mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining a transition of a terminal between its idle state and its connected state, wherein the connected state of the terminal is associated with the terminal being connected to a node of a radio access network of a communication network , the method comprising at least one of: - at least partly setting up, prior to a connection setup procedure for setting up a connection between the terminal and the node , a security configuration to be used between the terminal and the node for communication, wherein at least partly setting up the security configuration comprises at least partly setting up the security configuration prior to establishing a Radio Resource Control, RRC, connection with the radio access network , and - at least partly setting up, prior to the connection setup procedure, a bearer configuration to be used between the terminal and the node for communication, wherein at least partly setting up the bearer configuration comprises at least partly setting up the bearer configuration prior to establishing the RRC connection with the radio access network . - at least partly setting up, prior to a connection setup procedure for setting up a connection between the terminal and the node , a security configuration to be used between the terminal and the node for communication, wherein at least partly setting up the security configuration comprises at least partly setting up the security configuration prior to establishing a Radio Resource Control, RRC, connection with the radio access network , and - at least partly setting up, prior to the connection setup procedure, a bearer configuration to be used between the terminal and the node for communication, wherein at least partly setting up the bearer configuration comprises at least partly setting up the bearer configuration prior to establishing the RRC connection with the radio access network .
A cooker comprising: a heating element ; a supporting structure for supporting a cooking vessel above the heating element ; and a bi-metallic element , characterised in that the bi-metallic element is arranged to drive the heating element to move based on the temperature of the bi-metallic element . a heating element ; a supporting structure for supporting a cooking vessel above the heating element ; and a bi-metallic element , characterised in that the bi-metallic element is arranged to drive the heating element to move based on the temperature of the bi-metallic element .
A method for forming a graded index (GRIN) on a substrate, the method comprising: applying a metal layer to the substrate; controlling a fluence profile of optical energy applied to the metal layer to substantially ablate the metal layer to create a vaporized metal layer; and further controlling the fluence profile of the optical energy to control a size of metal nanoparticles created from the vaporized metal layer as the vaporized metal layer condenses and forms metal nanoparticles, the metal nanoparticles being deposited back on the substrate to form a GRIN surface on the substrate where the GRIN surface formed includes a spatially varying, controlled pattern of the metal nanoparticles on the substrate. applying a metal layer to the substrate; controlling a fluence profile of optical energy applied to the metal layer to substantially ablate the metal layer to create a vaporized metal layer; and further controlling the fluence profile of the optical energy to control a size of metal nanoparticles created from the vaporized metal layer as the vaporized metal layer condenses and forms metal nanoparticles, the metal nanoparticles being deposited back on the substrate to form a GRIN surface on the substrate where the GRIN surface formed includes a spatially varying, controlled pattern of the metal nanoparticles on the substrate.
A supply device for supplying several substrate strips (10, 10'; 11, 11') to a double-belt press for pressing the substrate strips (10, 10'; 11, 11') together, comprising several unwinding stations each comprising an unwinding shaft for receiving a respective substrate strip roll and serving to unwind the substrate strips (10, 10'; 11, 11') from the respective substrate strip roll , at least one of the unwinding stations comprising a force-measuring device with a measuring shaft around which a corresponding one of the substrate strips (10, 10'; 11, 11') can be wrapped, an auxiliary shaft for the corresponding one of the substrate strips (10, 10'; 11, 11') being assigned to the measuring shaft, characterized in that the auxiliary shaft and the measuring shaft of the at least one unwinding station are moveable relative to each other between a relative guiding position for, in particular automatic, guiding of the corresponding substrate strip (10, 10'; 11, 11') from the corresponding roll of the substrate strip rolls through a gap between the measuring shaft and the auxiliary shaft and a relative operating position defining a pre-defined and/or pre-definable wrap angle (χ) of the corresponding substrate strip (10, 10'; 11, 11') around the measuring shaft by means of relative adjusting drive means.
A compound represented by formula (II) or a pharmaceutically acceptable salt thereof, wherein, R 1 is C 1-6 alkoxy optionally substituted by 1, 2 or 3 R; R 2 is selected from the group consisting of -C(=O)NH 2 and -C(=O)NH-C 1-3 alkyl; ring B is C 3-6 cycloalkyl; R is selected from the group consisting of F, Cl, Br, I, OH and NH 2 . R 1 is C 1-6 alkoxy optionally substituted by 1, 2 or 3 R; R 2 is selected from the group consisting of -C(=O)NH 2 and -C(=O)NH-C 1-3 alkyl; ring B is C 3-6 cycloalkyl; R is selected from the group consisting of F, Cl, Br, I, OH and NH 2 .
Cutting tool for producing and/or machining bores, having - a main body having a central axis and a circumferential surface , and - at least two geometrically defined cutting edges (9/1, 9/2), and - a number of guide rails projecting beyond the circumferential surface of the main body , wherein - two guide rails (19/1, 19/2) are configured to be fixed and are arranged at a circumferential distance of less than 180° from one another, so that - a first circumferential region (21/1) lying between the fixed guide rails and extending over more than 180° and a second circumferential region (21/2) extending over less than 180° are formed, - one of the at least two cutting edges (9/1, 9/2) is arranged in the second circumferential region (21/2) between the fixed guide rails (19/1, 19/2), - at least one guide rail is resiliently mounted on the main body of the cutting tool , and - the at least one resilient guide rail is arranged in the first circumferential region (21/1), so that - during machining and/or production of a bore, the cutting tool is placed against the bore wall by the at least one resiliently mounted guide rail in such a way that the fixed guide rails (19/1, 19/2) are pressed against the bore wall in an elastically resilient manner, characterised in that the geometrically defined cutting edges (9/1, 9/2), viewed in the circumferential direction of the cutting tool , are provided with unequal partition on the circumferential surface of the main body . - a main body having a central axis and a circumferential surface , and - at least two geometrically defined cutting edges (9/1, 9/2), and - a number of guide rails projecting beyond the circumferential surface of the main body , wherein - two guide rails (19/1, 19/2) are configured to be fixed and are arranged at a circumferential distance of less than 180° from one another, so that - a first circumferential region (21/1) lying between the fixed guide rails and extending over more than 180° and a second circumferential region (21/2) extending over less than 180° are formed, - one of the at least two cutting edges (9/1, 9/2) is arranged in the second circumferential region (21/2) between the fixed guide rails (19/1, 19/2), - at least one guide rail is resiliently mounted on the main body of the cutting tool , and - the at least one resilient guide rail is arranged in the first circumferential region (21/1), so that - during machining and/or production of a bore, the cutting tool is placed against the bore wall by the at least one resiliently mounted guide rail in such a way that the fixed guide rails (19/1, 19/2) are pressed against the bore wall in an elastically resilient manner,
A control system for heating, ventilation, and air conditioning, HVAC, the control system comprising: an air-handling unit, AHU, comprising an AHU heating coil and an AHU cooling coil , the AHU configured to output supply air at an AHU temperature; a terminal unit having a terminal flow rate sensor , a terminal heating coil and a terminal cooling coil , the terminal unit connected with the air handling unit by a duct for receiving the supply air from the AHU ; and a controller configured to receive a flow rate from the terminal flow rate sensor , calculate a slope of total power consumption of the AHU and the terminal unit as a function of temperature based on the flow rate, and control the AHU temperature for the supply air based on the slope to minimize the total power consumption depending on an outside air temperature and temperature set point for the terminal unit . an air-handling unit, AHU, comprising an AHU heating coil and an AHU cooling coil , the AHU configured to output supply air at an AHU temperature; a terminal unit having a terminal flow rate sensor , a terminal heating coil and a terminal cooling coil , the terminal unit connected with the air handling unit by a duct for receiving the supply air from the AHU ; and a controller configured to receive a flow rate from the terminal flow rate sensor , calculate a slope of total power consumption of the AHU and the terminal unit as a function of temperature based on the flow rate, and control the AHU temperature for the supply air based on the slope to minimize the total power consumption depending on an outside air temperature and temperature set point for the terminal unit .
A nanochannel delivery device comprising: an inlet microchannel; an outlet microchannel; and a nanochannel in fluid communication with the inlet microchannel and the outlet microchannel, wherein the inlet microchannel comprises a non-bio-robust material coated with a bio-robust material comprising tantalum oxide, said bio-robust material maintains nanoscale dimensions within 10% of their original dimensions over 1000 days when exposed to bio-fluids at body temperature, and wherein the outlet microchannel is coated with a bio-robust material comprising silicon carbide. an inlet microchannel; an outlet microchannel; and a nanochannel in fluid communication with the inlet microchannel and the outlet microchannel, wherein the inlet microchannel comprises a non-bio-robust material coated with a bio-robust material comprising tantalum oxide, said bio-robust material maintains nanoscale dimensions within 10% of their original dimensions over 1000 days when exposed to bio-fluids at body temperature, and wherein the outlet microchannel is coated with a bio-robust material comprising silicon carbide.
A system comprising: (i) a first plurality of suspension-adapted mammalian or insect cells, wherein cells of the plurality are transformed with a vector so as to: (a) express on a cell-surface thereof a first heterologous protein; and (b) express a first cytoplasmic-expressing fluorescent protein, such that the first plurality of suspension-adapted cells expresses at least two different types of first heterologous protein, and (ii) a second plurality of suspension-adapted mammalian or insect cells transformed with a second vector so as to: (a) express on a cell-surface thereof a second heterologous protein; and (b) express a second cytoplasmic-expressing fluorescent protein, wherein the second plurality of suspension-adapted cells expresses a single type of second heterologous protein; wherein each vector expressed by the first plurality of suspension-adapted cells comprises a predetermined 15-35 nucleotide sequence unique for the heterologous protein expressed; wherein the first plurality and second plurality of suspension-adapted cells are in contact with one another; and wherein co-localization of both the first and second fluorescent proteins is determined by FACS analysis. (i) a first plurality of suspension-adapted mammalian or insect cells, wherein cells of the plurality are transformed with a vector so as to: (a) express on a cell-surface thereof a first heterologous protein; and (b) express a first cytoplasmic-expressing fluorescent protein, such that the first plurality of suspension-adapted cells expresses at least two different types of first heterologous protein, and (a) express on a cell-surface thereof a first heterologous protein; and (b) express a first cytoplasmic-expressing fluorescent protein, such that the first plurality of suspension-adapted cells expresses at least two different types of first heterologous protein, and (ii) a second plurality of suspension-adapted mammalian or insect cells transformed with a second vector so as to: (a) express on a cell-surface thereof a second heterologous protein; and (b) express a second cytoplasmic-expressing fluorescent protein, wherein the second plurality of suspension-adapted cells expresses a single type of second heterologous protein; (a) express on a cell-surface thereof a second heterologous protein; and (b) express a second cytoplasmic-expressing fluorescent protein, wherein the second plurality of suspension-adapted cells expresses a single type of second heterologous protein;
An electroconductive resin composition comprising components: (A) a hydrogenated styrene-based thermoplastic elastomer having an MFR (measured at a temperature of 230°C and a load of 2.16 kg) of 1 g/10 min or less, at 100 parts by mass; and (B) an oil at 100-1,000 parts by mass with respect to 100 parts by mass of the component (A); the composition further comprising components: (C) a copolymer of a hydrophobic polymer and a hydrophilic polymer, the copolymer having an MFR measured at 190°C and a load of 2.16 kg of 8 g/10 min or more; and (D) an ionic liquid, wherein the component (D) ionic liquid is at a content of 50-250 parts by mass with respect to 100 parts by mass of the component (A). (A) a hydrogenated styrene-based thermoplastic elastomer having an MFR (measured at a temperature of 230°C and a load of 2.16 kg) of 1 g/10 min or less, at 100 parts by mass; and (B) an oil at 100-1,000 parts by mass with respect to 100 parts by mass of the component (A); the composition further comprising components: (C) a copolymer of a hydrophobic polymer and a hydrophilic polymer, the copolymer having an MFR measured at 190°C and a load of 2.16 kg of 8 g/10 min or more; and (D) an ionic liquid, wherein the component (D) ionic liquid is at a content of 50-250 parts by mass with respect to 100 parts by mass of the component (A). (C) a copolymer of a hydrophobic polymer and a hydrophilic polymer, the copolymer having an MFR measured at 190°C and a load of 2.16 kg of 8 g/10 min or more; and (D) an ionic liquid, wherein the component (D) ionic liquid is at a content of 50-250 parts by mass with respect to 100 parts by mass of the component (A).
An anti-sweeping hook comprising: a display hook for storing retail merchandise, the display hook being substantially straight and having a first end and a second end opposite the first end; a helical coil disposed about the display hook and extending along a lengthwise portion of the display hook , the helical coil having a first coil end proximate the first end of the display hook , wherein rotation of the helical coil in a first direction loads the retail merchandise onto the display hook and rotation of the helical coil in a second direction opposite the first direction removes the retail merchandise from the display hook ; a rotating handle attached to the first end of the display hook and to the first coil end, wherein the rotating handle includes means to determine an extent of rotation for the rotating handle , wherein the rotating handle includes a first contact and a second contact disposed within a main housing of the rotating handle such that an electrical connection between the first and second contacts indicates some rotation of the rotating handle , wherein the rotating handle includes a circuit board with circuitry configured to count the electrical connections between the first and second contacts , characterized in that the circuitry includes a Microcontroller Unit configured to trigger an alarm if a threshold number of electrical connections between the first and second contacts occurs within a predetermined time period. a display hook for storing retail merchandise, the display hook being substantially straight and having a first end and a second end opposite the first end; a helical coil disposed about the display hook and extending along a lengthwise portion of the display hook , the helical coil having a first coil end proximate the first end of the display hook , wherein rotation of the helical coil in a first direction loads the retail merchandise onto the display hook and rotation of the helical coil in a second direction opposite the first direction removes the retail merchandise from the display hook ; a rotating handle attached to the first end of the display hook and to the first coil end, wherein the rotating handle includes means to determine an extent of rotation for the rotating handle , wherein the rotating handle includes a first contact and a second contact disposed within a main housing of the rotating handle such that an electrical connection between the first and second contacts indicates some rotation of the rotating handle , wherein the rotating handle includes a circuit board with circuitry configured to count the electrical connections between the first and second contacts , characterized in that the circuitry includes a Microcontroller Unit configured to trigger an alarm if a threshold number of electrical connections between the first and second contacts occurs within a predetermined time period.
A projectile, the projectile comprising a shell and a bunch of filaments, the bunch being wound in a coil and the bunch being placed inside the shell , characterised in that the filaments are of carbon fibre whereby the filament bunch is a carbon fibre tow comprising at least 1000 filaments. a shell and a bunch of filaments, the bunch being wound in a coil and the bunch being placed inside the shell , characterised in that the filaments are of carbon fibre whereby the filament bunch is a carbon fibre tow comprising at least 1000 filaments.
A method performed by a station, STA, to receive a frame in a wireless local area network, WLAN, system, the method comprising: receiving, at the STA, the frame comprising a signaling, SIG, field for control information and a data field for data, wherein the control information of the SIG field includes a bandwidth field; and processing the received frame, wherein the STA identifies a bandwidth of a) 20 MHz, b) 40 MHz, c) 80 MHz and d) 160 MHz or 80+80 MHz based on a value of the bandwidth field, if the STA determines the value of the bandwidth field is within a first range of values available for the bandwidth field, wherein the STA identifies one or more locations of one or more null channels based on a value of the bandwidth field, if the STA determines the value of the bandwidth field is within a second range of values available for the bandwidth field, and wherein the first range of values does not overlap with the second range of values. receiving, at the STA, the frame comprising a signaling, SIG, field for control information and a data field for data, wherein the control information of the SIG field includes a bandwidth field; and processing the received frame, wherein the STA identifies a bandwidth of a) 20 MHz, b) 40 MHz, c) 80 MHz and d) 160 MHz or 80+80 MHz based on a value of the bandwidth field, if the STA determines the value of the bandwidth field is within a first range of values available for the bandwidth field, wherein the STA identifies one or more locations of one or more null channels based on a value of the bandwidth field, if the STA determines the value of the bandwidth field is within a second range of values available for the bandwidth field, and wherein the first range of values does not overlap with the second range of values.
An engine-driven system comprising: - an engine having an air intake passage ; - a fuel tank operatively coupled to the engine ; - a valve coupled between the fuel tank and the air intake passage , the valve being configured to transition between a first position and a second position, wherein the first position allows fuel vapor to flow between the fuel tank and the air intake passage and the second position inhibits the fuel vapor from flowing between the fuel tank and the air intake passage ; and - a pressure regulator positioned in line between the fuel tank and the engine , wherein the pressure regulator comprises a pressure relief valve configured to release fuel vapor between the fuel tank and the air intake passage when a pressure of the fuel vapor between the fuel tank and the air intake passage reaches a predetermined first threshold pressure, wherein a check valve is positioned in line between the fuel tank and the air intake passage and in parallel with the pressure regulator , wherein the check valve is configured to allow air into fuel tank when the pressure within the fuel tank is negative, characterized in that the engine is configured to drive a generator , and that a control device is configured to transition the valve between a first position and a second position based on a measured oil pressure within the engine; wherein the valve comprises an inlet, a first outlet, and a second outlet, the inlet being configured to receive fuel vapor from the fuel tank , the first outlet being configured to provide the fuel vapor to the air intake passage , and the second outlet being configured to provide the fuel vapor to the atmosphere or to a storage container; and that the control device is configured to cause the valve to enable release of fuel vapor from the fuel tank when the pressure of the fuel vapor in the fuel tank reaches a second threshold pressure, the second threshold pressure being higher than the first threshold pressure. - an engine having an air intake passage ; - a fuel tank operatively coupled to the engine ; - a valve coupled between the fuel tank and the air intake passage , the valve being configured to transition between a first position and a second position, wherein the first position allows fuel vapor to flow between the fuel tank and the air intake passage and the second position inhibits the fuel vapor from flowing between the fuel tank and the air intake passage ; and - a pressure regulator positioned in line between the fuel tank and the engine , wherein the pressure regulator comprises a pressure relief valve configured to release fuel vapor between the fuel tank and the air intake passage when a pressure of the fuel vapor between the fuel tank and the air intake passage reaches a predetermined first threshold pressure,