mhurhangee/ep-ind-claims huggingface dataset:
A die cut preform for a container, comprising: four or more base layers (24A, 24B, 24C, 24D) for forming a generally rectangular base of the container; including a first base layer having a first pair of peripheral edges and a second pair of peripheral edges; a first pair of opposing spaced apart side wall layers for forming a first side wall and a second side wall, each projecting from respective edges of the first pair of peripheral edges; a second pair of opposing spaced apart side wall layers for forming a third side wall and a fourth side wall, each projecting from respective edges of the second pair of peripheral edges and being connected with the first pair of opposing spaced apart side walls to define four corners; a first gusset connecting the first side wall layer of the first side wall to a first side wall layer of the third side wall; and a second gusset connecting the first side wall layer of the first side wall to a first side wall layer of the fourth side wall, wherein the first and second gusset are each arranged for folding into one of the side walls, wherein the four or more base layers includes a second base layer, a third base layer, and a fourth base layer each attached to the first base layer by wall layers (26A, 26B); wherein each base layer has an edge that is connected to a side wall; characterized in that the second base layer is connected to the first base layer by four side wall layers including a first side wall layer, a second side wall layer, a third side wall layer, and a fourth side wall layer, which are connected by sequential folds so that the fourth side wall layer is directly connected to the first and third side wall layers and the third side wall layer is directly connected to the second and fourth side wall layers, wherein two side wall layers have a common edge, and the first side wall layers are directly connected to the first base layer and the second side wall layer is directly connected with the second base layer. four or more base layers (24A, 24B, 24C, 24D) for forming a generally rectangular base of the container; including a first base layer having a first pair of peripheral edges and a second pair of peripheral edges; a first pair of opposing spaced apart side wall layers for forming a first side wall and a second side wall, each projecting from respective edges of the first pair of peripheral edges; a second pair of opposing spaced apart side wall layers for forming a third side wall and a fourth side wall, each projecting from respective edges of the second pair of peripheral edges and being connected with the first pair of opposing spaced apart side walls to define four corners; a first gusset connecting the first side wall layer of the first side wall to a first side wall layer of the third side wall; and a second gusset connecting the first side wall layer of the first side wall to a first side wall layer of the fourth side wall, wherein the first and second gusset are each arranged for folding into one of the side walls,
A method of performing a digital assay, the method comprising: amplifying nucleic acid in partitions to generate a first amplicon and a second amplicon of respective different lengths and each bound by a same reporter in the partitions in direct relation to the different length of each amplicon, wherein each amplicon is amplified from a respective template that is present in the partitions at limiting dilution before the step of amplifying; collecting data from the partitions representing light emitted by the reporter; and distinguishing generation of the first amplicon from generation of the second amplicon in individual partitions based on the data. amplifying nucleic acid in partitions to generate a first amplicon and a second amplicon of respective different lengths and each bound by a same reporter in the partitions in direct relation to the different length of each amplicon, wherein each amplicon is amplified from a respective template that is present in the partitions at limiting dilution before the step of amplifying; collecting data from the partitions representing light emitted by the reporter; and distinguishing generation of the first amplicon from generation of the second amplicon in individual partitions based on the data.
A method, comprising: receiving a request for a data from a client computer; obtaining an identifier of a virtual machine, said virtual machine identifier associated with said data; and providing said virtual machine identifier to the client computer, characterized by the client computer spawning a virtual machine in accordance with said virtual machine identifier; and verifying whether the client computer spawned a virtual machine in accordance with said virtual machine identifier. receiving a request for a data from a client computer; obtaining an identifier of a virtual machine, said virtual machine identifier associated with said data; and providing said virtual machine identifier to the client computer, characterized by the client computer spawning a virtual machine in accordance with said virtual machine identifier; and verifying whether the client computer spawned a virtual machine in accordance with said virtual machine identifier.
An integrated circuit for implementing at least a portion of a personal audio device, comprising: an output adapted to provide a signal to a transducer (SPKR) including both source audio for playback to a listener and an anti-noise signal for countering the effects of ambient audio sounds in an acoustic output of the transducer (SPKR); a reference microphone input adapted to receive a reference microphone signal indicative of the ambient audio sounds; an error microphone input adapted to receive an error microphone signal indicative of the acoustic output of the transducer (SPKR); and a processing circuit configured to adaptively generate the anti-noise signal from the reference microphone signal such that the anti-noise signal causes substantial cancellation of the ambient audio sounds, wherein the processing circuit is further configured to monitor a level of the anti-noise signal, to determine that the anti-noise signal may cause damage to the transducer (SPKR) and to adjust the generation of the anti-noise signal such that damage to the transducer (SPKR) is prevented, wherein the processing circuit implements an adaptive filter having a response that shapes the anti-noise signal to reduce the presence of the ambient audio sounds in the error microphone signal, characterised in that the processing circuit, in response to determining that the anti-noise signal may cause damage to the transducer (SPKR), is configured to freeze adaptation of the adaptive filter. an output adapted to provide a signal to a transducer (SPKR) including both source audio for playback to a listener and an anti-noise signal for countering the effects of ambient audio sounds in an acoustic output of the transducer (SPKR); a reference microphone input adapted to receive a reference microphone signal indicative of the ambient audio sounds; an error microphone input adapted to receive an error microphone signal indicative of the acoustic output of the transducer (SPKR); and a processing circuit configured to adaptively generate the anti-noise signal from the reference microphone signal such that the anti-noise signal causes substantial cancellation of the ambient audio sounds, wherein the processing circuit is further configured to monitor a level of the anti-noise signal, to determine that the anti-noise signal may cause damage to the transducer (SPKR) and to adjust the generation of the anti-noise signal such that damage to the transducer (SPKR) is prevented, wherein the processing circuit implements an adaptive filter having a response that shapes the anti-noise signal to reduce the presence of the ambient audio sounds in the error microphone signal, characterised in that the processing circuit, in response to determining that the anti-noise signal may cause damage to the transducer (SPKR), is configured to freeze adaptation of the adaptive filter.
A magnetic input apparatus for a computer device, comprising: a grid pattern including a plurality of regions made of Hall effect material that act as Hall effect sensors elements, wherein each Hall element is selectively coupled to a Hall voltage sensor; one or more magnets of sufficient strength to change a Hall voltage signal measured at one of the Hall elements by the corresponding Hall voltage sensor, wherein a degree of the change of the signal varies with a degree of proximity of the magnet to the corresponding one of the regions; and, a computer processor coupled to the Hall voltage sensor, wherein the computer processor is configured to obtain Hall voltage measurements from the Hall voltage sensor from a plurality of the Hall elements and analyze the measurements to determine a distance of a source of a magnetic field with respect to a plurality of the Hall elements in the grid pattern, and define a three-dimensional position of the source relative to the grid pattern using a triangulation method. a grid pattern including a plurality of regions made of Hall effect material that act as Hall effect sensors elements, wherein each Hall element is selectively coupled to a Hall voltage sensor; one or more magnets of sufficient strength to change a Hall voltage signal measured at one of the Hall elements by the corresponding Hall voltage sensor, wherein a degree of the change of the signal varies with a degree of proximity of the magnet to the corresponding one of the regions; and, a computer processor coupled to the Hall voltage sensor, wherein the computer processor is configured to obtain Hall voltage measurements from the Hall voltage sensor from a plurality of the Hall elements and analyze the measurements to determine a distance of a source of a magnetic field with respect to a plurality of the Hall elements in the grid pattern, and define a three-dimensional position of the source relative to the grid pattern using a triangulation method.
A security document having a window region 2. (5, 6, 6a, 6b, 7a, 7b, 7c) and a non-window region, the window region being of lower opacity than the non-window region, and comprising a transparent polymer layer (2, 20, 21, 22, 23, 24, 25) at least in the window region of the security document the transparent polymer layer comprising therewithin an internal laser marking (50, 50a, 50b, 51, 52, 53, 54, 55, 56, 57, 58a-g, 58x-z, 59a,b) having an optical effect, 2. characterised in that the internal laser marking does not extend to a surface (2a, 2b, 20a, 20b, 21a, 21b) of the transparent polymer layer, and is surrounded in all directions by portions of the same transparent polymer layer which are not laser marked, and in that the internal laser marking comprises a diffractive structure.
A wireless communication device (101 i) of a group of wireless communication devices configured to communicate with a base station, the wireless communication device (101 i) comprising: a transceiver (101 i -1) configured to receive a token from the base station; and a processor (101 i -2) configured to generate a first data structure on the basis of a function of the token and of a key k i of the wireless communication device (101 i) and a second data structure comprising an identity id i of the wireless communication device (101 i); wherein the transceiver (101 i -1) is further configured to broadcast the first data structure and the second data structure to the group of wireless communication devices and the base station, characterized in that the processor (101 i -2) is further configured to compute the key k i of the wireless communication device (101 i) on the basis of the following equation: k i = H ′ e H id BS, H id i s, r, wherein r is the token, H' and H are cryptographic hash functions, id BS is an identity of the base station, e is a bilinear pairing function, and s is a master key. a transceiver (101 i -1) configured to receive a token from the base station; and a processor (101 i -2) configured to generate a first data structure on the basis of a function of the token and of a key k i of the wireless communication device (101 i) and a second data structure comprising an identity id i of the wireless communication device (101 i); wherein the transceiver (101 i -1) is further configured to broadcast the first data structure and the second data structure to the group of wireless communication devices and the base station, characterized in that the processor (101 i -2) is further configured to compute the key k i of the wireless communication device (101 i) on the basis of the following equation: k i = H ′ e H id BS, H id i s, r, wherein r is the token, H' and H are cryptographic hash functions, id BS is an identity of the base station, e is a bilinear pairing function, and s is a master key.
Massaging knit piece of clothing to be worn by a person, comprising at least an raised active knit portion to be in contact with the skin of the person wearing it to massage the skin, wherein the active portion includes multiple protruding beads designed to massage the skin, the massaging knit piece of clothing is characterized in that, the beads are overall arranged in parallel among each other to be superimposed vertically, so that the active portion forms alternatingly bulges and depressions, each bead has a section with an overall convex shape for which the top is adapted to be pressing against the skin of the person and to massage the skin of the person when the latter is moving about, each bead has the shape of a wave which is sinusoidal overall, and the beads each form a slender bulge that is raised from a bottom face of the piece of clothing, towards the skin of the person wearing it.
Process for producing BTX comprising: (a) subjecting a pyrolysis feedstream comprising hydrocarbons to pyrolysis to produce pyrolysis gasoline and C9+ hydrocarbons; (b) subjecting C9+ hydrocarbons to aromatic ring opening to produce BTX; and (c) recovering BTX from pyrolysis gasoline, wherein the pyrolysis further produces LPG and wherein said LPG produced by pyrolysis is subjected to aromatization to produce BTX. (a) subjecting a pyrolysis feedstream comprising hydrocarbons to pyrolysis to produce pyrolysis gasoline and C9+ hydrocarbons; (b) subjecting C9+ hydrocarbons to aromatic ring opening to produce BTX; and (c) recovering BTX from pyrolysis gasoline,
A multi-layer flexible pipe which may be sunk under great depths of sea for conveying a target fluid such as oil or gas or other such fluid, comprising: a carcass layer arranged to provide an inner bore along which a fluid can flow; at least one barrier layer having a tensile elongation at yield of greater than 5% at a temperature of 23 °C, a hoop strength layer, a tensile strength layer and at least one external fluid barrier layer provided radially outwards of the barrier layer, wherein said barrier layer comprises polyphenylenesulphide. a carcass layer arranged to provide an inner bore along which a fluid can flow; at least one barrier layer having a tensile elongation at yield of greater than 5% at a temperature of 23 °C, a hoop strength layer, a tensile strength layer and at least one external fluid barrier layer provided radially outwards of the barrier layer, wherein said barrier layer comprises polyphenylenesulphide.
Modular belt link, having a leading and a trailing edge (2,3), where a top surface is provided between said leading and trailing edge (2,3), where a plurality of eye parts project from both the leading and trailing edges (2,3), where the eye parts are spaced laterally, and off set such that eye parts on a trailing edge of one belt link may be inserted between eye parts on the leading edge of an adjacent belt link, means are provided for mutually and hingely connecting adjacent belt links, and the eye parts along the trailing and leading edge (2,3) are united with substantially unbroken leading and trailing walls (6,7), arranged perpendicular to the top surface, where said walls (6,7) are spaced, and reinforcing ribs are arranged between said walls (6,7) and the underside of the top surface, characterized in that said reinforcement ribs are arranged at an oblique angle not parallel to the intended transport direction of the belt links.
A sole structure for an article of footwear, the article of footwear having an upper with a lower surface, the sole structure comprising: a resilient midsole configured to secure the lower surface of the upper, the midsole including: a polymer foam material, and a curved plate embedded in the midsole, the curved plate having an undulating medio-lateral curvature, the plate including a first side with a first edge and a first concavity facing downward, a second side with a second edge and a second concavity facing upward, and an inflection region located between the first and second sides (42, 62), the second concavity being positioned between the first concavity and one of a lateral edge of the midsole and a medial edge of the midsole; and a ground-engaging outsole secured to a lower surface of the midsole, wherein the first edge is positioned below a horizontal plane passing through the inflection region, and the second edge is positioned above the horizontal plane when the outsole rests on a horizontal ground surface. a resilient midsole configured to secure the lower surface of the upper, the midsole including: a polymer foam material, and a curved plate embedded in the midsole, the curved plate having an undulating medio-lateral curvature, the plate including a first side with a first edge and a first concavity facing downward, a second side with a second edge and a second concavity facing upward, and an inflection region located between the first and second sides (42, 62), the second concavity being positioned between the first concavity and one of a lateral edge of the midsole and a medial edge of the midsole; and a polymer foam material, and a curved plate embedded in the midsole, the curved plate having an undulating medio-lateral curvature, the plate including a first side with a first edge and a first concavity facing downward, a second side with a second edge and a second concavity facing upward, and an inflection region located between the first and second sides (42, 62), the second concavity being positioned between the first concavity and one of a lateral edge of the midsole and a medial edge of the midsole; and a ground-engaging outsole secured to a lower surface of the midsole, wherein the first edge is positioned below a horizontal plane passing through the inflection region, and the second edge is positioned above the horizontal plane when the outsole rests on a horizontal ground surface.
A medical device for use with a fluid storage container comprising: a hub including a sidewall having an inside surface defining a cavity, an open proximal end, and a distal end having an opening therethrough in fluid communication with the cavity; a first indicating element having a distal end attached to the distal end 169) of the hub and a free proximal end extending into the cavity, the first indicating element forming a peripheral recess with the sidewall of the hub; characterized by a second indicating element disposed in the cavity of the hub including an open proximal end, an open distal end and a body extending from the open proximal end to the open distal end, the body portion having an inside surface defining a hollow interior for enveloping the first indicating element to permit the body to enter the recess of the hub upon application of a distally directed force on the second indicating element, wherein the inside surface of the second indicting element is contoured to form a line contact interaction with the first indicating element upon application of a force on the second indicating element in a distal direction. a hub including a sidewall having an inside surface defining a cavity, an open proximal end, and a distal end having an opening therethrough in fluid communication with the cavity; a first indicating element having a distal end attached to the distal end 169) of the hub and a free proximal end extending into the cavity, the first indicating element forming a peripheral recess with the sidewall of the hub; characterized by a second indicating element disposed in the cavity of the hub including an open proximal end, an open distal end and a body extending from the open proximal end to the open distal end, the body portion having an inside surface defining a hollow interior for enveloping the first indicating element to permit the body to enter the recess of the hub upon application of a distally directed force on the second indicating element, wherein the inside surface of the second indicting element is contoured to form a line contact interaction with the first indicating element upon application of a force on the second indicating element in a distal direction.
A surgical fastener for anchoring medical devices to tissue comprising: first and second legs (26A, 26B) lying in a first plane; third and fourth legs (26C, 26D) lying in a second plane that is orthogonal with the first plane; a bridge interconnecting proximal ends of said legs (26A-26D) for forming a closed end of said surgical fastener; each said leg having the proximal end, a distal end, and an insertion tip with a distal point located at the distal end of said leg; wherein each said leg has an insertion tool alignment guide formed that extends between the proximal and distal ends of said leg and along a longitudinal axis that is aligned with said distal point of said insertion tip, wherein said insertion tool alignment guide is a groove formed in the outer surface of the leg (26A-26D) or a rail or projection provided on the leg. first and second legs (26A, 26B) lying in a first plane; third and fourth legs (26C, 26D) lying in a second plane that is orthogonal with the first plane; a bridge interconnecting proximal ends of said legs (26A-26D) for forming a closed end of said surgical fastener; each said leg having the proximal end, a distal end, and an insertion tip with a distal point located at the distal end of said leg; wherein each said leg has an insertion tool alignment guide formed that extends between the proximal and distal ends of said leg and along a longitudinal axis that is aligned with said distal point of said insertion tip, wherein said insertion tool alignment guide is a groove formed in the outer surface of the leg (26A-26D) or a rail or projection provided on the leg.
A brake system, comprising: a primary brake control unit; and an alternate brake control unit; characterised in that, in response to the primary brake control unit being placed in an active mode, the primary brake control unit is configured to send data on a set of channels to control brake operation of at least one brake (40, 42), while the alternate brake control unit is configured to receive data to monitor brake temperature on another, separate set of channels coupled to at least one brake temperature sensor associated with the at least one brake (40, 42). a primary brake control unit; and an alternate brake control unit; characterised in that, in response to the primary brake control unit being placed in an active mode, the primary brake control unit is configured to send data on a set of channels to control brake operation of at least one brake (40, 42), while the alternate brake control unit is configured to receive data to monitor brake temperature on another, separate set of channels coupled to at least one brake temperature sensor associated with the at least one brake (40, 42).