mhurhangee/ep-ind-claims huggingface dataset:
A screw compressor, in which a pair of intermeshing male and female screw rotors (4, 5) are housed in a rotor chamber formed in a casing, and a gas sucked from an intake channel is compressed by the screw rotors (4, 5) and discharged from a discharge channel, the screw compressor comprising: a columnar space opening at a discharge-side end region of the rotor chamber and provided with a functional end face having an opening into an intermediate pressure section, which is an empty space in the rotor chamber and isolatable from both the intake channel and the discharge channel by the screw rotors (4, 5), and also having an opening into a bypass channel which is communicated with the rotor chamber and the discharge channel, wherein the bypass channel branches from said columnar space; a piston fittingly inserted in said columnar space and brought into contact with said functional end face, to thereby separate said intermediate pressure section from said bypass channel when said piston is brought into contact with said functional end face; and a pressure detection channel communicating with the discharge channel for allowing an area located on an opposite side of said functional end face across said piston in said columnar space to communicate with the discharge channel, wherein the piston is moved by a difference between the pressure on the functional end face side with respect to the piston and the pressure on the side opposite to the functional end face with respect to the piston, and wherein the pressure detection channel is formed on a wall side of the columnar space which is opposite to the functional end face. a columnar space opening at a discharge-side end region of the rotor chamber and provided with a functional end face having an opening into an intermediate pressure section, which is an empty space in the rotor chamber and isolatable from both the intake channel and the discharge channel by the screw rotors (4, 5), and also having an opening into a bypass channel which is communicated with the rotor chamber and the discharge channel, wherein the bypass channel branches from said columnar space; a piston fittingly inserted in said columnar space and brought into contact with said functional end face, to thereby separate said intermediate pressure section from said bypass channel when said piston is brought into contact with said functional end face; and a pressure detection channel communicating with the discharge channel for allowing an area located on an opposite side of said functional end face across said piston in said columnar space to communicate with the discharge channel, wherein the piston is moved by a difference between the pressure on the functional end face side with respect to the piston and the pressure on the side opposite to the functional end face with respect to the piston, and wherein the pressure detection channel is formed on a wall side of the columnar space which is opposite to the functional end face.
A system comprising: a multi-band filterbank configured to split an audio signal (x[n]) for a plurality of frequency bands; a timbre preservation element coupled to the multi-band filterbank and configured to receive a fixed threshold (L b) for each frequency band, to receive the split audio signal (x b [n]) for each frequency band and to compute a time-varying threshold (T b [n]) for each frequency band; and compression function elements (104(a), 104(b),..., 104) coupled to the timbre preservation element, each compression function element (104(a), 104(b),..., 104) being dedicated to a respective frequency band of the plurality of frequency bands and configured to receive the split audio signal (x b [n]) for the respective frequency band, to receive the time-varying threshold (T b [n]) for the respective frequency band, and to compute a gain (g b [n]) for the respective frequency band based on the respective time-varying threshold (T b [n]) for the respective frequency band and the respective split audio signal (x b [n]) for the respective frequency band, wherein the timbre preservation element is configured to compute the time-varying threshold (T b [n]) for a first frequency band of said plurality of frequency bands using an estimated power level for the split audio signal (x b [n]) for a frequency band of said plurality of frequency bands outside the first frequency band. a multi-band filterbank configured to split an audio signal (x[n]) for a plurality of frequency bands; a timbre preservation element coupled to the multi-band filterbank and configured to receive a fixed threshold (L b) for each frequency band, to receive the split audio signal (x b [n]) for each frequency band and to compute a time-varying threshold (T b [n]) for each frequency band; and compression function elements (104(a), 104(b),..., 104) coupled to the timbre preservation element, each compression function element (104(a), 104(b),..., 104) being dedicated to a respective frequency band of the plurality of frequency bands and configured to receive the split audio signal (x b [n]) for the respective frequency band, to receive the time-varying threshold (T b [n]) for the respective frequency band, and to compute a gain (g b [n]) for the respective frequency band based on the respective time-varying threshold (T b [n]) for the respective frequency band and the respective split audio signal (x b [n]) for the respective frequency band, wherein the timbre preservation element is configured to compute the time-varying threshold (T b [n]) for a first frequency band of said plurality of frequency bands using an estimated power level for the split audio signal (x b [n]) for a frequency band of said plurality of frequency bands outside the first frequency band.
A knife mill comprising: a comminution container for receiving material to be comminuted, having a container base and an outer annular wall; a knife rotating in the comminution container above the container base; a drive motor arranged below the container base, for driving the knife; a compactor displaceable in the comminution container for compressing the comminuted material in the comminution container by moving the compactor towards the knife into the comminution container so as to reduce the spacing between the compactor and the knife and thereby reduce the working space occupied by the comminuted material between the compactor and the knife; and a pusher mechanism pushing the compactor towards the knife into the comminution container by subjecting the compactor to a predefined thrust force by the pusher mechanism. a comminution container for receiving material to be comminuted, having a container base and an outer annular wall; a knife rotating in the comminution container above the container base; a drive motor arranged below the container base, for driving the knife; a compactor displaceable in the comminution container for compressing the comminuted material in the comminution container by moving the compactor towards the knife into the comminution container so as to reduce the spacing between the compactor and the knife and thereby reduce the working space occupied by the comminuted material between the compactor and the knife; and a pusher mechanism pushing the compactor towards the knife into the comminution container by subjecting the compactor to a predefined thrust force by the pusher mechanism.
A radio frequency communications device, comprising: - an electronics assembly comprising a ground plane, and a feed port; - an at least partially electrically conductive external enclosure fabricated from metal comprising a main portion enclosing the electronics assembly, a first end cap disposed proximate a first end of the radio frequency communication device and a second end cap of the radio frequency communication device; - the first end cap enclosing: - a first antenna radiator (114, 202, 302) having a feed structure (204, 304) connected to the feed port which first antenna radiator (114, 202, 302) is configured to operate in at least a first frequency band; - the first end cap is connected to the ground plane, at least at a first location thereby forming a first parasitic radiator in a second frequency band, and - said first parasitic radiator is disposed proximate to the first antenna radiator (202, 302) to widen an operating bandwidth of a first multiband antenna apparatus; - the first antenna radiator (202, 302) and the first parasitic radiator form the first multiband antenna apparatus, and; - the second end cap enclosing a diversity antenna apparatus, characterized in that said main portion is connected to the ground plane in at least one location (118, 119, 128, 129) and that said connection of the first end cap to the ground plane is effected via the main portion and that said grounding of the first end cap to the ground plane increases radiation efficiency of the first parasitic radiator. - an electronics assembly comprising a ground plane, and a feed port; - an at least partially electrically conductive external enclosure fabricated from metal comprising a main portion enclosing the electronics assembly, a first end cap disposed proximate a first end of the radio frequency communication device and a second end cap of the radio frequency communication device; - the first end cap enclosing: - a first antenna radiator (114, 202, 302) having a feed structure (204, 304) connected to the feed port which first antenna radiator (114, 202, 302) is configured to operate in at least a first frequency band; - the first end cap is connected to the ground plane, at least at a first location thereby forming a first parasitic radiator in a second frequency band, and - said first parasitic radiator is disposed proximate to the first antenna radiator (202, 302) to widen an operating bandwidth of a first multiband antenna apparatus; - a first antenna radiator (114, 202, 302) having a feed structure (204, 304) connected to the feed port which first antenna radiator (114, 202, 302) is configured to operate in at least a first frequency band; - the first end cap is connected to the ground plane, at least at a first location thereby forming a first parasitic radiator in a second frequency band, and - said first parasitic radiator is disposed proximate to the first antenna radiator (202, 302) to widen an operating bandwidth of a first multiband antenna apparatus; - the first antenna radiator (202, 302) and the first parasitic radiator form the first multiband antenna apparatus, and; - the second end cap enclosing a diversity antenna apparatus,
A one-pack curable silicone gel composition comprising: 100 parts by weight of a branched organopolysiloxane having the average compositional formula: M α M Vi βD γ T δ wherein M is a unit R 1 3 SiO (1/2), M Vi is a unit R 1 2 RSiO (1/2), D is a unit R 1 2 SiO (2/2), T is a unit R 1 SiO (3/2), R is independently an alkenyl group, R 1 is independently an unsubstituted or substituted monovalent hydrocarbon group free of aliphatic unsaturation, α is a positive number of 0.01 to 3.6, β is a positive number of 0.01 to 3.6, α+β is from 0.5 to 5, α/β is from 0.1 to 5, y is a positive number of 10 to 1,600, δ is a positive number of 0.5 to 3, and (α+β)/δ is from 0.8 to 1.7, 0.1 to 50 parts by weight of an organohydrogenpolysiloxane having the general formula: wherein R 1 is as defined above, and z is an integer of 1 to 500, an effective amount of a platinum base catalyst, and a phosphite compound having the general formula: wherein R 2 is a C 1 -C 10 monovalent aliphatic hydrocarbon group, and X is hydrogen or methyl, in such an amount as to provide more than 3 molecules to 15 molecules of the phosphite compound per platinum atom in component. 100 parts by weight of a branched organopolysiloxane having the average compositional formula: M α M Vi βD γ T δ wherein M is a unit R 1 3 SiO (1/2), M Vi is a unit R 1 2 RSiO (1/2), D is a unit R 1 2 SiO (2/2), T is a unit R 1 SiO (3/2), R is independently an alkenyl group, R 1 is independently an unsubstituted or substituted monovalent hydrocarbon group free of aliphatic unsaturation, α is a positive number of 0.01 to 3.6, β is a positive number of 0.01 to 3.6, α+β is from 0.5 to 5, α/β is from 0.1 to 5, y is a positive number of 10 to 1,600, δ is a positive number of 0.5 to 3, and (α+β)/δ is from 0.8 to 1.7, wherein M is a unit R 1 3 SiO (1/2), M Vi is a unit R 1 2 RSiO (1/2), D is a unit R 1 2 SiO (2/2), T is a unit R 1 SiO (3/2), R is independently an alkenyl group, R 1 is independently an unsubstituted or substituted monovalent hydrocarbon group free of aliphatic unsaturation, α is a positive number of 0.01 to 3.6, β is a positive number of 0.01 to 3.6, α+β is from 0.5 to 5, α/β is from 0.1 to 5, y is a positive number of 10 to 1,600, δ is a positive number of 0.5 to 3, and (α+β)/δ is from 0.8 to 1.7, 0.1 to 50 parts by weight of an organohydrogenpolysiloxane having the general formula: wherein R 1 is as defined above, and z is an integer of 1 to 500, an effective amount of a platinum base catalyst, and a phosphite compound having the general formula: wherein R 2 is a C 1 -C 10 monovalent aliphatic hydrocarbon group, and X is hydrogen or methyl, in such an amount as to provide more than 3 molecules to 15 molecules of the phosphite compound per platinum atom in component.
A headgear system for a patient interface for delivery of a supply of pressurised air or breathable gas to an entrance of a patient's airways, the headgear system comprises a pair of headgear clips, each headgear clip configured to be provided to a respective lower headgear strap of a positioning and stabilising structure of the patient interface, each of the headgear clips including a magnet or a ferrite material, the headgear system further comprising a frame comprising: a main body; a pair of upper arms providing a pair of opposing upper headgear connection points at distal ends of the upper arms, each upper headgear connection point being configured for connecting a respective upper headgear strap of the positioning and stabilizing structure of the patient interface, the upper arms being symmetrical and each upper arm extending from an upper portion of the main body, over a cheek and terminating substantially in a middle position between an eye and an ear of the patient in use; and a pair of lower arms extending from a lower portion of the main body and providing a pair of opposing lower headgear connection points at distal ends of the lower arms; wherein each upper arm has a curved profile to fit the profile of the patient's face so as to minimize obstruction and extends outwardly from the patient's face to avoid discomfort; wherein each lower headgear connection point comprises a magnet structured to magnetically interface with the magnet or ferrite material of the respective headgear clip; and wherein each headgear clip is structured to mechanically and magnetically engage the respective lower headgear connection point and allow the headgear clip to rotate relative to the respective lower headgear connection point. a main body; a pair of upper arms providing a pair of opposing upper headgear connection points at distal ends of the upper arms, each upper headgear connection point being configured for connecting a respective upper headgear strap of the positioning and stabilizing structure of the patient interface, the upper arms being symmetrical and each upper arm extending from an upper portion of the main body, over a cheek and terminating substantially in a middle position between an eye and an ear of the patient in use; and a pair of lower arms extending from a lower portion of the main body and providing a pair of opposing lower headgear connection points at distal ends of the lower arms; wherein each upper arm has a curved profile to fit the profile of the patient's face so as to minimize obstruction and extends outwardly from the patient's face to avoid discomfort; wherein each lower headgear connection point comprises a magnet structured to magnetically interface with the magnet or ferrite material of the respective headgear clip; and wherein each headgear clip is structured to mechanically and magnetically engage the respective lower headgear connection point and allow the headgear clip to rotate relative to the respective lower headgear connection point.
A data processing apparatus comprising: an instruction decoder configured to decode a stream of instructions; a data processor configured to process said decoded stream of instructions; wherein said data processor being configured to analyse said stream of instructions and to identify a plurality of adjacent instructions within said stream of instructions execution of which is dependent upon a same data condition, and execution of which when said data condition is not met does not change a value stored in any data register, and in response to identifying said plurality of adjacent instructions said data processor is configured to: commence determining whether said data condition is met or not; and commence processing said plurality of adjacent instructions without waiting for a determination of whether said data condition is met or not; and in response to determining that said data condition is not met; skip to a next instruction to be executed after said plurality of adjacent instructions without executing any intermediate ones of said plurality of adjacent instructions not yet executed and without restoring said value in said data register, and continue execution at said next instruction. an instruction decoder configured to decode a stream of instructions; a data processor configured to process said decoded stream of instructions; wherein said data processor being configured to analyse said stream of instructions and to identify a plurality of adjacent instructions within said stream of instructions execution of which is dependent upon a same data condition, and execution of which when said data condition is not met does not change a value stored in any data register, and in response to identifying said plurality of adjacent instructions said data processor is configured to: commence determining whether said data condition is met or not; and commence processing said plurality of adjacent instructions without waiting for a determination of whether said data condition is met or not; and in response to determining that said data condition is not met; skip to a next instruction to be executed after said plurality of adjacent instructions without executing any intermediate ones of said plurality of adjacent instructions not yet executed and without restoring said value in said data register, and continue execution at said next instruction.
A cDNA encoding a polypeptide that specifically cleaves a non-glycosidic ether bond between a lignin or a derivative thereof and a saccharide, wherein said polypeptide comprises an amino acid sequence having at least about 80 % sequence identity to the amino acid sequence of SEQ ID NO:2 or SEQ ID NO:4.
A multifunctional exercise apparatus for exercise of humans, in particular astronauts, said apparatus comprising a first module comprising a cable reel system operably connected to a torque resistance mechanism, and a second module comprising a flywheel and a brake for providing resistance to the flywheel, characterized in that the first and the second module can be arranged in at least a first position and a second position relative to each other, so that in the first position the torque resistance mechanism of the first module is operably connected to the flywheel of the second module, and in a second position the torque resistance mechanism of the first module is operably independent of the flywheel, when a user pulls a cable of the cable reel system, and in that the first module and the second module are connected by a hinge, for allowing the multifunctional exercise apparatus to be moved between the first and second position. characterized in that the first and the second module can be arranged in at least a first position and a second position relative to each other, so that in the first position the torque resistance mechanism of the first module is operably connected to the flywheel of the second module, and in a second position the torque resistance mechanism of the first module is operably independent of the flywheel, when a user pulls a cable of the cable reel system, and in that the first module and the second module are connected by a hinge, for allowing the multifunctional exercise apparatus to be moved between the first and second position.
A method of positioning and aligning a disruptor adapted for the deactivation of a target and comprising a firing axis, a desired firing direction in terms of position and orientation relative to that target having been determined in advance, the method comprising the steps of • disposing a laser, adapted to emit beams along an aiming line, at a distance from the target, such that the aiming line of the laser is coaxial with the desired firing direction, • interposing the disruptor between the laser and the target, • positioning and orienting the disruptor so as to make the firing axis coaxial with the aiming line of the laser, by means of a flat mirror mounted at the rear of the disruptor and disposed perpendicularly to the axis of that disruptor to send back to the laser a beam which while being coaxial with that aiming line is emitted by the laser and reflected by the mirror onto a mark centered on the firing axis. • disposing a laser, adapted to emit beams along an aiming line, at a distance from the target, such that the aiming line of the laser is coaxial with the desired firing direction, • interposing the disruptor between the laser and the target, • positioning and orienting the disruptor so as to make the firing axis coaxial with the aiming line of the laser, by means of a flat mirror mounted at the rear of the disruptor and disposed perpendicularly to the axis of that disruptor to send back to the laser a beam which while being coaxial with that aiming line is emitted by the laser and reflected by the mirror onto a mark centered on the firing axis.
An avalanche photodiode comprising: a p-contact layer made of a p-type semiconductor; a first light absorption layer formed on the p-contact layer and made of a p-type semiconductor; an avalanche layer formed on the first light absorption layer; a field control layer formed on the avalanche layer; a second light absorption layer formed on the field control layer; an n-contact layer formed on the second light absorption layer and made of an n-type semiconductor; a p-contact connected to the p-contact layer; and an n-contact connected to the n-contact layer, characterized in that only the first light absorption layer is p-type impurity doped at a concentration that does not cause depletion except near an interface between the first light absorption layer and the avalanche layer at an operating voltage. a p-contact layer made of a p-type semiconductor; a first light absorption layer formed on the p-contact layer and made of a p-type semiconductor; an avalanche layer formed on the first light absorption layer; a field control layer formed on the avalanche layer; a second light absorption layer formed on the field control layer; an n-contact layer formed on the second light absorption layer and made of an n-type semiconductor; a p-contact connected to the p-contact layer; and an n-contact connected to the n-contact layer, characterized in that only the first light absorption layer is p-type impurity doped at a concentration that does not cause depletion except near an interface between the first light absorption layer and the avalanche layer at an operating voltage.