mhurhangee/ep-ind-claims huggingface dataset:
A device for adapting a transport stream signal (402, 403), wherein the device at least comprises: a video signal pixellation detector; a processor operable in response to detection of pixellation in a video signal by the pixellation detector to instruct a demodulator of a common interface equipment in communication with the device to vary a drive strength of the transport stream signal from which the video signal is derived; and a memory operable to save a value of the drive strength of the transport stream signal for the common interface equipment with which the device is in communication. a video signal pixellation detector; a processor operable in response to detection of pixellation in a video signal by the pixellation detector to instruct a demodulator of a common interface equipment in communication with the device to vary a drive strength of the transport stream signal from which the video signal is derived; and a memory operable to save a value of the drive strength of the transport stream signal for the common interface equipment with which the device is in communication.
A process for producing spinetoram comprising: hydrogenating a mixture of 3'-O-ethyl spinosyn J and 3'-O-ethyl spinosyn L, in the presence of a homogeneous catalyst selected from the group consisting of [Rh(C 2 H 4) 2 Cl] 2, [Rh 2][BF 4], [ RhCl] 2, [Rh 2][OTs], and combinations thereof, at a temperature between 15 °C and 100 °C with a hydrogen gas pressure between 34.5 kPa (5 psig) and 1379 kPa (200 psig), further comprising adding a phosphorus ligand donor, wherein the phosphorus ligand donor comprises tris(3,5-dimethylphenyl)phosphine or is selected from the group consisting of
A method, comprising: determining, at a network entity, a first distance between a first base station and a second base station based on a handover indication received from a user equipment; determining, by the network entity, a second distance between a point of signal loss and a point of signal acquisition of the user equipment; estimating, by the network entity, one or more network coverage areas based upon the first distance and the second distance; and reporting, by the network entity, the estimate to a network operator. determining, at a network entity, a first distance between a first base station and a second base station based on a handover indication received from a user equipment; determining, by the network entity, a second distance between a point of signal loss and a point of signal acquisition of the user equipment; estimating, by the network entity, one or more network coverage areas based upon the first distance and the second distance; and reporting, by the network entity, the estimate to a network operator.
A power conversion apparatus, comprising: an inverter including a plurality of switching elements (Qa, Qb, Qc, Qa', Qb', Qc') corresponding to three phases including a first phase, a second phase and a third phase; a gate driver configured to drive the switching elements (Qa, Qb, Qc, Qa', Qb', Qc') of the inverter; a controller configured to transmit a control signal to the gate driver; and a noise reducer connected to the gate driver and configured to set switching noise occurrence times caused by the switching elements in the respective phases to be different, characterized in that the noise reducer includes resistor-capacitor, RC, filters connected to respective switching elements in the respective phases and at least two of the RC filters have different time constant values such that switching of a switching element on the first phase is performed based on a reference switching time but delayed on the second phase by a predetermined delay time 'a', and switching of a switching element on the third phase is delayed by a predetermined delay time 'b' that differs from the delay time 'a', wherein the noise reducer is connected between the gate driver and the controller, wherein the time constant values are sequentially changed. an inverter including a plurality of switching elements (Qa, Qb, Qc, Qa', Qb', Qc') corresponding to three phases including a first phase, a second phase and a third phase; a gate driver configured to drive the switching elements (Qa, Qb, Qc, Qa', Qb', Qc') of the inverter; a controller configured to transmit a control signal to the gate driver; and a noise reducer connected to the gate driver and configured to set switching noise occurrence times caused by the switching elements in the respective phases to be different, characterized in that the noise reducer includes resistor-capacitor, RC, filters connected to respective switching elements in the respective phases and at least two of the RC filters have different time constant values such that switching of a switching element on the first phase is performed based on a reference switching time but delayed on the second phase by a predetermined delay time 'a', and switching of a switching element on the third phase is delayed by a predetermined delay time 'b' that differs from the delay time 'a', wherein the noise reducer is connected between the gate driver and the controller, wherein the time constant values are sequentially changed.
Brake control system of a mobile work machine, in particular industrial truck, with a braking device designed as a spring-loaded brake, in particular a braking device which operates as a parking brake, wherein the braking device is loadable hydraulically in the direction of a release position by means of a brake release pressure arising in a brake release pressure space, wherein, in order to control the braking device, an electrically actuable brake valve device is connected upstream of the brake release pressure space, and a manual and/or automatic parking brake function and a safety function are achievable by means of the brake valve device, characterized in that the electrically actuable brake valve device has a first electrically actuable control valve, which is designed as a two-position valve and is arranged in a brake release pressure line conducting the brake release pressure, and a blocking position, which is effective in the no current state, and an electrically actuable throughflow position, and comprises a second electrically actuable control valve, which is designed as a two-position valve and is arranged in a container branch line, which branches off from the brake release pressure line between the first control valve and the brake release pressure space (7a; 7b) and is guided to a container, and has a blocking position, which is effective in the no current state, and an electrically actuable throughflow position, wherein, in the no current state, the first control valve connects the brake release pressure space (7a; 7b) to a pressure-dissipating or pressure-maintaining device or to the container.
A method for removing nitrogen oxides in exhaust gas, comprising exhaust gas including nitrogen oxides reacting with a reducing agent, in the presence of a supported catalyst composition comprising: a support; and an silver (Ag)-based compound and aluminum fluoride which are immobilized in the support, wherein the supported catalyst composition comprises 0.5 to 30 wt.% of the aluminum fluoride; 0.1 to 15 wt.% of the Ag-based compound; and a remaining content of the support. a support; and an silver (Ag)-based compound and aluminum fluoride which are immobilized in the support, wherein the supported catalyst composition comprises 0.5 to 30 wt.% of the aluminum fluoride; 0.1 to 15 wt.% of the Ag-based compound; and a remaining content of the support.
A heat exchange catheter comprising: a catheter body having a proximal end, a distal end, an inflow lumen (24 or 26) an outflow lumen (24 or 26); a helically configured heat exchange balloon (28, 28a) connected to the inflow and outflow lumens such that thermal exchange fluid is circulatable through the inflow lumen, through the balloon, and through the outflow lumen, said heat exchange balloon having a wall thickness of less than 0.01651 mm (0.00065 inches) and being collapsible to a collapsed configuration that is insertable into a human subject's vasculature through a tubular introducer that has an outer diameter no larger than 5 mm and, thereafter, expandable to an expanded configuration that has at least 125 cm 2 of blood contacting surface area; and a distal portion of the catheter body, being insertable into a human subject's vasculature while the heat exchange balloon is in its collapsed configuration and, the heat exchange balloon being thereafter expandable to its expanded configuration by circulation of thermal exchange fluid therethrough; the heat exchange balloon, when positioned in the vasculature of an adult human subject in said expanded configuration with cooled thermal exchange fluid being circulated therethrough, being capable of exchanging sufficient heat with that subject's flowing blood to cause the core body temperature of the subject to lower from normothermia to 34 degrees C or less within 30 minutes. a catheter body having a proximal end, a distal end, an inflow lumen (24 or 26) an outflow lumen (24 or 26); a helically configured heat exchange balloon (28, 28a) connected to the inflow and outflow lumens such that thermal exchange fluid is circulatable through the inflow lumen, through the balloon, and through the outflow lumen, said heat exchange balloon having a wall thickness of less than 0.01651 mm (0.00065 inches) and being collapsible to a collapsed configuration that is insertable into a human subject's vasculature through a tubular introducer that has an outer diameter no larger than 5 mm and, thereafter, expandable to an expanded configuration that has at least 125 cm 2 of blood contacting surface area; and a distal portion of the catheter body, being insertable into a human subject's vasculature while the heat exchange balloon is in its collapsed configuration and, the heat exchange balloon being thereafter expandable to its expanded configuration by circulation of thermal exchange fluid therethrough; the heat exchange balloon, when positioned in the vasculature of an adult human subject in said expanded configuration with cooled thermal exchange fluid being circulated therethrough, being capable of exchanging sufficient heat with that subject's flowing blood to cause the core body temperature of the subject to lower from normothermia to 34 degrees C or less within 30 minutes.
A transceiver for transmitting data over a twisted metallic pair using an orthogonal frequency division multiplex technique and employing a time division duplex mode of operation, the transceiver being operable to adopt a four-set framing structure, which structure specifies the structure of a four-set frame, each four-set frame having a frame duration equal to a predetermined frame duration period and comprising first and second downstream sets of contiguous downstream symbols, first and second upstream sets of contiguous upstream symbols and gaps after each of these sets of symbols summing to a total gap duration of an integer number of symbol durations, the downstream sets being interleaved with the upstream sets.
A press frame module comprising: a substantially planar body with opposite faces, an outer edge, and an inner edge, wherein the inner edge defines an opening that extends through the body; and an upper platform and a lower platform coupled to the inner edge and extending at least partially through the opening, each of the platforms (110, 112) having a corresponding outer face, wherein the outer faces are spaced apart by a gap and extend substantially perpendicular to the faces of the body, wherein the platforms (110, 112) and the inner edge of the body collectively define an elongate aperture with a middle portion and two end portions, and the end portions are curved, wherein the press frame module has a first configuration in which the middle portion of the elongate aperture is disposed between the outer faces of the platforms (110, 112), and each of the end portions is defined by a respective portion of the inner edge that forms a multiradial curve, characterized in that: the multiradial curve is symmetrical about a generally horizontal plane that lies along a longitudinal centerline (B--B) of the aperture equidistant between the upper and lower platforms, wherein the multiradial curve includes a first arc located above the outer face of the upper platform, a second arc that extends through said plane, and a third arc located below the outer face of the lower platform and in vertical alignment with the first arc, such that the greatest width of the aperture is along said plane and the end portions have a greater vertical height than the middle portion. a substantially planar body with opposite faces, an outer edge, and an inner edge, wherein the inner edge defines an opening that extends through the body; and an upper platform and a lower platform coupled to the inner edge and extending at least partially through the opening, each of the platforms (110, 112) having a corresponding outer face, wherein the outer faces are spaced apart by a gap and extend substantially perpendicular to the faces of the body, wherein the platforms (110, 112) and the inner edge of the body collectively define an elongate aperture with a middle portion and two end portions, and the end portions are curved, wherein the press frame module has a first configuration in which the middle portion of the elongate aperture is disposed between the outer faces of the platforms (110, 112), and each of the end portions is defined by a respective portion of the inner edge that forms a multiradial curve, characterized in that: the multiradial curve is symmetrical about a generally horizontal plane that lies along a longitudinal centerline (B--B) of the aperture equidistant between the upper and lower platforms, wherein the multiradial curve includes a first arc located above the outer face of the upper platform, a second arc that extends through said plane, and a third arc located below the outer face of the lower platform and in vertical alignment with the first arc, such that the greatest width of the aperture is along said plane and the end portions have a greater vertical height than the middle portion.
A razor blade heating system comprising: at least one electrically conductive blade formed as a unitary body and being structured and disposed for receiving an electric current flow through said unitary body, and having a top side, a bottom side, a front cutting edge, at least one back non-cutting edge having a back surface between the bottom side and the top side, and the top side extending from the front cutting edge to the at least one back non-cutting edge, the bottom side extending from the front cutting edge to the at least one back non-cutting edge, and the at least one electrically conductive blade further including opposite outboard ends; a blade cartridge structured and configured for containing said at least one electrically conductive blade within said cartridge so that the cutting edge is operatively positioned for cutting hairs when the blade cartridge is moved along the skin surface of a user; characterized in that two spaced electrically conductive wires are held in contact with the at least one back non-cutting edge and the back surface of said at least one electrically conductive blade for delivering an electric current from a power source to the at least one back non-cutting edge and into the unitary body defining the at least one electrically conductive blade so that the electric current flows through said at least one electrically conductive blade and said at least one electrically conductive blade is heated across its entire length. at least one electrically conductive blade formed as a unitary body and being structured and disposed for receiving an electric current flow through said unitary body, and having a top side, a bottom side, a front cutting edge, at least one back non-cutting edge having a back surface between the bottom side and the top side, and the top side extending from the front cutting edge to the at least one back non-cutting edge, the bottom side extending from the front cutting edge to the at least one back non-cutting edge, and the at least one electrically conductive blade further including opposite outboard ends; a blade cartridge structured and configured for containing said at least one electrically conductive blade within said cartridge so that the cutting edge is operatively positioned for cutting hairs when the blade cartridge is moved along the skin surface of a user; characterized in that two spaced electrically conductive wires are held in contact with the at least one back non-cutting edge and the back surface of said at least one electrically conductive blade for delivering an electric current from a power source to the at least one back non-cutting edge and into the unitary body defining the at least one electrically conductive blade so that the electric current flows through said at least one electrically conductive blade and said at least one electrically conductive blade is heated across its entire length.
A wear assembly for excavating equipment comprising: a support structure securable to the excavating equipment and characterised by the support structure comprising a first hole and a fulcrum; a wear member being fit onto the support structure and including a second hole in general alignment with the first hole; and a lock including a spool and a tapered wedge inserted into the first and second holes (110; 152) such that the spool engages the fulcrum and the wear member, and rotates about the fulcrum when the wedge is driven into the first and second holes (110; 152) to push the wear member farther onto the support structure. a support structure securable to the excavating equipment and characterised by the support structure comprising a first hole and a fulcrum; a wear member being fit onto the support structure and including a second hole in general alignment with the first hole; and a lock including a spool and a tapered wedge inserted into the first and second holes (110; 152) such that the spool engages the fulcrum and the wear member, and rotates about the fulcrum when the wedge is driven into the first and second holes (110; 152) to push the wear member farther onto the support structure.
A method comprising: storing, by a computing device, a first list of identification data and at least one corresponding action to perform on encrypted communication flows associated with corresponding identification data; receiving, by the computing device, one or more first packets initiating a first encrypted communication flow; determining (1-4, 1-5b), by the computing device and based on first identification data corresponding to the one or more first packets, that the first encrypted communication flow is indicated in the first list; receiving, by the computing device, one or more second packets; based on determining that the one or more second packets are part of the first encrypted communication flow initiated by the one or more first packets, and based on determining that the first encrypted communication flow is indicated in the first list, decrypting the one or more second packets; performing a corresponding action associated with the first encrypted communication flow on the decrypted one or more second packets; re-encrypting, after performing the corresponding action, at least one of the decrypted one or more second packets; and transmitting the re-encrypted at least one of the one more second packets to its intended destination. storing, by a computing device, a first list of identification data and at least one corresponding action to perform on encrypted communication flows associated with corresponding identification data; receiving, by the computing device, one or more first packets initiating a first encrypted communication flow; determining (1-4, 1-5b), by the computing device and based on first identification data corresponding to the one or more first packets, that the first encrypted communication flow is indicated in the first list; receiving, by the computing device, one or more second packets; based on determining that the one or more second packets are part of the first encrypted communication flow initiated by the one or more first packets, and based on determining that the first encrypted communication flow is indicated in the first list, decrypting the one or more second packets; performing a corresponding action associated with the first encrypted communication flow on the decrypted one or more second packets; re-encrypting, after performing the corresponding action, at least one of the decrypted one or more second packets; and transmitting the re-encrypted at least one of the one more second packets to its intended destination.
A method for producing glycoprotein compositions in yeast or filamentous fungal host cells, said glycoprotein compositions having reduced amounts of high mannose glycans, said method comprising reducing or eliminating the presence of alpha-mannosidase resistant glycans on said glycoproteins by modifying the host cell through disruption, deletion or mutation of a gene involved in β-mannosylation of N -glycans, wherein the gene encodes a polypeptide having at least 72% identity to the amino acid sequence set forth in SEQ ID No: 12.
An apparatus for forming a cartilage implant, comprising: a) a pliable metal foil substrate shapeable to substantially conform to one or more contours of a cartilage defect of a subject and capable of retaining its shape; and having a surface from which the implant is released, the one or more contours forming a substrate cavity at least partially surrounded by said surface; and b) a biocompatible carrier disposed in the substrate cavity and having an outer portion in contact with said surface, the carrier comprising human juvenile cartilage particles including viable chondrocytes for combining with the biocompatible carrier, the biocompatible carrier, when congealed, removable from the substrate cavity and defining a size and shape complementing a size and shape of the substrate cavity. a) a pliable metal foil substrate shapeable to substantially conform to one or more contours of a cartilage defect of a subject and capable of retaining its shape; and having a surface from which the implant is released, the one or more contours forming a substrate cavity at least partially surrounded by said surface; and b) a biocompatible carrier disposed in the substrate cavity and having an outer portion in contact with said surface, the carrier comprising human juvenile cartilage particles including viable chondrocytes for combining with the biocompatible carrier, the biocompatible carrier, when congealed, removable from the substrate cavity and defining a size and shape complementing a size and shape of the substrate cavity.
An end cap for elongate lighting modules having an exposed end, wherein the end cap includes: - a body wall applicable against said end, and - at least one peripheral wall for wrapping said end, said at least one peripheral wall extending sidewise of said body wall to form at least one cup-like portion of the cap, wherein: - a filling of adhesive material is provided in said cup-like portion of the cap for sealingly coupling said cap with said end, characterized in that the end cap includes a removable protection layer of said filling of adhesive material. - a body wall applicable against said end, and - at least one peripheral wall for wrapping said end, said at least one peripheral wall extending sidewise of said body wall to form at least one cup-like portion of the cap, wherein: - a filling of adhesive material is provided in said cup-like portion of the cap for sealingly coupling said cap with said end, characterized in that the end cap includes a removable protection layer of said filling of adhesive material.