mhurhangee/ep-ind-claims huggingface dataset:
A carrier for a storage bag (1600, 2100) for storing fluids comprising: a base (102, 1200, 1700) and a lid (104, 1100, 1400, 2000), wherein the base and lid (104, 1100, 1400, 2000) each comprise two or more supports (110A-D, 128A-D) configured to contact a peripheral region of a storage bag to reduce stress at edges of the storage bag (1600, 2100), wherein the base (102, 1200, 1700) and the lid (104, 1100, 1400, 2000) are configured such that, in a closed configuration of the carrier, a distance between the base (102, 1200, 1700) and the lid (104, 1100, 1400, 2000) is adjustable based on a fill volume of the storage bag, thereby to allow for maximum contact of the storage bag with the base (102, 1200, 1700) and the lid (104, 1100, 1400, 2000) in the closed configuration; wherein the distance between the base (102, 1200, 1700) and the lid (104, 1100, 1400, 2000) is adaptable in the closed configuration between a contacting position and a floating position, wherein a peripheral edge region of the lid contacts a peripheral edge region of the base in the contacting position, and wherein the peripheral edge region of the lid is spaced apart from the peripheral edge region of the base in the floating position. a base (102, 1200, 1700) and a lid (104, 1100, 1400, 2000), wherein the base and lid (104, 1100, 1400, 2000) each comprise two or more supports (110A-D, 128A-D) configured to contact a peripheral region of a storage bag to reduce stress at edges of the storage bag (1600, 2100), wherein the base (102, 1200, 1700) and the lid (104, 1100, 1400, 2000) are configured such that, in a closed configuration of the carrier, a distance between the base (102, 1200, 1700) and the lid (104, 1100, 1400, 2000) is adjustable based on a fill volume of the storage bag, thereby to allow for maximum contact of the storage bag with the base (102, 1200, 1700) and the lid (104, 1100, 1400, 2000) in the closed configuration; wherein the distance between the base (102, 1200, 1700) and the lid (104, 1100, 1400, 2000) is adaptable in the closed configuration between a contacting position and a floating position, wherein a peripheral edge region of the lid contacts a peripheral edge region of the base in the contacting position, and wherein the peripheral edge region of the lid is spaced apart from the peripheral edge region of the base in the floating position. wherein the distance between the base (102, 1200, 1700) and the lid (104, 1100, 1400, 2000) is adaptable in the closed configuration between a contacting position and a floating position, wherein a peripheral edge region of the lid contacts a peripheral edge region of the base in the contacting position, and wherein the peripheral edge region of the lid is spaced apart from the peripheral edge region of the base in the floating position.
A cutting machine, in which a reciprocating rod is driven by a motor and projects downward at a forward portion of a housing that accommodates the motor and a cooling fan for cooling the motor, and a lower end of the rod is connected to a cutting blade for cutting a workpiece, the cutting machine, wherein the housing is formed with a first blow passage and cooling air generated by the cooling fan forwardly flows through the first blow passage in a direction intersecting the rod from a rear side relative to the rod, and a second blow passage (50A, 50B) is provided and the cooling air flows through the second blow passage (50A, 50B) toward a cutting region of the workpiece being cut by the cutting blade, characterized in that the cutting machine further comprises a cover member that is attached to a lower portion of the housing, and covers from the first blow passage (40A, 40B) and the second blow passage (50A, 50B) to the forward portion of the housing, wherein between an outer surface of the housing and an inner surface of the cover member, the cooling air blown from the first blow passage (40A, 40B) is guided toward the rod and the cooling air blown from the second blow passage (50A, 50B) is guided toward the cutting region.
Compensation unit for the compensation of at least a phase shift (ΔΦ test1, ΔΦ test2) caused by at least a component (8a, 8b, 17a, 17b) of an electronic unit of a vibronic sensor, wherein the vibronic sensor has at least an electromechanical transducer unit, and wherein the at least one component (8a, 8b, 17a, 17b) is an analog input stage or an analog output stage, for example an operational amplifier, particularly a charge amplifier, an impedance converter, a filter, particularly an anti-aliasing filter, or wherein the at least one component (8a, 8b, 17a, 17b) is an analog-digital converter, a digital-analog converter, a transistor stage or an analog switch of the vibronic sensor, wherein the compensation unit comprises at least: - a bridging unit designed to electrically bridge at least the electromechanical transducer unit, - a signal generation unit designed to generate at least a first test excitation signal (U Atest1) in the form of an electrical alternating signal with a first selectable frequency (f 1), - a phase detection unit designed to determine at least a first phase shift (ΔΦ test1) present between the test excitation signal (U Atest1) and at least a first test reception signal (U Etest1), said reception signal at least running through the bridging unit and the at least one component (8a, 8b, 17a, 17b) of the electronic unit, and - a computing unit which determines a phase compensation rule (σ) at least from the first phase shift (ΔΦ test1), characterized in that the compensation unit is designed to bridge at least the electromechanical transducer unit of the vibronic sensor for the purpose of determining the phase compensation rule (σ), and for the purpose of transmitting the phase compensation rule (σ) to a phase regulation unit of the electronic unit of the vibronic sensor, wherein said unit takes the phase compensation rule (σ) into consideration during the regulation of a predefinable phase shift (ΔΦ). - a bridging unit designed to electrically bridge at least the electromechanical transducer unit, - a signal generation unit designed to generate at least a first test excitation signal (U Atest1) in the form of an electrical alternating signal with a first selectable frequency (f 1), - a phase detection unit designed to determine at least a first phase shift (ΔΦ test1) present between the test excitation signal (U Atest1) and at least a first test reception signal (U Etest1), said reception signal at least running through the bridging unit and the at least one component (8a, 8b, 17a, 17b) of the electronic unit, and - a computing unit which determines a phase compensation rule (σ) at least from the first phase shift (ΔΦ test1), characterized in that the compensation unit is designed to bridge at least the electromechanical transducer unit of the vibronic sensor for the purpose of determining the phase compensation rule (σ), and for the purpose of transmitting the phase compensation rule (σ) to a phase regulation unit of the electronic unit of the vibronic sensor, wherein said unit takes the phase compensation rule (σ) into consideration during the regulation of a predefinable phase shift (ΔΦ).
A compound of formula R 1 -Ar 1 -L 1 -Ar 2 -L 2 -Ar 3 -L 3 -Ar 4 -L 4 -Ar 5 -R 2 wherein Ar 1 is an optionally substituted 1,4-phenylene group; Ar 2 is an optionally substituted 1,4-phenylene group; Ar 3 is an optionally substituted 1,4-phenylene group; Ar 4 is an optionally substituted 1,4-phenylene group; Ar 5 is an optionally substituted 1,4-phenylene group; L 1 is NHCO wherein the nitrogen atom is bound to Ar 1; L 2 is NHCO wherein the nitrogen atom is bound to Ar 2; L 3 is a group of the following formula: wherein the NH group is bound to Ar 3, wherein R 30 is a hydrogen atom or a C 1-3 alkyl group (preferably, R 30 is a hydrogen atom); L 4 is absent or NHCO wherein the nitrogen atom is bound to Ar 4; R 1 is a group of formula -NH 2, -NO 2, COOR 11, or -CONR 12 R 13; wherein R 11, R 12 and R 13 are independently a hydrogen atom or a C 1-6 alkyl group, preferably, R 1 is a group of formula -COOH; R 2 is a group of formula -NH 2, -NO 2, COOR 11a, or -CONR 12a R 13a; wherein R 11a, R 12a and R 13a are independently a hydrogen atom or a C 1-6 alkyl group preferably, R 2 is a group of formula -NH 2 or -NO 2; wherein the term alkyl includes alkyl groups in which one or more hydrogen atoms are replaced by a halogen atom; or a pharmaceutically acceptable salt, solvate or hydrate or a pharmaceutically acceptable formulation thereof. Ar 1 is an optionally substituted 1,4-phenylene group; Ar 2 is an optionally substituted 1,4-phenylene group; Ar 3 is an optionally substituted 1,4-phenylene group; Ar 4 is an optionally substituted 1,4-phenylene group; Ar 5 is an optionally substituted 1,4-phenylene group; L 1 is NHCO wherein the nitrogen atom is bound to Ar 1; L 2 is NHCO wherein the nitrogen atom is bound to Ar 2; L 3 is a group of the following formula: wherein the NH group is bound to Ar 3, wherein R 30 is a hydrogen atom or a C 1-3 alkyl group (preferably, R 30 is a hydrogen atom); L 4 is absent or NHCO wherein the nitrogen atom is bound to Ar 4; R 1 is a group of formula -NH 2, -NO 2, COOR 11, or -CONR 12 R 13; wherein R 11, R 12 and R 13 are independently a hydrogen atom or a C 1-6 alkyl group, preferably, R 1 is a group of formula -COOH; R 2 is a group of formula -NH 2, -NO 2, COOR 11a, or -CONR 12a R 13a; wherein R 11a, R 12a and R 13a are independently a hydrogen atom or a C 1-6 alkyl group preferably, R 2 is a group of formula -NH 2 or -NO 2;
A method of wireless communication, comprising: obtaining, at a data sink, at least one parameter from a data source, wherein the at least one parameter specifies timing for the data sink and one or more other data sinks to process information after receipt of a synchronization signal, wherein the at least one parameter is based on latencies associated with processing the information at the data sink and at the one or more other data sinks, respectively; wirelessly receiving, at the data sink, the synchronization signal from the data source; wirelessly receiving, at the data sink, the information from the data source; and processing, at the data sink, the information at a time based on the at least one parameter and the synchronization signal. obtaining, at a data sink, at least one parameter from a data source, wherein the at least one parameter specifies timing for the data sink and one or more other data sinks to process information after receipt of a synchronization signal, wherein the at least one parameter is based on latencies associated with processing the information at the data sink and at the one or more other data sinks, respectively; wirelessly receiving, at the data sink, the synchronization signal from the data source; wirelessly receiving, at the data sink, the information from the data source; and processing, at the data sink, the information at a time based on the at least one parameter and the synchronization signal.
A process for the anaerobic bioconversion of a gas substrate comprising carbon monoxide, hydrogen and carbon dioxide in a commercial scale deep tank reactor by contact of the gas substrate with an aqueous menstruum containing microorganisms suitable for converting said substrate to an oxygenated organic compound; said process comprising: (a) blanketing said reactor above the aqueous menstruum in a head space with a head space gas comprising at least one of carbon monoxide, hydrogen, carbon dioxide, nitrogen, and lower alkane to the essential exclusion of oxygen; (b) continuously supplying a feed gas comprising at least a portion of the gas substrate to said reactor; (c) injecting the gas substrate and a recycled portion of the aqueous menstruum via at least one injector, wherein feed gas is injected into the bottom portion of the reactor using the recycled aqueous menstruum as a motive liquid to form a dispersion of liquid and microbubbles having a diameter of less than about 500 microns; wherein the carbon monoxide concentration is maintained below that amount which results in carbon monoxide inhibition by at least one of: (i) adjusting the gas to liquid flow ratio through an injector, (ii) changing the rate of liquid flow through an injector, and (iii) adjusting the carbon monoxide mole fraction in the gas feed by admixture of the substrate with at least one other gas to maintain a stable operation of the gas-in-liquid dispersion, and wherein the reactor has a depth of at least 10 meters. (a) blanketing said reactor above the aqueous menstruum in a head space with a head space gas comprising at least one of carbon monoxide, hydrogen, carbon dioxide, nitrogen, and lower alkane to the essential exclusion of oxygen; (b) continuously supplying a feed gas comprising at least a portion of the gas substrate to said reactor; (c) injecting the gas substrate and a recycled portion of the aqueous menstruum via at least one injector, wherein feed gas is injected into the bottom portion of the reactor using the recycled aqueous menstruum as a motive liquid to form a dispersion of liquid and microbubbles having a diameter of less than about 500 microns; (i) adjusting the gas to liquid flow ratio through an injector, (ii) changing the rate of liquid flow through an injector, and (iii) adjusting the carbon monoxide mole fraction in the gas feed by admixture of the substrate with at least one other gas to maintain a stable operation of the gas-in-liquid dispersion, and
A method for sidelink, SL, monitoring, comprising: transmitting, by the first terminal device, first indication information to the second terminal device, wherein the first indication information is used for indicating the second terminal device to transmit hybrid automatic repeat request, HARQ, feedback information to the first terminal device; detecting, by a first terminal device, the HARQ, feedback information transmitted by the second terminal device in a first duration; and determining, by the first terminal device, that a SL between the first terminal device and the second terminal device is in an out-of-sync state if a number of consecutive absences of HARQ feedback information reception reaches a first threshold in the first duration, wherein radio link failure, RLF, occurs when a number of consecutive out-of-sync state reaches a second threshold. transmitting, by the first terminal device, first indication information to the second terminal device, wherein the first indication information is used for indicating the second terminal device to transmit hybrid automatic repeat request, HARQ, feedback information to the first terminal device; detecting, by a first terminal device, the HARQ, feedback information transmitted by the second terminal device in a first duration; and determining, by the first terminal device, that a SL between the first terminal device and the second terminal device is in an out-of-sync state if a number of consecutive absences of HARQ feedback information reception reaches a first threshold in the first duration, wherein radio link failure, RLF, occurs when a number of consecutive out-of-sync state reaches a second threshold.
A component, in particular a window or door with a pivoted leaf and top-hung window or pivoted window, comprising a frame (103, 203) and a leaf (102, 204) which may be pivoted about a substantially horizontal pivot axis relative to the frame (103, 203), a closing device (1, 101, 217) with a spring-load device (4, 111, 218) for the delayed or retarded automatic closing of the leaf (102, 204) and a locking system (169, 239) for locking the leaf (102, 204) in the closed position on the frame (103, 203), wherein the locking system (169, 239), on closing of the leaf (102, 204) has an automatically self-locking design and comprises a locking element (170, 240), fixed to the frame (103, 203), having a locking surface (174, 249), and a locking device (171, 241), fixed to the leaf (102, 204), with a locking member (176, 248) cooperating with the locking surface (174, 249), the locking member (176, 248) is pre-stressed by means of a spring element (182, 253) in the locking direction, i.e. in engagement with the locking surface (174, 249), and is displaceable by means of an actuating member (172, 235) into a release position situated out of engagement with the locking surface (174, 249), and the actuating member (172, 235) is formed by a tension element (173, 236) and furthermore the displacement path for the locking member (176, 248) is delimited by a stop element or the displacement path for the actuating member (172, 235) in the direction of the release position is delimited by a fixed point on the locking system (169, 239) or on the leaf (102, 204), characterized in that through the actuating member (172, 235) in the form of the tension element (173, 236), a handle is formed for tilting the leaf (102, 204) about the horizontal pivot axis contrary to the tractive force of the spring-load device (4, 111, 218) of the closing device (101, 217).
A method for producing mineral wool composites, in which circulating water used for cleaning a production apparatus for producing mineral wool composites is filtered to reuse the circulating water in the production apparatus, the method comprising the following steps (a) to (c) in this order: (a) producing a first mineral wool composite by extracting at least part of the circulating water to prepare a first binder composition containing the extracted circulating water and then spraying the first binder composition onto mineral fibers, while providing clean water to the circulating water; (b) conducting the following substeps and in any order or at the same time, pausing extraction of the circulating water for preparation of the first binder composition; extracting at least part of the circulating water to store the extracted circulating water in a first tank; (c) producing a second mineral wool composite by extracting at least part of the circulating water to prepare a second binder composition containing the extracted circulating water and then spraying the second binder composition onto mineral fibers, while providing clean water to the circulating water, wherein the first binder composition and the second binder composition are different from each other. (a) producing a first mineral wool composite by extracting at least part of the circulating water to prepare a first binder composition containing the extracted circulating water and then spraying the first binder composition onto mineral fibers, while providing clean water to the circulating water; (b) conducting the following substeps and in any order or at the same time, pausing extraction of the circulating water for preparation of the first binder composition; extracting at least part of the circulating water to store the extracted circulating water in a first tank; pausing extraction of the circulating water for preparation of the first binder composition; extracting at least part of the circulating water to store the extracted circulating water in a first tank; (c) producing a second mineral wool composite by extracting at least part of the circulating water to prepare a second binder composition containing the extracted circulating water and then spraying the second binder composition onto mineral fibers, while providing clean water to the circulating water,
A method of operating a user equipment, comprising: identifying multi-subcarrier system resources using multiple different numerologies available within a single carrier, wherein the multiple different numerologies comprise a first numerology having resource blocks, RBs, with a first bandwidth and a first subcarrier spacing, Δf1, and a second numerology having RBs with a second bandwidth and a second subcarrier spacing, Δf2, which is different from Δf1, and wherein the RBs of the first numerology start at a frequency relative to a frequency reference, Fref, according to m ∗ Δf1 + Fref and the RBs of the second numerology start at a frequency relative to the frequency reference, Fref, according to n ∗ Δf2 + Fref, where m and n are integers; and transmitting and/or receiving information within the single carrier according to at least one of the multiple different numerologies. identifying multi-subcarrier system resources using multiple different numerologies available within a single carrier, wherein the multiple different numerologies comprise a first numerology having resource blocks, RBs, with a first bandwidth and a first subcarrier spacing, Δf1, and a second numerology having RBs with a second bandwidth and a second subcarrier spacing, Δf2, which is different from Δf1, and wherein the RBs of the first numerology start at a frequency relative to a frequency reference, Fref, according to m ∗ Δf1 + Fref and the RBs of the second numerology start at a frequency relative to the frequency reference, Fref, according to n ∗ Δf2 + Fref, where m and n are integers; and transmitting and/or receiving information within the single carrier according to at least one of the multiple different numerologies.
Method for setting up a call between a telephony terminal (201, 500) and a destination of the call according to a preferred call route, said method comprising the steps of: the telephony terminal transmitting, to a call route select server (216, 600) located outside a core network, a call route select request comprising information pertaining to the destination of the call and at least one of information pertaining to the capabilities of the telephony terminal, available networks of the telephony terminal and location of a caller associated with the telephony terminal, the telephony terminal receiving, from the call route select server, a call route select response comprising a preferred call route based on the information pertaining to the destination of the call and at least one of information pertaining to the capabilities of the telephony terminal, available networks of the telephony terminal and location of a caller associated with the telephony terminal and information on how to setup the call according to the preferred call route, and the telephony terminal setting up the call according to said call route select response. the telephony terminal transmitting, to a call route select server (216, 600) located outside a core network, a call route select request comprising information pertaining to the destination of the call and at least one of information pertaining to the capabilities of the telephony terminal, available networks of the telephony terminal and location of a caller associated with the telephony terminal, the telephony terminal receiving, from the call route select server, a call route select response comprising a preferred call route based on the information pertaining to the destination of the call and at least one of information pertaining to the capabilities of the telephony terminal, available networks of the telephony terminal and location of a caller associated with the telephony terminal and information on how to setup the call according to the preferred call route, and the telephony terminal setting up the call according to said call route select response.