mhurhangee/patent-ind-claim-en huggingface dataset:
A resource indication method, comprising: receiving (S320) first indication information, wherein the first indication information indicates a mapping type of a physical shared channel, and the mapping type of the physical shared channel is mapping type A or mapping type B; and determining (S330) time domain positions occupied by a demodulation reference signal, DMRS, in a resource unit according to the mapping type of the physical shared channel; under different mapping types, the time domain positions occupied by the DMRS in the resource unit are determined based on different parameters in a manner comprising: in response to that the mapping type of the physical shared channel is the mapping type A, the time domain positions occupied by the DMRS, in the resource unit are determined based on a position index of a last symbol occupied by the physical shared channel in the resource unit; in response to that the mapping type of the physical shared channel is the mapping type B, the time domain positions occupied by the DMRS in a resource unit are determined based on a quantity of symbols occupied by the physical shared channel in the resource unit. receiving (S320) first indication information, wherein the first indication information indicates a mapping type of a physical shared channel, and the mapping type of the physical shared channel is mapping type A or mapping type B; and determining (S330) time domain positions occupied by a demodulation reference signal, DMRS, in a resource unit according to the mapping type of the physical shared channel; under different mapping types, the time domain positions occupied by the DMRS in the resource unit are determined based on different parameters in a manner comprising: in response to that the mapping type of the physical shared channel is the mapping type A, the time domain positions occupied by the DMRS, in the resource unit are determined based on a position index of a last symbol occupied by the physical shared channel in the resource unit; in response to that the mapping type of the physical shared channel is the mapping type B, the time domain positions occupied by the DMRS in a resource unit are determined based on a quantity of symbols occupied by the physical shared channel in the resource unit. in response to that the mapping type of the physical shared channel is the mapping type A, the time domain positions occupied by the DMRS, in the resource unit are determined based on a position index of a last symbol occupied by the physical shared channel in the resource unit; in response to that the mapping type of the physical shared channel is the mapping type B, the time domain positions occupied by the DMRS in a resource unit are determined based on a quantity of symbols occupied by the physical shared channel in the resource unit.
Device for generating an air blade barrier between two environments communicating with each other through a passage , said device including a portal structure that defines said passage which extends horizontally between a pair of opposite side uprights of the portal structure , and vertically between an upper crosspiece of the portal structure , which is connected to the upper ends of such uprights , and a base plane , which uprights have an inner cavity connected to said passage and in which an air flow is admitted as a result of the operation of fan means associated with the portal structure , a first upright having at least one inlet opening to allow an air flow to be sucked into said inner cavity from said passage , and a second upright having at least one outlet opening to allow said air flow to exit in order to generate continuously said air blade barrier at said passage , said fan means are incorporated in each of said uprights , each upright comprising both said air flow inlet opening and said air flow outlet opening , whereby at opposite zones of said passage of the portal structure a pair of independent air flows having opposite direction are generated which constitute together a double air blade barrier (34, 36; 46, 48), at least one slidable closure member for closing said passage being associated with the device, characterized in that said slidable closure member consists of a flexible curtain (22; 22, 22a) which is intended to be wound about a motorized rotary shaft extending along the upper crosspiece of the portal structure , each side edge of said flexible curtain (22; 22, 22a) slidably engaging a respective vertical guide rail rigidly connected to a respective upright .
A method for immobilizing arsenic, the method comprising: adding an alkaline solution and an oxidizing agent to a copper-arsenic-containing substance, and thereby carrying out an oxidizing leaching; separating a leach residue by solid-liquid separation; adding calcium hydroxide to a recovered alkaline arsenate solution to generate calcium arsenate; and adding the recovered calcium arsenate to a glass-forming material containing iron, silica and alkaline components so that an iron/silica weight ratio is in a range of 0.5 to 0.9 and an amount of alkaline components is in a range of 14 wt% to 26 wt%, and thereby incorporating the calcium arsenate into a glass solidified body to produce an arsenic-containing glass solidified body, wherein a concentration of arsenic contained in the arsenic-containing glass solidified body is in a range of 5 wt% to 15 wt%. adding an alkaline solution and an oxidizing agent to a copper-arsenic-containing substance, and thereby carrying out an oxidizing leaching; separating a leach residue by solid-liquid separation; adding calcium hydroxide to a recovered alkaline arsenate solution to generate calcium arsenate; and adding the recovered calcium arsenate to a glass-forming material containing iron, silica and alkaline components so that an iron/silica weight ratio is in a range of 0.5 to 0.9 and an amount of alkaline components is in a range of 14 wt% to 26 wt%, and thereby incorporating the calcium arsenate into a glass solidified body to produce an arsenic-containing glass solidified body, wherein a concentration of arsenic contained in the arsenic-containing glass solidified body is in a range of 5 wt% to 15 wt%.
A lidded device of a food processor, the lidded device comprising a bowl and a lid of the bowl , the bowl being provided with a safety mechanism , the lidded device further comprising a fastener attached to the lid , wherein the fastener is horizontally rotatable with respect to the lid between a first extreme position and a second extreme position ; when the fastener is at the first extreme position , the lid precisely covers the bowl , and the safety mechanism is in a locking state to prevent the food processor from being started; and when the fastener is at the second extreme position , the lid is locked to the bowl , and the safety mechanism is in an unlocking state, allowing the food processor to be started, characterized in that the fastener comprises at least two fastening members .
An apparatus, comprising means for: providing an audio capture event wherein one or more microphone configurations are configured to provide one or more audio signals based on at least one acoustic signal from at least one acoustic source, at least one of the one or more microphone configurations being defined with a first position of a first microphone on a first portion of the apparatus defining a first audio channel and a second position of a second microphone on a second portion of the apparatus defining a second audio channel, the second portion being movable relative to the first portion; determining an optimal microphone configuration for the audio capture event using a directional analysis based on a correlation between the first and second audio channels defined with the first position of the first microphone and the second position of the second microphone; and providing a feedback to a user regarding the optimal microphone configuration for the audio capture event for subsequent adjustment of the first position of the first microphone and the second position of the second microphone. providing an audio capture event wherein one or more microphone configurations are configured to provide one or more audio signals based on at least one acoustic signal from at least one acoustic source, at least one of the one or more microphone configurations being defined with a first position of a first microphone on a first portion of the apparatus defining a first audio channel and a second position of a second microphone on a second portion of the apparatus defining a second audio channel, the second portion being movable relative to the first portion; determining an optimal microphone configuration for the audio capture event using a directional analysis based on a correlation between the first and second audio channels defined with the first position of the first microphone and the second position of the second microphone; and providing a feedback to a user regarding the optimal microphone configuration for the audio capture event for subsequent adjustment of the first position of the first microphone and the second position of the second microphone.
A chain track for use in a forest machine or another work machine, or in their trailers on one or more tyres, the chain track being arranged to cover the tyre or tyres in their entirety, said chain track having grouser shoes comprising a body having an inner surface (lab) seating against the tyre or tyres, an outer surface , two opposite sides (lac) extending in a transverse direction of the chain track, and two opposite ends extending in a longitudinal direction of the chain track, and opposite side guides seating on opposite side surfaces of the tyre or tyres, characterised in that each side guide comprises a body extending obliquely downwards along the side surface of the tyre or tyres and a fastening loop on each side of the body in the longitudinal direction of the chain track, said body comprising further a tip extending beyond said fastening loop , adjacent grouser shoes being connected to each other via a combiner extending between adjacent fastening loops in the side guides , a distance between the inner surface of the body of the grouser shoe and a centre line of the fastening loop being 15 - 35 mm as measured from the inner surface (lab) of the body of the grouser shoe .
A balloon assembly comprising a balloon having an inflated configuration; a template having an outer surface and extending along at least a portion of the balloon for at least a portion of its length and having an upper distension limit; characterized in that the template includes at least one aperture that increases in size upon inflation of the balloon and a therapeutic agent contained within the at least one aperture prior to inflation of the balloon, wherein the therapeutic agent is conveyed out of the at least one aperture upon the balloon extending through the at least one aperture in the inflated configuration.
Plastics processing machine, in particular injection moulding machine, comprising a first component which is arranged to be displaceable relative to a second component in a translatory direction (T), wherein at least one screw drive is provided for carrying out a relative translatory movement, wherein the screw drive comprises a threaded nut which is connected to one of the two components , and comprises a threaded spindle which is connected directly or indirectly to the other of the two components , wherein the threaded nut has a first axial end region and a second axial end region , wherein a seal is arranged in the first axial end region of the threaded nut , which seal prevents lubricant from escaping from the threaded nut , and wherein a feed element for the addition of lubricant is arranged adjacent to the first axial end region of the threaded nut , with which lubricant can be fed into the interior of the threaded nut , wherein a collecting element for collecting used lubricant is arranged at the second axial end region of the threaded nut , characterized in that a wiper is arranged in the second axial end region of the threaded nut , which impedes lubricant to escape from the threaded nut , wherein the feed element being arranged at an axial distance (a) from the first axial end region of the threaded nut which is less than 25 % of the axial distance between the seal and the wiper , and wherein the collecting element is designed as a pot-shaped structure which is fastened with its open end to the second axial end region of the threaded nut .
Tumble dryer or washer-dryer , comprising a drum which is designed to hold laundry to be dried, and comprising a housing by which the drum is rotatably received, the housing having at least one active oscillating circuit part , and the drum having at least one passive oscillating circuit part , characterised in that the passive oscillating circuit part has a temperature-dependent, frequency-influencing component (R2), the active oscillating circuit part and the passive oscillating circuit part are designed to jointly form an oscillating circuit of which the resonance frequency depends on the temperature of the drum via the temperature-dependent, frequency-influencing component (R2), the active oscillating circuit part is connected to a control unit in a signal-transmitting manner, and the control unit is designed to determine the temperature of the drum , preferably of a drum casing , from a time curve and/or from a frequency curve of the oscillation of the oscillating circuit .
A thermoplastic resin composition, comprising: 100 parts by weight of a base resin that comprises an acrylic graft copolymer and an acrylic non-graft copolymer; and greater than 0.3 parts by weight and less than 1.2 parts by weight of a zinc-based antimicrobial agent, wherein the zinc-based antimicrobial agent has an average particle diameter of greater than 3 μm to 30 μm, wherein the zinc-based antimicrobial agent is a zinc-supported inorganic support. 100 parts by weight of a base resin that comprises an acrylic graft copolymer and an acrylic non-graft copolymer; and greater than 0.3 parts by weight and less than 1.2 parts by weight of a zinc-based antimicrobial agent, wherein the zinc-based antimicrobial agent has an average particle diameter of greater than 3 μm to 30 μm, wherein the zinc-based antimicrobial agent is a zinc-supported inorganic support.
An airplane including at least two wings projecting with a sweep axis from a body, each wing including a wing-tip profile comprising a closed-loop form enclosing an area, wherein a wing chord plane intersects the enclosed area of the closed-loop form, and wherein the closed-loop form is a spiroid, and wherein the spiroid originates at the wing along the leading edge at a point A, the spiroid is a planar projection directed generally downward, toward the tail of the plane, and away from the plane body at a cant angle φ 2 to a point B, spiroid section A-B between point A and point B being swept toward the tail of the plane at the same or a greater angle than the sweep angle of the wing; wherein the spiroid then extends from the point B horizontal and extends along the wing sweep axis toward a point C; wherein the spiroid then projects from a point C to a point D vertically, is swept toward the rear of the plane by an angle Λ; wherein the next section of the spiroid extends from the point D to a point E horizontal toward the plane body; wherein the spiroid, in a final section from the point E to a point F, closes the loop by projecting downward and toward the plane body and toward the plane nose so that the trailing edge of said final section E-F meets with the trailing edge of the wing; whereby the minimal chord length along the spiroid is near the transition at point D; and whereby the sections A-B and E-F are tapered and close the spiroid loop by overlapping the ends in an offset configuration as seen from above. wherein the spiroid then extends from the point B horizontal and extends along the wing sweep axis toward a point C; wherein the spiroid then projects from a point C to a point D vertically, is swept toward the rear of the plane by an angle Λ; wherein the next section of the spiroid extends from the point D to a point E horizontal toward the plane body; wherein the spiroid, in a final section from the point E to a point F, closes the loop by projecting downward and toward the plane body and toward the plane nose so that the trailing edge of said final section E-F meets with the trailing edge of the wing; whereby the minimal chord length along the spiroid is near the transition at point D; and whereby the sections A-B and E-F are tapered and close the spiroid loop by overlapping the ends in an offset configuration as seen from above.
Bicycle tyre , comprising a carcass structure and a tread band applied in a radially outer position with respect to the carcass structure , wherein the tread band comprises a crown portion extending astride of an equatorial plane (X) of the tyre and having a predetermined radius of curvature (R1), and a pair of lateral portions arranged on axially opposite sides with respect to the crown portion , characterised in that each of said lateral portions has a second radius of curvature (R2) greater than said first radius of curvature (R1) and in that the bicycle tyre has a weight comprised between about 0.25 Kg and about 1.4 Kg, the extreme values being included.
An apparatus suitable for detecting X-rays, comprising: an X-ray absorption layer comprising an electrode; a first voltage comparator configured to compare a voltage of the electrode to a first threshold; a second voltage comparator configured to compare the voltage to a second threshold; a counter configured to register a number of X-ray photons absorbed by the X-ray absorption layer; a controller ; wherein the controller is configured to start a time delay from a time at which the first voltage comparator determines that an absolute value of the voltage equals or exceeds an absolute value of the first threshold; wherein the controller is configured to activate the second voltage comparator during the time delay; wherein the controller is configured to cause the number registered by the counter to increase by one, if the second voltage comparator determines that an absolute value of the voltage equals or exceeds an absolute value of the second threshold. an X-ray absorption layer comprising an electrode; a first voltage comparator configured to compare a voltage of the electrode to a first threshold; a second voltage comparator configured to compare the voltage to a second threshold; a counter configured to register a number of X-ray photons absorbed by the X-ray absorption layer; a controller ; wherein the controller is configured to start a time delay from a time at which the first voltage comparator determines that an absolute value of the voltage equals or exceeds an absolute value of the first threshold; wherein the controller is configured to activate the second voltage comparator during the time delay; wherein the controller is configured to cause the number registered by the counter to increase by one, if the second voltage comparator determines that an absolute value of the voltage equals or exceeds an absolute value of the second threshold.
A robot controller for controlling the operation of a robot unit , which robot unit comprises a plurality of robot arms (5a-c) that each comprises at least one motion mechanism (7a-d, 8) adapted to set the robot arm (5a-c) in motion, wherein a tool of the robot unit is adapted to be moved along an operational path , the robot controller being adapted to determine the kinetic energy subjected to each motion mechanism (7a-d, 8) of the robot arms (5a-c), and, on basis of the determined kinetic energies, control the speed of each motion mechanism (7a-d, 8), while maintaining a movement of the tool along the operational path , so that said kinetic energy subjected to each motion mechanism does not exceed a certain level, characterized in that said certain level of said kinetic energy is the same for at least two motion mechanisms.
Nanodevice for the controlled release of substances which comprises a support coated with oligosaccharides, wherein said oligosaccharides comprise at least 3 units of monosaccharides, and wherein all of the monosaccharides are galactose.
A method of generating haptic effects during a group event having users in an audience/group for said group event, the method comprising: receiving an identity of a first type of haptic effect to be broadcast during the group event, wherein the group event comprises haptic events; and broadcasting the first type of haptic effect to a first set of the users, wherein the first set of the users is determined based on a location of each of the first set of the users, wherein the broadcasting causes the first type of haptic effect to be generated on a device corresponding to each of the first set of the users; and wherein the first type of haptic effect is generated during one of the haptic events. receiving an identity of a first type of haptic effect to be broadcast during the group event, wherein the group event comprises haptic events; and broadcasting the first type of haptic effect to a first set of the users, wherein the first set of the users is determined based on a location of each of the first set of the users, wherein the broadcasting causes the first type of haptic effect to be generated on a device corresponding to each of the first set of the users; and wherein the first type of haptic effect is generated during one of the haptic events.