mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly structure for an embedded light device, wherein the assembly structure comprises a detachable installation module and an outer ring of the embedded light device; the detachable installation module has sliding grooves extending along with an installation direction and a lock piece ; one end of the lock piece abuts against a position recovery element, when the position recovery element is in an initial position, a lock portion at the other end of the lock piece is exposed in the sliding grooves along with a direction perpendicular to a direction of the sliding grooves ; when the position recovery element is compressed by applying a force thereon, the lock piece is compressed along the direction perpendicular to the sliding grooves ; the outer ring comprises a sliding track configured for slidably engaging with the sliding grooves ; the sliding track comprises an engaging piece along the installation direction, the engaging piece comprises a pressing surface and a locking surface ; when the pressing surface abuts against the lock portion at the other end of the lock piece , the lock portion of the other end of the lock piece is compressed in response to a force and moves along with a detaching direction of the pressing surface , so that the sliding track and the sliding grooves are movable along the installation direction; when the pressing surface moves and departures from the lock portion at the other end of the lock piece , the lock portion at the other end of the lock piece is affected by the position recovery element such that the lock portion locks with the locking surface , and the sliding track and the sliding grooves are position limited along the installation direction; characterized in that : the detachable installation module comprises a fixing base and a stage , the stage extending outwardly along a direction perpendicular to the sliding grooves and from a middle of a lateral surface of the fixing base , which is parallel to the sliding track ; an end of the stage extends along a left side and a right side horizontally along a direction parallel to the lateral surface, thus forming the sliding grooves at the left side and the right side of the stage ; and the fixing base has an opening connected with the sliding groove at the lateral surface parallel to the sliding track , and the opening extends and forms a container cavity along the direction perpendicular to the sliding grooves . the detachable installation module comprises a fixing base and a stage , the stage extending outwardly along a direction perpendicular to the sliding grooves and from a middle of a lateral surface of the fixing base , which is parallel to the sliding track ; an end of the stage extends along a left side and a right side horizontally along a direction parallel to the lateral surface, thus forming the sliding grooves at the left side and the right side of the stage ; and the fixing base has an opening connected with the sliding groove at the lateral surface parallel to the sliding track , and the opening extends and forms a container cavity along the direction perpendicular to the sliding grooves .
A jaw assembly of a jaw crusher , comprising: a jaw liner having a front working face , a rear face , a top , and a bottom ; a frame forming part of a jaw , the frame having a support face that in use abuts the rear face of the jaw liner ; a first retention plate to clamp the top of the jaw liner to the support face, the first retention plate having a base that in use abuts the top of the jaw liner; and a retainer assembly to limit lateral movement of the jaw liner relative to the frame , the retainer assembly comprising: a first recess in an upper part the rear face of the jaw liner ; a second recess ; and a removable retainer insert that extends through the top of the jaw liner and comprising a head part and an anchor part; characterized in that the second recess is disposed in the base of the first retention plate ; in that the head part is accommodated within the second recess ; in that the anchor part is accommodated within the first recess . a jaw liner having a front working face , a rear face , a top , and a bottom ; a frame forming part of a jaw , the frame having a support face that in use abuts the rear face of the jaw liner ; a first retention plate to clamp the top of the jaw liner to the support face, the first retention plate having a base that in use abuts the top of the jaw liner; and a retainer assembly to limit lateral movement of the jaw liner relative to the frame , the retainer assembly comprising: a first recess in an upper part the rear face of the jaw liner ; a second recess ; and a removable retainer insert that extends through the top of the jaw liner and comprising a head part and an anchor part; a first recess in an upper part the rear face of the jaw liner ; a second recess ; and a removable retainer insert that extends through the top of the jaw liner and comprising a head part and an anchor part;
Flavour modifying composition comprising one or more flavour modifying compound(s) selected from the group consisting of 4-hydroxy-2-pyrrolidinone, N-methylcaprolactam, 5-methoxy-2-pyrrolidinone or mixtures thereof.
A compound of Formula (I), or a pharmaceutically acceptable salt, or solvate thereof: wherein Y is A is phenyl; n is 1; R 1 is selected from hydrogen, halo, C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkoxy and cyano; and either: - R 2 is selected from halo, C 1-6 alkyl, C 1-6 haloalkyl, and C 1-6 alkoxy, and - R 3 is selected from hydrogen, halo, C 1-6 alkyl, C 1-6 haloalkyl, and C 1-6 alkoxy; or - R 2 is selected from hydrogen, halo, C 1-6 alkyl, C 1-6 haloalkyl, and C 1-6 alkoxy, and - R 3 is selected from halo, C 1-6 alkyl, C 1-6 haloalkyl, and C 1-6 alkoxy; or - R 2 and R 3 together form a phenyl or 5-membered heterocyclyl. wherein Y is A is phenyl; n is 1; R 1 is selected from hydrogen, halo, C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkoxy and cyano; - R 2 is selected from halo, C 1-6 alkyl, C 1-6 haloalkyl, and C 1-6 alkoxy, and - R 3 is selected from hydrogen, halo, C 1-6 alkyl, C 1-6 haloalkyl, and C 1-6 alkoxy; or - R 2 is selected from hydrogen, halo, C 1-6 alkyl, C 1-6 haloalkyl, and C 1-6 alkoxy, and - R 3 is selected from halo, C 1-6 alkyl, C 1-6 haloalkyl, and C 1-6 alkoxy; or - R 2 and R 3 together form a phenyl or 5-membered heterocyclyl.
A method of configuring a user equipment , UE, the UE being assigned with a specific radio bearer or bearers, or resource or resources, corresponding to a background type or interactive type, the method comprising the UE: receiving, from a network element , a fast dormancy, FD, configuration comprising a value for an inhibit timer and an indication that the UE is permitted to send an FD indication; in response to receiving a trigger, verifying whether the inhibit timer has expired or is not running; determining whether to send an FD indication to the network element for a more energy efficient state or mode based on the specific radio bearer or bearers, or resource or resources, assigned to the UE and whether the inhibit timer has expired or is not running, wherein the inhibit timer value represents a time duration during which the UE is prevented from sending a subsequent FD indication for the more energy efficient state or mode; and transmitting the FD indication to the network element based on the determining of whether to send the indication to the network element for the more energy efficient state or mode. receiving, from a network element , a fast dormancy, FD, configuration comprising a value for an inhibit timer and an indication that the UE is permitted to send an FD indication; in response to receiving a trigger, verifying whether the inhibit timer has expired or is not running; determining whether to send an FD indication to the network element for a more energy efficient state or mode based on the specific radio bearer or bearers, or resource or resources, assigned to the UE and whether the inhibit timer has expired or is not running, wherein the inhibit timer value represents a time duration during which the UE is prevented from sending a subsequent FD indication for the more energy efficient state or mode; and transmitting the FD indication to the network element based on the determining of whether to send the indication to the network element for the more energy efficient state or mode.
A computer system for failing a secure boot in a case tampering event, wherein the computer system comprises: a microcontroller unit (MCU) ; a trusted platform module (TPM) , for generating a plurality of random bytes for a secure boot of the computer system , if the MCU does not comprise the plurality of random bytes; a bootloader , for storing information in the MCU and at least one hardware of the computer system and performing the secure boot, wherein the information comprises the plurality of random bytes, and the TPM is comprised in the bootloader , the at least one hardware of the computer system comprises a platform configuration register (PCR), and the PCR generates a first plurality of hashes according to the plurality of random bytes; an operating system (OS) , for performing the secure boot, wherein the secure boot of the computer system is completed if the first plurality of hashes are correct, and the secure boot of the computer system fails if the first plurality of hashes are incorrect; and at least one sensor , coupled to the MCU , for detecting a case tampering event in the computer system , and transmitting a signal for triggering a deletion of the plurality of random bytes, if the case tampering event happens in the computer system ; wherein the MCU performs the operation of: deleting the plurality of random bytes stored in the MCU and the at least one hardware by using a power supply, to fail the secure boot, in response to the signal transmitted by the at least one sensor . a microcontroller unit (MCU) ; a trusted platform module (TPM) , for generating a plurality of random bytes for a secure boot of the computer system , if the MCU does not comprise the plurality of random bytes; a bootloader , for storing information in the MCU and at least one hardware of the computer system and performing the secure boot, wherein the information comprises the plurality of random bytes, and the TPM is comprised in the bootloader , the at least one hardware of the computer system comprises a platform configuration register (PCR), and the PCR generates a first plurality of hashes according to the plurality of random bytes; an operating system (OS) , for performing the secure boot, wherein the secure boot of the computer system is completed if the first plurality of hashes are correct, and the secure boot of the computer system fails if the first plurality of hashes are incorrect; and at least one sensor , coupled to the MCU , for detecting a case tampering event in the computer system , and transmitting a signal for triggering a deletion of the plurality of random bytes, if the case tampering event happens in the computer system ; wherein the MCU performs the operation of: deleting the plurality of random bytes stored in the MCU and the at least one hardware by using a power supply, to fail the secure boot, in response to the signal transmitted by the at least one sensor .
Whey protein product having a ratio of whey protein to casein in the range from 80:20 to 50:50, a total protein content of 40% to 60% on dry matter basis and a protein content of 2.5 to 8% by weight based on the weight of the product, wherein the product is a beverage and wherein the product is produced by a method comprising - subjecting a milk-based raw material to microfiltration to separate an ideal whey as a microfiltration permeate and a casein concentrate as a microfiltration retentate, - subjecting at least a portion of the microfiltration permeate to ultrafiltration to provide an ultrafiltration permeate and a whey protein concentrate as an ultrafiltration retentate, - composing a whey protein product from the ultrafiltration retentate and a casein-containing material so as to provide said whey protein product. - subjecting a milk-based raw material to microfiltration to separate an ideal whey as a microfiltration permeate and a casein concentrate as a microfiltration retentate, - subjecting at least a portion of the microfiltration permeate to ultrafiltration to provide an ultrafiltration permeate and a whey protein concentrate as an ultrafiltration retentate, - composing a whey protein product from the ultrafiltration retentate and a casein-containing material so as to provide said whey protein product.
A method for manufacturing a capsule comprising: applying a laser marking to a sheet of material of a pair of sheets of material; forming a capsule from portions of the pair of sheets of material using a pair of die rollers ; wherein each die roller of the pair of die rollers comprises a cavity allowing the capsule to be formed from the portions of the pair of sheets of material and a filler; wherein the location of the laser marking on the sheet of material of the pairs of sheets of material is established such that the laser marking does not overlap at least one of a seal or a joint between the pair of sheets of material formed during the formation of the capsule; wherein a laser marking system is positioned relative to the die rollers such that the film is marked prior to the formation of the softgel capsules; characterized in that the laser marking system is configured in location and with respect to the softgel sheet such that the laser marking is applied to the surface of the softgel sheet which will form the inner surface of the softgel capsule such that the external surface of the softgel capsule is not marked. applying a laser marking to a sheet of material of a pair of sheets of material; forming a capsule from portions of the pair of sheets of material using a pair of die rollers ; wherein each die roller of the pair of die rollers comprises a cavity allowing the capsule to be formed from the portions of the pair of sheets of material and a filler; wherein the location of the laser marking on the sheet of material of the pairs of sheets of material is established such that the laser marking does not overlap at least one of a seal or a joint between the pair of sheets of material formed during the formation of the capsule; wherein a laser marking system is positioned relative to the die rollers such that the film is marked prior to the formation of the softgel capsules; characterized in that the laser marking system is configured in location and with respect to the softgel sheet such that the laser marking is applied to the surface of the softgel sheet which will form the inner surface of the softgel capsule such that the external surface of the softgel capsule is not marked.
A method for operating a spark ignited gaseous fuel internal combustion engine including at least one main combustion chamber , a pre-chamber assembly including a pre-chamber , the pre-chamber being configured to be fluidly connected to the main combustion chamber ,and at least one ignition device (34; 134) accommodated in the pre-chamber assembly and configured to initiate an ignition event within an ignition region , the method comprising: supplying pressurized fuel to the ignition region at times between about 30° to about 0°, particularly between about 10° to about 2° crank angle before the ignition event is initiated by the ignition device (34; 134) for enriching the ignition region with fuel and generating a stratified charge of combustion mixture in the pre-chamber , an enriched combustion mixture in the ignition region and a lean combustion mixture in the rest of the pre-chamber ; and initiating an ignition event in the ignition region for combusting the enriched air/fuel mixture within the ignition region . supplying pressurized fuel to the ignition region at times between about 30° to about 0°, particularly between about 10° to about 2° crank angle before the ignition event is initiated by the ignition device (34; 134) for enriching the ignition region with fuel and generating a stratified charge of combustion mixture in the pre-chamber , an enriched combustion mixture in the ignition region and a lean combustion mixture in the rest of the pre-chamber ; and initiating an ignition event in the ignition region for combusting the enriched air/fuel mixture within the ignition region .
An acoustic rangefinder apparatus , comprising: a substrate ; a lid mounted to the substrate ; a micromachined ultrasonic transducer, MUT, on the substrate or the lid , wherein the MUT includes an actuatable membrane attached to a MUT substrate with a cavity formed in the MUT substrate ; an application specific integrated circuit, ASIC, on the substrate operatively coupled to the MUT , wherein the lid encloses the MUT and the ASIC , wherein the lid or substrate includes an acoustic aperture , wherein the cavity is between the actuatable membrane and the acoustic aperture in the lid or substrate ; wherein the lid or substrate includes a plurality of electrical interconnects to connect to the ASIC ; wherein the ASIC is configured to drive the membrane to transmit an acoustic signal and detect a return signal, and wherein the ASIC is configured to determine a time of flight between emitting the acoustic signal and detecting the return signal. a substrate ; a lid mounted to the substrate ; a micromachined ultrasonic transducer, MUT, on the substrate or the lid , wherein the MUT includes an actuatable membrane attached to a MUT substrate with a cavity formed in the MUT substrate ; an application specific integrated circuit, ASIC, on the substrate operatively coupled to the MUT , wherein the lid encloses the MUT and the ASIC , wherein the lid or substrate includes an acoustic aperture , wherein the cavity is between the actuatable membrane and the acoustic aperture in the lid or substrate ; wherein the lid or substrate includes a plurality of electrical interconnects to connect to the ASIC ; wherein the ASIC is configured to drive the membrane to transmit an acoustic signal and detect a return signal, and wherein the ASIC is configured to determine a time of flight between emitting the acoustic signal and detecting the return signal.
Mixing and conveying system for dry construction materials which can be obtained from a storage silo by means of an openable and closable closure flap , having a drivable conveying screw , which is arranged below the closure flap and mounted in a tube , for removing dry construction material, whereby, after this this conveying screw , a mixing and buffer container with a connection piece for the addition of water and an inner drivable agitator or a helix is arranged, characterized that the mixing and buffer container runs out at the bottom into a channel or a cone and opens out into a pipe with a pump conveying screw with its own drive , via which the mortar mixture worked up in the mixing and buffer container can be conveyed into the pump hose , the contents of the mixing and buffer container being at least the 1.5 fold of the maximum minute delivery rate of the pump screw conveyor .
Connection device for media lines with at least one insert part , at least one cover plate , at least one base plate , at least one fluid channel and at least one connection opening for at least partially receiving the insert part , wherein the insert part has a connection interface for establishing a connection with a media line, wherein the insert part can be detachably inserted at least partially into the connection opening , wherein the cover plate can be connected to the base plate , and wherein the connection opening extends at least partially in the base plate , wherein the insert part comprises at least one connecting means for positive latching with the cover plate , the connecting means is designed as at least two latching hooks , the latching hooks themselves or in combination with at least one part of the insert part are radially resilient, and the connection opening comprises a plurality of leakage recesses extending in the longitudinal direction on its inner circumference on a first end side.
Photoacoustic detecting device intended to be applied, via a contact face , against a medium to be analysed, the device comprising: - a hollow cavity that opens onto a contact aperture , the contact aperture being produced in the contact face; - a pulsed or amplitude-modulated light source configured to emit, when it is activated, an incident light beam , in an emission spectral band (Δλ), through the cavity , to the contact aperture; - an acoustic transducer connected to the cavity, and configured to detect an acoustic wave extending through the cavity; such that, under the effect of an illumination of the medium by the incident light beam, the acoustic transducer detects an acoustic wave produced by heating of the medium ; the device being characterized in that : - the cavity comprises a membrane extending through the cavity, facing the contact face; - the membrane is bounded by a lower face (23 i ) and an upper face (23 s ), the membrane comprising through-apertures (23 o ) produced between the lower face and the upper face; - the membrane lies inside the cavity, at a nonzero distance (d) from the contact face . - a hollow cavity that opens onto a contact aperture , the contact aperture being produced in the contact face; - a pulsed or amplitude-modulated light source configured to emit, when it is activated, an incident light beam , in an emission spectral band (Δλ), through the cavity , to the contact aperture; - an acoustic transducer connected to the cavity, and configured to detect an acoustic wave extending through the cavity; - the cavity comprises a membrane extending through the cavity, facing the contact face; - the membrane is bounded by a lower face (23 i ) and an upper face (23 s ), the membrane comprising through-apertures (23 o ) produced between the lower face and the upper face; - the membrane lies inside the cavity, at a nonzero distance (d) from the contact face .
Method for data communication between a cableway controller and at least one vehicle of a cableway , wherein during operation of the cableway a current collector of the vehicle contacts a busbar by the movement of the vehicle , characterized in that a vehicle powerline modem of the vehicle is connected to the current collector , and a control powerline modem is connected to the busbar and the cableway controller , and in that, while the current collector contacts the busbar , a power line communication connection between the vehicle powerline modem and the control powerline modem is established, via which connection vehicle data (FD) are transmitted from the vehicle to the cableway controller or vice versa.