) is such that a continuous flow passage around the central longitudinal axis being provided for the metal melt between the inlet opening and one single outlet opening, characterized by g) at least one first pair of baffles (30, 32; 34, 36), protruding from opposing sections of the inner wall of the refractory body and leaving the continuous flow passage between them, through which the central longitudinal axis extends and that h) said first pair of baffles (30, 32; 34, 36) has a shape of an inverted V in a front view, and wherein i) the distance between the V-legs of said first pair of baffles (30, 32; 34, 36) increases toward the second end of the nozzle.
Electrical device connection line with a cable sheath, in which at least one protective conductor, one neutral conductor and one phase conductor are arranged and a coupling piece (5, 6) can be respectively mounted to both ends thereof, wherein the cable sheath is separated at at least one point and the protective conductor runs separately from the neutral conductor and the phase conductor in the separation point, characterised in that an encapsulation is provided in the region of the separation point, which is provided with an opening and the protective conductor runs separately from the neutral conductor and the phase conductor in the region of the separation point.
A wire grid polarizer, comprising: a substrate (110, 210); a plurality of conductive wire patterns (121, 221) formed in parallel that protrude from a top surface of the substrate (110, 210); first hard mask patterns (131, 231) disposed on the conductive wire patterns (121, 221); and second hard mask patterns (141, 241) disposed on the first hard mask patterns (131, 231), characterized in that a ratio of a taper angle (θ2) of the second hard mask patterns (141, 241) to a taper angle (θ1) of the first hard mask patterns (131, 231) is greater than one, and in that a ratio of a bottom width of the second hard mask patterns to a top width of the first hard mask patterns is less than 1, wherein the taper angle (θ1) of the first hard mask patterns (131, 231) is less than 90 degrees, and wherein the taper angle (θ2) of the second hard mask patterns (141, 241) is greater than 90 degrees. a substrate (110, 210); a plurality of conductive wire patterns (121, 221) formed in parallel that protrude from a top surface of the substrate (110, 210); first hard mask patterns (131, 231) disposed on the conductive wire patterns (121, 221); and second hard mask patterns (141, 241) disposed on the first hard mask patterns (131, 231), characterized in that a ratio of a taper angle (θ2) of the second hard mask patterns (141, 241) to a taper angle (θ1) of the first hard mask patterns (131, 231) is greater than one, and in that a ratio of a bottom width of the second hard mask patterns to a top width of the first hard mask patterns is less than 1, wherein the taper angle (θ1) of the first hard mask patterns (131, 231) is less than 90 degrees, and wherein the taper angle (θ2) of the second hard mask patterns (141, 241) is greater than 90 degrees.
An antibody or fragment thereof having specificity to a human T cell immunoreceptor with Ig and ITIM domains (TIGIT) protein, wherein the antibody or fragment thereof comprises a heavy chain variable region comprising the amino acid sequence of SEQ ID NO: 52 and a light chain variable region comprising the amino acid sequence of SEQ ID NO: 54.
Tofacitinib for use in treating, delaying progression of, or reducing the severity of amyotrophic lateral sclerosis in a subject, the method comprising administering to a subject in need thereof a therapeutically effective amount of tofacitinib.
Building element comprising at least two joists (2; 102; 202) resting on beams and at least one interjoist (6; 106; 206) arranged between said joists, each interjoist is of rectangular cross-section such that opposite corners of each interjoist are received in corresponding corners of the joists, the joists being constituted by one or two section members (4; 104; 204), the building element also including bonding means for bonding the joists to a compression slab (8; 108; 208) of the building element, each section member comprising at least a flange wing extending parallel to the surface of the beams on which the section member rests and a second flange extending perpendicular to the first flange, the joists having an inverted T or I shaped cross-section, the interjoists being housed between the joists so as to rest on the first flanges of the two associated joists and to be framed by the second flanges of said two associated joists.