mhurhangee/ep-ind-claims huggingface dataset:
Stripping device for an aqueous heat transfer fluid for air conditioning, heating and ventilation technology, comprising - a tank with two connections for a circuit carrying a heat transfer fluid, - Means for separating gas bubbles and separating gas components and heat transfer fluid while retaining the liquid in the circuit carrying the heat transfer fluid, from this heat transfer fluid, - furthermore at least one outlet for separated gas components, - an addition device for stripping gas is provided, - an outlet for stripping gas is provided, whereby - a feeding device for heat transfer fluid is provided in the upper area of the container, - a collecting device for heat transfer fluid is provided in the lower area of the container, - the collecting device for heat transfer fluid is connected to an outlet for heat transfer fluid from the container, characterised in that - the outlet for heat transfer fluid from the tank is connected to an automatic heating circuit deaerator, - wherein the automatic heating circuit ventilator is connected to an air extractor. - a tank with two connections for a circuit carrying a heat transfer fluid, - Means for separating gas bubbles and separating gas components and heat transfer fluid while retaining the liquid in the circuit carrying the heat transfer fluid, from this heat transfer fluid, - furthermore at least one outlet for separated gas components, - an addition device for stripping gas is provided, - an outlet for stripping gas is provided, - a feeding device for heat transfer fluid is provided in the upper area of the container, - a collecting device for heat transfer fluid is provided in the lower area of the container, - the collecting device for heat transfer fluid is connected to an outlet for heat transfer fluid from the container, - the outlet for heat transfer fluid from the tank is connected to an automatic heating circuit deaerator, - wherein the automatic heating circuit ventilator is connected to an air extractor.
Method for assisting a driver of a motor vehicle in which during travel the surroundings laterally next to the motor vehicle are sensed in order to detect a parking space (3, 11), and when a parking space (3, 11) is detected a trajectory along which the motor vehicle can park in the parking space (3, 11) is determined, wherein during the parking the surroundings of the motor vehicle are monitored, characterized in that, when a predefined situation is detected, the outputting of the parking space is prohibited for a predefined distance, the parking process is aborted or a warning is output to the driver, wherein the predefined situation in which the outputting of the parking space is prohibited for the predefined distance is sensing of overtaking or oncoming vehicles, detection of a pedestrian crossing, detection of a multi-lane road, detection of an object in the blind spot of the vehicle or detection of an intersection region, wherein the predefined situation in which the parking process is aborted or a warning is output to the driver comprises sensing of a limitation of a transverse parking space by means of pillars.
An inline processing system for processing a plurality of substrates, comprising: a vacuum processing chamber and a susceptor positioned within the processing chamber; a loadlock chamber (410, 415) coupled to one side of the vacuum processing chamber; an exchange station coupled to the loadlock chamber (410, 415) opposite the vacuum processing chamber; an upper hanger (416, 418) comprising drive rails (505, 510) and a plate structured to support a plurality of substrates; a lower hanger (417, 419) comprising drive rails (505, 510) and a plate structured to support a plurality of substrates; and, a transport mechanism structured to move the upper and lower hangers (416, 418, 417, 419) between the exchange station, the loadlock chamber (410, 415) and the vacuum processing chamber, an exchanger mechanism structured to exchange substrates between the upper hanger (416, 418) and the susceptor and between the lower hanger (417, 419) and the susceptor, wherein, the exchanger mechanism comprises a plurality of lift pins, wherein each substrate position has one lift pin, such that the lift pins are positioned for lifting each individual substrate of the plurality of substrates from the upper or lower hanger, and deposit the plurality of substrates onto the susceptor; and a controller programmed to introduce the upper and lower hangers (416, 418, 417, 719) into the vacuum processing chamber for substrate exchange, and to remove the upper and lower hangers (416, 418, 417, 719) out of the vacuum processing chamber prior to processing the substrates inside the vacuum processing chamber. a vacuum processing chamber and a susceptor positioned within the processing chamber; a loadlock chamber (410, 415) coupled to one side of the vacuum processing chamber; an exchange station coupled to the loadlock chamber (410, 415) opposite the vacuum processing chamber; an upper hanger (416, 418) comprising drive rails (505, 510) and a plate structured to support a plurality of substrates; a lower hanger (417, 419) comprising drive rails (505, 510) and a plate structured to support a plurality of substrates; and, a transport mechanism structured to move the upper and lower hangers (416, 418, 417, 419) between the exchange station, the loadlock chamber (410, 415) and the vacuum processing chamber, an exchanger mechanism structured to exchange substrates between the upper hanger (416, 418) and the susceptor and between the lower hanger (417, 419) and the susceptor, wherein, the exchanger mechanism comprises a plurality of lift pins, wherein each substrate position has one lift pin, such that the lift pins are positioned for lifting each individual substrate of the plurality of substrates from the upper or lower hanger, and deposit the plurality of substrates onto the susceptor; and a controller programmed to introduce the upper and lower hangers (416, 418, 417, 719) into the vacuum processing chamber for substrate exchange, and to remove the upper and lower hangers (416, 418, 417, 719) out of the vacuum processing chamber prior to processing the substrates inside the vacuum processing chamber.
A gas fuel injection valve comprising a valve body that has a nozzle member having a valve seat and a nozzle hole extending through a central part of the valve seat, a tubular valve housing formed from a magnetic material and connectedly provided at a rear end of the nozzle member, and a fixed core disposed rearwardly of the valve housing, a valve plunger that is slidably fitted to a sliding guide face on an inner periphery of the valve housing and has joined to a front end thereof a rubber seating member that is seated on the valve seat so as to close the nozzle hole, a return spring that is provided in a compressed state between the fixed core and the valve plunger and urges the valve plunger toward the valve seat side, and a coil that is disposed so as to surround the fixed core and, when energized, generates a magnetic force that attracts the valve plunger to the fixed core and separates the valve plunger from the valve seat, characterized in that a circular recess is formed in a front end face of the valve plunger, the circular recess being surrounded by an annular land part, which is an outer peripheral part of the front end face, an inner peripheral face of the circular recess is formed in a tapered shape so as to increase in diameter in going from a base of the circular recess toward the annular land part, an annular lip is formed on the seating member, the annular lip being joined from the inner peripheral face through to the annular land part and being seated on the valve seat, and the annular lip is disposed so that an annular ridge line of an apex of the annular lip is positioned, in a projection in the axial direction of the valve plunger, above the inner peripheral face.
A convertible carrier (101; 103; 105; 201; 203) comprising: a first carrier unit (101A; 103A; 105A; 201A; 203A) including a first side panel (114A; 212A) and a first medial panel (110A; 120A; 210A) disposed opposed to the first side panel; and a second carrier unit (101B; 103B; 105B; 201B; 203B) including a second side panel (114B; 212B) and a second medial panel (110B; 120B; 210B) disposed opposed to the second side panel, the first and second medial panels being in a face-contacting arrangement to form a medial wall (110A; 110B; 120A; 120B; 210A; 210B) disposed between the first and second side panels, wherein the first and second medial panels are retained in the face-contacting arrangement by at least one hinged connection (149; 149'; 149"; 217) and characterized in that the first and second medial panels are retained in the face-contacting arrangement by at least one removable joint (162A, 162B, 165A, 165B) formed in part from part of the first medial panel and in part from part of the second medial panel, the at least one removable joint (162A, 162B, 165A, 165B) disposed such that the at least one removable joint (162A, 162B, 165A, 165B) is accessible from an outside of the carrier. a first carrier unit (101A; 103A; 105A; 201A; 203A) including a first side panel (114A; 212A) and a first medial panel (110A; 120A; 210A) disposed opposed to the first side panel; and a second carrier unit (101B; 103B; 105B; 201B; 203B) including a second side panel (114B; 212B) and a second medial panel (110B; 120B; 210B) disposed opposed to the second side panel, the first and second medial panels being in a face-contacting arrangement to form a medial wall (110A; 110B; 120A; 120B; 210A; 210B) disposed between the first and second side panels, wherein the first and second medial panels are retained in the face-contacting arrangement by at least one hinged connection (149; 149'; 149"; 217) and characterized in that the first and second medial panels are retained in the face-contacting arrangement by at least one removable joint (162A, 162B, 165A, 165B) formed in part from part of the first medial panel and in part from part of the second medial panel, the at least one removable joint (162A, 162B, 165A, 165B) disposed such that the at least one removable joint (162A, 162B, 165A, 165B) is accessible from an outside of the carrier.
A computer program product, comprising program code for performing combined active noise cancellation and noise compensation in a headphone, wherein the program code is configured to, when executed by a computing device or system, cause said computing device or system to perform the steps of: selecting one of a plurality of first transfer functions based on at least one feature of at least one of an external noise and a content audio signal representing a sound to be reproduced through the headphone; and performing noise compensation by computing a second audio signal by applying the selected first transfer function to a first audio signal; and deriving gains for the noise compensation at least based on the second audio signal, and wherein the at least one feature can be used to distinguish at least two of the first transfer functions, each of the first transfer functions is configured to transform the first audio signal to the second audio signal which is assumed as representing a version of the sound represented by the first audio signal, which arrives at an eardrum of a listener wearing the headphone, and the first audio signal is the content audio signal. selecting one of a plurality of first transfer functions based on at least one feature of at least one of an external noise and a content audio signal representing a sound to be reproduced through the headphone; and performing noise compensation by computing a second audio signal by applying the selected first transfer function to a first audio signal; and deriving gains for the noise compensation at least based on the second audio signal, and wherein the at least one feature can be used to distinguish at least two of the first transfer functions, each of the first transfer functions is configured to transform the first audio signal to the second audio signal which is assumed as representing a version of the sound represented by the first audio signal, which arrives at an eardrum of a listener wearing the headphone, and the first audio signal is the content audio signal.
A resource configuration indication method, the method performed by a terminal device, wherein the method comprises: sending, by the terminal device, time domain resource indication information through a Physical Sidelink Broadcast Channel, PSBCH, wherein the time domain resource indication information is configured to indicate a transmission period combination and a number of time domain resource units and is configured to indicate available transmission resources for sidelink, SL, wherein the SL is a direct communication link between terminal devices, wherein the transmission period combination is a combination of transmission periods, and the number of time domain resource units is configured to indicate a number Ni of available time slots in each of the transmission periods, wherein Ni=Mi*Ki, Mi is the number of time domain resource units, a time domain resource unit comprises Ki time slots, a value of a subcarrier spacing corresponding to the Ki time slots is F, and Ki is a predefined positive integer, wherein F comprises 120KHz or 60 KHz, characterized in that when the transmission period combination does not belong to a first transmission period combination set, Ki=1 and F is 120KHz, wherein the first transmission period combination set comprises transmission period combinations; and when the transmission period combination belongs to the first transmission period combination set, Ki is a predefined positive integer greater than 1 and F is 120KHz, or, Ki=1 and F is 60KHz. sending, by the terminal device, time domain resource indication information through a Physical Sidelink Broadcast Channel, PSBCH, wherein the time domain resource indication information is configured to indicate a transmission period combination and a number of time domain resource units and is configured to indicate available transmission resources for sidelink, SL, wherein the SL is a direct communication link between terminal devices, wherein the transmission period combination is a combination of transmission periods, and the number of time domain resource units is configured to indicate a number Ni of available time slots in each of the transmission periods, wherein Ni=Mi*Ki, Mi is the number of time domain resource units, a time domain resource unit comprises Ki time slots, a value of a subcarrier spacing corresponding to the Ki time slots is F, and Ki is a predefined positive integer, wherein F comprises 120KHz or 60 KHz, characterized in that when the transmission period combination does not belong to a first transmission period combination set, Ki=1 and F is 120KHz, wherein the first transmission period combination set comprises transmission period combinations; and when the transmission period combination belongs to the first transmission period combination set, Ki is a predefined positive integer greater than 1 and F is 120KHz, or, Ki=1 and F is 60KHz.
A method for separating high purity lignin from waste streams, the method comprising: i. removing extractives from the waste steam using by hot water treatment at 70 - 90° C, and repeating the step for 2-5 times; ii. extracting solids obtained in pervious step with a product stream generated during the distillation process of the fermented broth generated after pretreatment of lignocellulosic biomass, enzymatic saccharification and co-fermentation (technical spirit) or fusel oil, and repeating the step 1-2 times to obtain extractive-free lignin rich residue; iii. fractioning extractive-free lignin rich residue obtained in previous step with a solvent in high pressure reactor; iv. separating the slurry obtained in pervious step into solid and liquid fractions. v. washing the solid fraction with solvent of step (iii), followed by washing with water; and vi. combining the wash from step (v) to liquid fraction and recovering the lignin. i. removing extractives from the waste steam using by hot water treatment at 70 - 90° C, and repeating the step for 2-5 times; ii. extracting solids obtained in pervious step with a product stream generated during the distillation process of the fermented broth generated after pretreatment of lignocellulosic biomass, enzymatic saccharification and co-fermentation (technical spirit) or fusel oil, and repeating the step 1-2 times to obtain extractive-free lignin rich residue; iii. fractioning extractive-free lignin rich residue obtained in previous step with a solvent in high pressure reactor; iv. separating the slurry obtained in pervious step into solid and liquid fractions. v. washing the solid fraction with solvent of step (iii), followed by washing with water; and vi. combining the wash from step (v) to liquid fraction and recovering the lignin.
A sliding seal (11, 29, 31, 32) configured to seal an annular gap between a first member and a second member (13, 43) to separate a high-pressure side and a low-pressure side from each other, the first member being movable relative to the second member (13, 43), the sliding seal (11, 29, 31, 32) being arranged at an annular attaching groove provided at the second or first member, the sliding seal (11, 29, 31, 32) comprising: a pressure fluid seal (19, 33) configured to slidingly contact a sliding surface of the first or second member; a lubricant holding piece provided at the high-pressure side of the pressure fluid seal (19, 33), a lubricant storage space being formed between the lubricant holding piece and the pressure fluid seal (19, 33) and storing a lubricant; and a lubricant seal provided at the high-pressure side of the lubricant storage space and configured to slidingly contact the sliding surface; characterized in that the lubricant holding piece has an annular shape and includes a lubricant storage portion on an inner peripheral surface thereof, the lubricant storage portion being an annular groove and communicating with the lubricant storage space; and a crush rate of a lip of the pressure fluid seal (19, 33) is higher than a crush rate of a lip of the lubricant seal. a pressure fluid seal (19, 33) configured to slidingly contact a sliding surface of the first or second member; a lubricant holding piece provided at the high-pressure side of the pressure fluid seal (19, 33), a lubricant storage space being formed between the lubricant holding piece and the pressure fluid seal (19, 33) and storing a lubricant; and a lubricant seal provided at the high-pressure side of the lubricant storage space and configured to slidingly contact the sliding surface; characterized in that the lubricant holding piece has an annular shape and includes a lubricant storage portion on an inner peripheral surface thereof, the lubricant storage portion being an annular groove and communicating with the lubricant storage space; and a crush rate of a lip of the pressure fluid seal (19, 33) is higher than a crush rate of a lip of the lubricant seal.
A connector for use in equestrian equipment, such as bridles, reins, saddles and the like, comprising: an outer loop, formed by an outer loop-forming strap, and an inner loop, formed by an inner loop-forming strap (4111, 4112, 4113, 4114, 4115), which is arranged inside the outer loop, wherein the inner loop is more resilient than the outer loop, such that a connecting member received in the inner loop is resiliently moveable and limited by the outer loop, a buckle (421, 422, 423, 424), by means of which a distal portion of the outer loop forming strap is openably connectable with a proximal portion of the outer loop forming strap, to form said outer loop, wherein the inner loop forming strap (4111, 4112, 4113, 4114, 4115) comprises a resilient portion (4112, 4113) which is formed of an elastically resilient material and a non-elastic portion which is formed of an essentially non-resilient material, and wherein the resilient and non-resilient portions (4112, 4113) are juxtaposed in the longitudinal direction of the inner loop forming strap, characterized in that the part of the inner loop forming strap contacting the connecting member is formed by the non-resilient portion. an outer loop, formed by an outer loop-forming strap, and an inner loop, formed by an inner loop-forming strap (4111, 4112, 4113, 4114, 4115), which is arranged inside the outer loop, wherein the inner loop is more resilient than the outer loop, such that a connecting member received in the inner loop is resiliently moveable and limited by the outer loop, a buckle (421, 422, 423, 424), by means of which a distal portion of the outer loop forming strap is openably connectable with a proximal portion of the outer loop forming strap, to form said outer loop, wherein the inner loop forming strap (4111, 4112, 4113, 4114, 4115) comprises a resilient portion (4112, 4113) which is formed of an elastically resilient material and a non-elastic portion which is formed of an essentially non-resilient material, and wherein the resilient and non-resilient portions (4112, 4113) are juxtaposed in the longitudinal direction of the inner loop forming strap, characterized in that the part of the inner loop forming strap contacting the connecting member is formed by the non-resilient portion.
A particle characterisation apparatus comprising: a sample cell for holding a sample, a light source for producing a light beam for illuminating the sample in the sample cell, thereby producing scattered light by the interaction of the light beam with the sample; a focussing lens for focussing the light beam within the sample; and a detector for detecting the scattered light along a detection optical path that intersects the focussed light beam within the sample, the intersection of the focussed light beam and the detection optical path in the sample defining a detection region; wherein the focussing lens focuses the detection optical path within the sample; wherein the apparatus comprises an optical arrangement for varying the volume of the detection region and the focussing lens is moveable, so as to vary a location of a focal plane of both the light beam and the detection optical path in the sample with movement of the focussing lens so as to vary the position of the detection region within the sample; wherein the optical arrangement for varying the volume of the detection region is operable to vary the light beam width incident on the focussing lens.
A method of multi-link aggregation, characterized by comprising: transmitting, by a station multi-link device, first information to an access point multi-link device, wherein the first information is used for determining at least one target link that the access point multi-link device is required to assist the station multi-link device in monitoring, wherein the access point multi-link device assists the station multi-link device in monitoring whether the at least one target link is in an idle state.