mhurhangee/ep-ind-claims huggingface dataset:
An elevator system comprising: a plurality of hoistway doors (10a, 10b, 10c); a corresponding plurality of sets of non-contact switches (12a, 12b, 12c), each set arranged to detect when a respective hoistway door (10a, 10b, 10c) is open; wherein: each set of non-contact switches (12a, 12b, 12c) comprises a first non-contact switch (14a, 14b, 14c) arranged to open when the respective hoistway door (10a, 10b, 10c) is open and a second non-contact switch (16a, 16b, 16c) arranged to open when the respective hoistway door (10a, 10b, 10c) is open; the first non-contact switches (14a, 14b, 14c) of the plurality of sets (12a, 12b, 12c) are connected in series to form a first electrical path and the second non-contact switches (16a, 16b, 16c) of the plurality of sets (12a, 12b, 12c) are connected in series to form a second electrical path; and characterized by further comprising a monitoring device wherein the monitoring device is arranged to measure an electrical property of the first electrical path and an electrical property of the second electrical path to detect when a hoistway door (10a, 10b, 10c) is open. a plurality of hoistway doors (10a, 10b, 10c); a corresponding plurality of sets of non-contact switches (12a, 12b, 12c), each set arranged to detect when a respective hoistway door (10a, 10b, 10c) is open; each set of non-contact switches (12a, 12b, 12c) comprises a first non-contact switch (14a, 14b, 14c) arranged to open when the respective hoistway door (10a, 10b, 10c) is open and a second non-contact switch (16a, 16b, 16c) arranged to open when the respective hoistway door (10a, 10b, 10c) is open; the first non-contact switches (14a, 14b, 14c) of the plurality of sets (12a, 12b, 12c) are connected in series to form a first electrical path and the second non-contact switches (16a, 16b, 16c) of the plurality of sets (12a, 12b, 12c) are connected in series to form a second electrical path; and characterized by further comprising a monitoring device wherein the monitoring device is arranged to measure an electrical property of the first electrical path and an electrical property of the second electrical path to detect when a hoistway door (10a, 10b, 10c) is open.
A substructure for increasing the earthquake resistance of at least one high-voltage component, in particular a choke coil for electric power supply networks, comprising a platform, which is designed for mounting the high-voltage component in a load bearing manner and which platform is suspended by means of at least three tensioning means on a support device of a support structure, wherein the platform is connected to the tensioning means by a first articulated connection, and the tensioning means are connected respectively by a second articulated connection to the support device, which support device is supported on the ground by means of at least three supports, characterized in that, the supports are formed by high-voltage insulators made from an electrically insulating material, which electrically insulate the at least one high-voltage component from ground potential and support it on the ground in a load-bearing manner.
A method of manufacturing a midsole for an article of footwear comprising placing a first preform into a first recess in a first mold member of a mold assembly, the first mold member including a plurality of projections extending upwardly from a bottom surface of the first recess and positioned inwardly from a peripheral edge of the first recess; placing a second preform on the first preform such that interfaces between a top surface of the first preform and a bottom surface of the second preform are positioned adjacent central portions of the projections; closing the mold assembly by positioning a second mold member in contact with the first mold member, the first and second mold members cooperating to define a midsole recess; maintaining the mold assembly for a predetermined period of time at a predetermined temperature such that the first and second preforms bond together to form a first portion and a second portion, respectively, of a sole assembly within the midsole recess; and removing the sole assembly from the mold assembly.
An output-noise reduction device configured to output to a supplying device, an output signal from an electronic device, and to reduce noise mixed in the output signal, the output-noise reduction device comprising: a magnetic body core that is made of a magnetic material and has a through hole; a conducting bar that is made of a conductive material, inserted in the through hole of the magnetic body core, and has one end portion serving as a connection portion to be connected to the electronic device, and another end portion serving as an output portion connectable to the supplying device; a lead frame to which a plurality of capacitive elements are connected, the lead frame being made of a conductive material and fixed to the output portion of the conducting bar; and a molded member that is made of resin material, formed through insert molding, and encapsulates the lead frame, the magnetic body core, and the conducting bar inserted in the magnetic body core, wherein the molded member is made of the resin material of which a molding shrinkage rate after the insert molding is 0.5% or less. a magnetic body core that is made of a magnetic material and has a through hole; a conducting bar that is made of a conductive material, inserted in the through hole of the magnetic body core, and has one end portion serving as a connection portion to be connected to the electronic device, and another end portion serving as an output portion connectable to the supplying device; a lead frame to which a plurality of capacitive elements are connected, the lead frame being made of a conductive material and fixed to the output portion of the conducting bar; and a molded member that is made of resin material, formed through insert molding, and encapsulates the lead frame, the magnetic body core, and the conducting bar inserted in the magnetic body core,
A computer-implemented discrete region-based calling method, comprising: receiving a region delineated by a chromosome, a start marker and an end marker and for each marker within the region: dividing a logarithmic ratio for the marker by an expected responsiveness of the marker to copy number change to generate a phi-transformed logarithmic ratio for the marker; modeling a probability distribution of the phi-transformed logarithmic ratio in one or more of states by calculating an emission probability for each of the states; translating a local path window across the marker to determine a set of possible transition paths through the states and the markers; constructing a local evidence matrix, for each of the markers, comprising a level of evidence for each of the states based on observed data; operating a Viterbi decoder with a transition matrix, the local evidence matrix and a state initial probability vector to generate a state vector comprising the state associated with each of the markers along the most probable path through the local evidence matrix; operating a first segmenter with the state vector to partition segments into a segmentation table of contiguous markers with the same state; operating a second segmenter with the segmentation table and a minimum segment size to merge segments below the minimum segment size into adjoining segments to produce a minimized segmentation table; operating a segmentation finalizer on the minimized segmentation table to convert segment indexes to genomic positions; and summarizing the phi-transformed logarithmic ratio within each segment using the segment's median; and generating a total per-marker value for each segment. dividing a logarithmic ratio for the marker by an expected responsiveness of the marker to copy number change to generate a phi-transformed logarithmic ratio for the marker; modeling a probability distribution of the phi-transformed logarithmic ratio in one or more of states by calculating an emission probability for each of the states; translating a local path window across the marker to determine a set of possible transition paths through the states and the markers; constructing a local evidence matrix, for each of the markers, comprising a level of evidence for each of the states based on observed data; operating a Viterbi decoder with a transition matrix, the local evidence matrix and a state initial probability vector to generate a state vector comprising the state associated with each of the markers along the most probable path through the local evidence matrix; operating a first segmenter with the state vector to partition segments into a segmentation table of contiguous markers with the same state; operating a second segmenter with the segmentation table and a minimum segment size to merge segments below the minimum segment size into adjoining segments to produce a minimized segmentation table; operating a segmentation finalizer on the minimized segmentation table to convert segment indexes to genomic positions; and summarizing the phi-transformed logarithmic ratio within each segment using the segment's median; and generating a total per-marker value for each segment.
A nonwoven fabric comprising a first surface and a second surface and a visually discernible pattern of three-dimensional features on one of the first or second surface (12, 14), each of the three-dimensional features defining a microzone comprising a first region and a second region, the first and second regions (20, 22) having a difference in values for basis weight, wherein the fibers of the nonwoven fabric comprise continuous polymeric fibers, and wherein the polymeric fibers in the second region are substantially completely thermally bonded on one of the first surface or the second surface, wherein the nonwoven fabric is characterized in that the difference in basis weight between the first and second regions (20, 22) is greater than 5 gsm, and in that the polymeric fibers in the second region _are substantially unbonded on the other of the first surface or the second surface.
An air supply device for blowing air into a room, comprising an air feed tube, a box-like casing accommodating said feed tube and having first and second side walls (21, 22) and a third wall (23, 23') therebetween, where a supply air opening is located, and feed openings (31, 32, 33, 34) in said feed tube for feeding supply air via the interior of the casing and via said supply air opening into said room, wherein - said casing is provided with two opposite,parallel, longitudinally extending side pocket portions being formed inside the casing on each side of said supply air opening, adjacent to said first and second side walls (21, 22), respectively, and - said feed openings (31, 32, 33, 34) in said feed tube are located and configured so as to bring the inlet air to flow into said side pocket portions and cause a tornado-like air flow in each side pocket portion, so that the air circulating with high velocity in said tornado-like air flow interacts in said side pocket portions with air sucked in from the room, whereas the net air stream flowing out through said supply opening will be irregular and turbulent and yet steady with a strong momentum, wherein said two side pocket portions and the location and configuration of said feed openings (31, 32, 33, 34) is for causing the supply air in said interior of the casing to flow in a circular pattern and to mix with room air being sucked in through said supply air opening before it is blown into said room, characterised in that each of said side pocket portions is defined by: - a part of said first or second side wall (21, 22) - a part of said third wall and - a flange wall extending along said supply air opening inwardly from said third wall into the interior of said casing. - said casing is provided with two opposite,parallel, longitudinally extending side pocket portions being formed inside the casing on each side of said supply air opening, adjacent to said first and second side walls (21, 22), respectively, and - said feed openings (31, 32, 33, 34) in said feed tube are located and configured so as to bring the inlet air to flow into said side pocket portions and cause a tornado-like air flow in each side pocket portion, so that the air circulating with high velocity in said tornado-like air flow interacts in said side pocket portions with air sucked in from the room, whereas the net air stream flowing out through said supply opening will be irregular and turbulent and yet steady with a strong momentum, - a part of said first or second side wall (21, 22) - a part of said third wall and - a flange wall extending along said supply air opening inwardly from said third wall into the interior of said casing.
An intravenous delivery system comprising: a drip unit having an exterior wall and containing a liquid, the exterior wall having a shelf, wherein the shelf is positioned between a peripheral portion of the exterior wall and a tubing interface positioned below the peripheral portion, the drip unit comprising: a cartridge disposed on the shelf, the cartridge having an outer wall and an inner wall, the outer wall having a first plurality of longitudinal slots, the inner wall having a second plurality of longitudinal slots; and an anti-run-dry membrane having a generally tubular shape retained in the cartridge, the anti-run dry membrane positioned such that the liquid, flowing through the second plurality of slots of the inner wall, passes through the anti-run-dry membrane and then through the first plurality of slots of the outer wall, wherein the anti-run-dry membrane comprises a plurality of pores through which the liquid flows, wherein the anti-run-dry membrane is formed of a hydrophilic material configured to resist passage of air through the pores. a drip unit having an exterior wall and containing a liquid, the exterior wall having a shelf, wherein the shelf is positioned between a peripheral portion of the exterior wall and a tubing interface positioned below the peripheral portion, the drip unit comprising: a cartridge disposed on the shelf, the cartridge having an outer wall and an inner wall, the outer wall having a first plurality of longitudinal slots, the inner wall having a second plurality of longitudinal slots; and an anti-run-dry membrane having a generally tubular shape retained in the cartridge, the anti-run dry membrane positioned such that the liquid, flowing through the second plurality of slots of the inner wall, passes through the anti-run-dry membrane and then through the first plurality of slots of the outer wall, wherein the anti-run-dry membrane comprises a plurality of pores through which the liquid flows, wherein the anti-run-dry membrane is formed of a hydrophilic material configured to resist passage of air through the pores. a cartridge disposed on the shelf, the cartridge having an outer wall and an inner wall, the outer wall having a first plurality of longitudinal slots, the inner wall having a second plurality of longitudinal slots; and an anti-run-dry membrane having a generally tubular shape retained in the cartridge, the anti-run dry membrane positioned such that the liquid, flowing through the second plurality of slots of the inner wall, passes through the anti-run-dry membrane and then through the first plurality of slots of the outer wall, wherein the anti-run-dry membrane comprises a plurality of pores through which the liquid flows, wherein the anti-run-dry membrane is formed of a hydrophilic material configured to resist passage of air through the pores.
An implantable cell culture device comprising two or more individual chambers each having an inner diameter of between 100 μm and 900 μm, wherein each individual chamber comprises a) a core comprising between 1 × 10 4 and 7.5 × 10 5 genetically engineered ARPE-19 cells that produce a therapeutically effective amount of one or more biologically active molecules, b) a semi-permeable membrane surrounding the core that permits the diffusion of the biologically active molecules there through, and c) one or more access ports, wherein the total diameter of the cell culture device is between 0.5 mm and 5.0 mm and the total internal volume of the cell culture device is between 2μl and 100μl. a) a core comprising between 1 × 10 4 and 7.5 × 10 5 genetically engineered ARPE-19 cells that produce a therapeutically effective amount of one or more biologically active molecules, b) a semi-permeable membrane surrounding the core that permits the diffusion of the biologically active molecules there through, and c) one or more access ports,
Sintering furnace for components made of a sintered material, in particular for dental components and in particular for components made of ceramic, comprising a furnace chamber having a chamber volume and a chamber inner surface, wherein a heating device, a receiving space having a gross volume located in the chamber volume and delimited by the heating device and a usable space having a usable volume located within the gross volume are disposed in the furnace chamber, and wherein the furnace chamber comprises a peripheral wall consisting of a plurality of walls and having at least one wall section to be opened for introducing a component to be sintered into the receiving space, characterized in that the heating device in the furnace chamber comprises at least one thermal radiator which has a specific resistance of 0.1 Ωmm 2 /m to 1,000,000 Ωmm 2 /m and a total surface area that is at most 3 times and at least 1.0 times the chamber inner surface.
A rear corner element (1;1') for a roll-up truck bed cover, the rear corner element (1;1') has a mounting part (3;3') and a cover part (2;2'), the mounting part (3;3') has - a base mounting part (4;4') adapted for being secured on top of the rear end of a side wall of the truck bed in elongation of a coupling rail adapted for mounting a roll-up truck bed cover to said side wall of the truck bed, - a first front end part (5;5') configured to be assembled to a free rear end of the coupling rail in lengthwise extension of said coupling rail, which first front end part (5;5') has at least one rainwater inlet (17,40) adapted for alignment with at least one rainwater drain channel of the coupling rail, - a first rear end part (6;6') opposite the first front end part (5;5'), and at least one rainwater diverting channel and/or chamber extending lengthwise of the mounting part (3;3') from the at least one rainwater inlet (17,40) towards the first rear end part (6;6') characterized in that the rear corner element (1;1') guides rainwater that gathers in the coupling rail from above and from the top face of the truck bed cover out along a rear end wall of the truck bed. the mounting part (3;3') has - a base mounting part (4;4') adapted for being secured on top of the rear end of a side wall of the truck bed in elongation of a coupling rail adapted for mounting a roll-up truck bed cover to said side wall of the truck bed, - a first front end part (5;5') configured to be assembled to a free rear end of the coupling rail in lengthwise extension of said coupling rail, which first front end part (5;5') has at least one rainwater inlet (17,40) adapted for alignment with at least one rainwater drain channel of the coupling rail, - a first rear end part (6;6') opposite the first front end part (5;5'), and - a base mounting part (4;4') adapted for being secured on top of the rear end of a side wall of the truck bed in elongation of a coupling rail adapted for mounting a roll-up truck bed cover to said side wall of the truck bed, - a first front end part (5;5') configured to be assembled to a free rear end of the coupling rail in lengthwise extension of said coupling rail, which first front end part (5;5') has at least one rainwater inlet (17,40) adapted for alignment with at least one rainwater drain channel of the coupling rail, - a first rear end part (6;6') opposite the first front end part (5;5'), and at least one rainwater diverting channel and/or chamber extending lengthwise of the mounting part (3;3') from the at least one rainwater inlet (17,40) towards the first rear end part (6;6') characterized in that the rear corner element (1;1') guides rainwater that gathers in the coupling rail from above and from the top face of the truck bed cover out along a rear end wall of the truck bed.
Extrusion blow molded article comprising a polypropylene composition comprising (a) heterophasic propylene copolymer (RAHECO) comprising a matrix being a random propylene copolymer (R-PP), an elastomeric propylene copolymer being dispersed in said matrix, and (b) a polyethylene, wherein further (i) said polypropylene composition and/or said heterophasic propylene copolymer (RAHECO) is/are α-nucleated, (ii) said heterophasic propylene copolymer (RAHECO) has a melt flow rate MFR2 (230°C, 2.16 kg load) measured according to ISO 1133 in the range of equal or more than 0.5 to equal or below 6.0 g/10min, (iii) said random propylene copolymer (R-PP) has a comonomer content in the range of equal or more than 1.5 to equal or below 7.0 wt.-%, and (iv) the weight ratio between the heterophasic propylene copolymer (RAHECO) and the polyethylene is in the range of 3/1 to 13/1. (a) heterophasic propylene copolymer (RAHECO) comprising a matrix being a random propylene copolymer (R-PP), an elastomeric propylene copolymer being dispersed in said matrix, and a matrix being a random propylene copolymer (R-PP), an elastomeric propylene copolymer being dispersed in said matrix, (b) a polyethylene, (i) said polypropylene composition and/or said heterophasic propylene copolymer (RAHECO) is/are α-nucleated, (ii) said heterophasic propylene copolymer (RAHECO) has a melt flow rate MFR2 (230°C, 2.16 kg load) measured according to ISO 1133 in the range of equal or more than 0.5 to equal or below 6.0 g/10min, (iii) said random propylene copolymer (R-PP) has a comonomer content in the range of equal or more than 1.5 to equal or below 7.0 wt.-%, and (iv) the weight ratio between the heterophasic propylene copolymer (RAHECO) and the polyethylene is in the range of 3/1 to 13/1.
A photocontrol with a surge protecting function, comprising: a photocontrol unit, a surge protection unit (2A,2B), and a photocontrol base; wherein the photocontrol unit includes a plug; the photocontrol base includes a socket corresponding to the plug; wherein the photocontrol unit is connected to the surge protection unit (2A, 2B) to form a whole, the formed whole being connected to the photocontrol base; characterized in that the surge protection unit (2A, 2B) is connected in parallel to a phase line (Lin) terminal and a neutral line terminal of the photocontrol unit, a ground line terminal of the surge protection unit (2A,2B) is connected to a conductive part on the photocontrol base by at least one ground connector, and the conductive part is connected to ground, wherein the ground line terminal of the surge protection unit (2A,2B) is connected to the ground through the conductive part and the at least one ground connector the ground connector includes a lock cover, a spring, and a ground connector push rod that are sequentially connected; the conductive part on the photocontrol base is a mounting screw; and the push rod of the ground connector is connected to the head of the mounting screw in a contact manner.