mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle including at least one front fender and at least one front fender liner , the front fender being connected to the front fender liner by at least one meltable connecting system configured to break or detach itself under the application of a force aiming to separate the front fender and the front fender liner from one another along the transverse axis of the vehicle, at least the front fender being attached to a front fender front support and at least the front fender liner being attached to a front fender lower support , said vehicle being characterized in that the meltable connecting system between the front fender and the front fender liner ensures the connection between the front fender front support and the front fender lower support .
A method of texturing a single crystalline silicon wafer comprising the steps of • surface healing by laser irradiation, to produce a smooth surface of the silicon wafer due to silicon melting and recrystallization of the silicon at the said surface; and • texturing, carried out onto the smooth surface of the silicon wafer wherein said texturing step comprises: a. Immersing the laser scanned wafer into dilute Hydrofluoric acid solution; b. Putting the wafer under flowing de-ionized water; c. Putting the wafer into a mixture of potassium hydroxide and isopropyl alcohol; d. Rinsing the wafer in flowing de-ionized water. • surface healing by laser irradiation, to produce a smooth surface of the silicon wafer due to silicon melting and recrystallization of the silicon at the said surface; and • texturing, carried out onto the smooth surface of the silicon wafer wherein said texturing step comprises: a. Immersing the laser scanned wafer into dilute Hydrofluoric acid solution; b. Putting the wafer under flowing de-ionized water; c. Putting the wafer into a mixture of potassium hydroxide and isopropyl alcohol; d. Rinsing the wafer in flowing de-ionized water. a. Immersing the laser scanned wafer into dilute Hydrofluoric acid solution; b. Putting the wafer under flowing de-ionized water; c. Putting the wafer into a mixture of potassium hydroxide and isopropyl alcohol; d. Rinsing the wafer in flowing de-ionized water.
Drainage element (10; 50; 60; 80; 90) having a channel body made of concrete comprising a U-shaped upper channel part , which is open above and includes an inlet and a water overflow, and at least one lower channel part , which is arranged underlying and includes a receiving space which is separated from the upper channel part by a horizontal separating section (16; 84) of the channel body and is completely surrounded by the channel body at least in an axial section of the drainage element, wherein the horizontal separating section (16; 84) forms the bottom of the upper channel part, and wherein the drainage element (10; 50; 60; 80; 90) has at least one outlet which extends from the upper channel part into the lower channel part , characterized in that the at least one outlet is designed as an overflow and extends upward from the bottom of the upper channel part and has an inlet opening spaced apart from the bottom of the upper channel part, the upper channel part has a sedimentation space for settling out solids from inflowing wastewater, and the lower channel part is designed to discharge the water exiting from the sedimentation space via the overflow.
One or more non-transitory computer-readable media storing instructions which, when executed by one or more processors in a device , cause the device to: provide, using a speaker on the device, an auditory cue; initiate, after providing the auditory cue, a hold period of a predetermined duration; receive a set of zero or more taps provided on a touch sensor on the device during the hold period; determine a number of taps in the set of zero or more taps by a secure microcontroller; store, after the conclusion of the hold period, a value in a sequence based on the number of taps by the secure microcontroller; transmit a value accepted signal from the secure microcontroller to an applications processor after storing the number of taps; and generate a digit received symbol for a display of the device using the applications processor after receiving the value accepted signal on the applications processor. provide, using a speaker on the device, an auditory cue; initiate, after providing the auditory cue, a hold period of a predetermined duration; receive a set of zero or more taps provided on a touch sensor on the device during the hold period; determine a number of taps in the set of zero or more taps by a secure microcontroller; store, after the conclusion of the hold period, a value in a sequence based on the number of taps by the secure microcontroller; transmit a value accepted signal from the secure microcontroller to an applications processor after storing the number of taps; and generate a digit received symbol for a display of the device using the applications processor after receiving the value accepted signal on the applications processor.
A computer-implemented image fusion method, comprising: obtaining a visible light image generated by a visible light sensor and an invisible light image generated by an invisible light sensor, wherein there is a correspondence between the visible light image and the invisible light image; fusing the visible light image and the invisible light image to create a first synthetic image; denoising the visible light image and the first synthetic image; and fusing the denoised visible light image and the denoised first synthetic image to generate a second synthetic image. obtaining a visible light image generated by a visible light sensor and an invisible light image generated by an invisible light sensor, wherein there is a correspondence between the visible light image and the invisible light image; fusing the visible light image and the invisible light image to create a first synthetic image; denoising the visible light image and the first synthetic image; and fusing the denoised visible light image and the denoised first synthetic image to generate a second synthetic image.
A laser level comprising • at least a first laser module , comprising □ a laser diode and □ an optical unit, • a holder arranging at least the first laser module, and • a housing , in which the holder is suspended with a gimbal or ball joint, the optical unit comprising • a collimating lens □ arranged along the beam path following the laser diode, and □ configured for collimating a beam emitted by the laser diode; • a pair of partially transmitting mirrors , each □ arranged along the beam path after the collimating lens, and □ configured for laterally reflecting less than half of the collimated beam · in terms of the beam cross-section, and · in terms of the beam intensity; and • a cylindrical lens , characterised in that the cylindrical lens is: □ arranged along the beam path after the pair of partially transmitting mirrors, and □ configured for shaping · the parts of the collimated beam which transmitted through the pair of partially transmitting mirrors and · the part of the collimated beam which bypassed the pair of partially transmitting mirrors into a fan beam . • at least a first laser module , comprising □ a laser diode and □ an optical unit, □ a laser diode and □ an optical unit, • a holder arranging at least the first laser module, and • a housing , in which the holder is suspended with a gimbal or ball joint, the optical unit comprising • a collimating lens □ arranged along the beam path following the laser diode, and □ configured for collimating a beam emitted by the laser diode; □ arranged along the beam path following the laser diode, and □ configured for collimating a beam emitted by the laser diode; • a pair of partially transmitting mirrors , each □ arranged along the beam path after the collimating lens, and □ configured for laterally reflecting less than half of the collimated beam · in terms of the beam cross-section, and · in terms of the beam intensity; and □ arranged along the beam path after the collimating lens, and □ configured for laterally reflecting less than half of the collimated beam · in terms of the beam cross-section, and · in terms of the beam intensity; and · in terms of the beam cross-section, and · in terms of the beam intensity; and • a cylindrical lens , □ arranged along the beam path after the pair of partially transmitting mirrors, and □ configured for shaping · the parts of the collimated beam which transmitted through the pair of partially transmitting mirrors and · the part of the collimated beam which bypassed the pair of partially transmitting mirrors into a fan beam . · the parts of the collimated beam which transmitted through the pair of partially transmitting mirrors and · the part of the collimated beam which bypassed the pair of partially transmitting mirrors into a fan beam .
Apparatus for brewing infusion material, said infusion material being hold in a filtering packet , said apparatus comprising : - a brew container configured for holding water and a filtering packet of infusion material, and - a basket configured for holding the filtering packet and configured for being hold in the brew container, said basket comprising a bottom wall, a top wall and a lateral side wall, said side wall extending from the bottom wall to the top wall, and said bottom and top walls comprising openings , - an actuator to rotate the basket on itself inside the brew container around the central axis (XX') extending between the top wall and the bottom wall, characterized in that said basket comprises blades , said blades being configured to generate an axial flow of water through the basket, when the basket is rotated within the brew container filled with water. - a brew container configured for holding water and a filtering packet of infusion material, and - a basket configured for holding the filtering packet and configured for being hold in the brew container, said basket comprising a bottom wall, a top wall and a lateral side wall, said side wall extending from the bottom wall to the top wall, and said bottom and top walls comprising openings , - an actuator to rotate the basket on itself inside the brew container around the central axis (XX') extending between the top wall and the bottom wall, characterized in that said basket comprises blades , said blades being configured to generate an axial flow of water through the basket, when the basket is rotated within the brew container filled with water.
Jet pump comprising a jet nozzle for accelerating a propellant, wherein the jet nozzle has a convergent inlet portion and an outlet portion which is connected to the convergent inlet portion , wherein the outlet portion comprises an inner space which is surrounded by an inner wall and which diverges at an opening angle , wherein the inner wall defines the opening angle directly after a narrowest cross section at an entry opening of the inner space , characterized in that the opening angle is constructed in such a manner that a propellant which flows through the outlet portion at subsonic speed is released from the inner wall , wherein the outlet portion does not act as a diffusor for the propellant which flows at subsonic speed, and a propellant which flows through the outlet portion at supersonic speed is guided by the inner wall , wherein the opening angle is more than 7° and at most 45°.
Voting system via a computer server system connected to the internet, with the computer server system being configured to simultaneously execute two operations following the voting by a voter: a. on the one hand, the update of a voters' database, by changing the status of the voter from "vote pending" to "voted", without keeping a track of the time of the voting so that it is not possible to corelate the vote and the information contained in the voters' database, and b. on the other hand, the creation of a file stored in a directory on the server, containing, in unencrypted form, the content of the vote, with the name of this file consisting of a cryptographic hashing of a parameter specific to the voter, and a verification password entered by the voter and not saved by the system, such that the voter is saved as having voted, and the content of their vote is totally detached from the voter profile, and that no one - except for the voter themself, can make a connection between the two. a. on the one hand, the update of a voters' database, by changing the status of the voter from "vote pending" to "voted", without keeping a track of the time of the voting so that it is not possible to corelate the vote and the information contained in the voters' database, and b. on the other hand, the creation of a file stored in a directory on the server, containing, in unencrypted form, the content of the vote, with the name of this file consisting of a cryptographic hashing of a parameter specific to the voter, and a verification password entered by the voter and not saved by the system,
A method of providing packet synchronization in a Virtual Private Network, the method comprising, at a node providing backhaul service to a plurality of Service Providers in the Virtual Private Network: receiving (S1) a synchronization control packet; identifying (S2) a characteristic relating to the identity of a Service Provider of the plurality of Service Providers, wherein the step of identifying the characteristic relating to the identity of the Service Provider comprises identifying (S3) an Ethernet port at which the synchronization control packet was received; providing (S4; S8) synchronization information to the node on the basis of the identified characteristic; using (S4) a multiple output clock, each output providing a frequency synchronization according to the identified characteristic of the Service Provider handling (S5; S9) subsequent packets associated with the identified Service Provider using the synchronization information; for each Service Provider of the plurality of service Providers, providing (S6) a packet time engine instance, each packet time engine instance arranged to provide time and phase synchronization specific to the Service Provider; and for the synchronization control packet, identifying the Service Provider associated with the synchronization control packet; determining (S7) the packet time engine instance associated with the identified Service Provider; and using (S8) any of the time and phase data from the packet time engine instance to synchronize the node. receiving (S1) a synchronization control packet; identifying (S2) a characteristic relating to the identity of a Service Provider of the plurality of Service Providers, wherein the step of identifying the characteristic relating to the identity of the Service Provider comprises identifying (S3) an Ethernet port at which the synchronization control packet was received; providing (S4; S8) synchronization information to the node on the basis of the identified characteristic; using (S4) a multiple output clock, each output providing a frequency synchronization according to the identified characteristic of the Service Provider handling (S5; S9) subsequent packets associated with the identified Service Provider using the synchronization information; for each Service Provider of the plurality of service Providers, providing (S6) a packet time engine instance, each packet time engine instance arranged to provide time and phase synchronization specific to the Service Provider; and for the synchronization control packet, identifying the Service Provider associated with the synchronization control packet; determining (S7) the packet time engine instance associated with the identified Service Provider; and using (S8) any of the time and phase data from the packet time engine instance to synchronize the node.
A method for simulating a compressor of a gas turbine , the method comprising: determining , with a processor , a predicted pressure ratio and a predicted mass flow of the compressor based on a model of the gas turbine ; monitoring an actual pressure ratio and an actual mass flow of the compressor ; determining , with the processor , difference values between at least one of the predicted pressure ratio and the actual pressure ratio and the predicted mass flow and the actual mass flow; modifying the difference values using an error correction system to generate a compressor flow modifier; using the compressor flow modifier to adjust the predicted pressure ratio and the predicted mass flow; wherein using the compressor flow modifier to adjust the predicted pressure ratio and the predicted mass flow comprises adjusting the predicted pressure ratio as a function of the compressor flow modifier and a gain factor; and wherein adjusting the predicted pressure ratio as a function of the compressor flow modifier and a gain factor comprises adjusting the predicted pressure ratio according to the equation: PR _ PRED = PR _ MAP − 1 ∗ KCMP _ FLW − 1 * GAIN + 1 + 1 wherein PR_PRED corresponds to the predicted pressure ratio, PR _MAP corresponds to an unadjusted pressure ratio, KCMP_FLW corresponds to the compressor flow modifier and GAIN corresponds to the gain factor. determining , with a processor , a predicted pressure ratio and a predicted mass flow of the compressor based on a model of the gas turbine ; monitoring an actual pressure ratio and an actual mass flow of the compressor ; determining , with the processor , difference values between at least one of the predicted pressure ratio and the actual pressure ratio and the predicted mass flow and the actual mass flow; modifying the difference values using an error correction system to generate a compressor flow modifier; using the compressor flow modifier to adjust the predicted pressure ratio and the predicted mass flow; wherein using the compressor flow modifier to adjust the predicted pressure ratio and the predicted mass flow comprises adjusting the predicted pressure ratio as a function of the compressor flow modifier and a gain factor; and wherein adjusting the predicted pressure ratio as a function of the compressor flow modifier and a gain factor comprises adjusting the predicted pressure ratio according to the equation: PR _ PRED = PR _ MAP − 1 ∗ KCMP _ FLW − 1 * GAIN + 1 + 1 wherein PR_PRED corresponds to the predicted pressure ratio, PR _MAP corresponds to an unadjusted pressure ratio, KCMP_FLW corresponds to the compressor flow modifier and GAIN corresponds to the gain factor.
A method for determining time information, comprising: obtaining , by a network node, information sent by a terminal device; and determining , by the network node, at least one of the following based on the information: a first time interval between downlink scheduling and downlink data transmission, a second time interval between the downlink data transmission and sending a feedback message by the terminal device after receiving the downlink data, and a third time interval between uplink scheduling and uplink data transmission; characterized in that the information comprises information related to at least one of an operating band and a bandwidth supported by the terminal device. obtaining , by a network node, information sent by a terminal device; and determining , by the network node, at least one of the following based on the information: a first time interval between downlink scheduling and downlink data transmission, a second time interval between the downlink data transmission and sending a feedback message by the terminal device after receiving the downlink data, and a third time interval between uplink scheduling and uplink data transmission;
A test system comprising: a parametric test circuit configured to receive a signal from a unit under test , the parametric test circuit comprising a circuit to sample the signal from the unit under test to obtain data, wherein the signal represents a data pattern that is repetitive in cycles, and a processor configured to generate an eye diagram based on the sampled data, the eye diagram representing parametric information about the signal from the unit under test; the test system is characterised by a functional test circuit to receive the signal from the unit under test and to perform one or more functional tests on the signal from the unit under test, wherein the functional test circuit is configured to test informational content of the signal from the unit under test by identifying data that the signal represents and determining whether the represented data is correct based on a known test signal; wherein the test systems is configured to receive the signal from the unit under test and to allow the signal from the unit under test to pass to the functional test circuit inline without changing at least part of the signal from the unit under test so that the signal from the unit under test is sent concurrently to the parametric test circuit and to the functional test circuit. a parametric test circuit configured to receive a signal from a unit under test , the parametric test circuit comprising a circuit to sample the signal from the unit under test to obtain data, wherein the signal represents a data pattern that is repetitive in cycles, and a processor configured to generate an eye diagram based on the sampled data, the eye diagram representing parametric information about the signal from the unit under test; the test system is characterised by a circuit to sample the signal from the unit under test to obtain data, wherein the signal represents a data pattern that is repetitive in cycles, and a processor configured to generate an eye diagram based on the sampled data, the eye diagram representing parametric information about the signal from the unit under test; the test system is characterised by a functional test circuit to receive the signal from the unit under test and to perform one or more functional tests on the signal from the unit under test, wherein the functional test circuit is configured to test informational content of the signal from the unit under test by identifying data that the signal represents and determining whether the represented data is correct based on a known test signal; wherein the test systems is configured to receive the signal from the unit under test and to allow the signal from the unit under test to pass to the functional test circuit inline without changing at least part of the signal from the unit under test so that the signal from the unit under test is sent concurrently to the parametric test circuit and to the functional test circuit.
A preparation method of a modified starch ether for improving the anti-sliding property of a ceramic tile adhesive, comprising a chemical modification of subjecting a starch to one-step etherification to obtain a starch ether, followed by a physical modification, wherein the chemical modification of one-step etherification comprises the following steps: the starch, an alkalizer, an alcohol and an inhibitor are mixed; an etherifying agent is added thereto; and etherification is conducted at a lowered temperature of 10 °C to 20 °C for 1.5 h to 2.5 h, and then conducted at 40 °C for 2.5 h to 3 h and at 60 °C for 4 h to 5 h; the etherifying agent is a combination of chloroacetic acid, propylene oxide, and ethylene oxide; a combination of chloroacetic acid and propylene oxide; or a combination of propylene oxide and ethylene oxide; and the physical modification is conducted by mixing the starch ether, a thickener, and a rheological agent for 40 min to 60 min. the chemical modification of one-step etherification comprises the following steps: the starch, an alkalizer, an alcohol and an inhibitor are mixed; an etherifying agent is added thereto; and etherification is conducted at a lowered temperature of 10 °C to 20 °C for 1.5 h to 2.5 h, and then conducted at 40 °C for 2.5 h to 3 h and at 60 °C for 4 h to 5 h; the etherifying agent is a combination of chloroacetic acid, propylene oxide, and ethylene oxide; a combination of chloroacetic acid and propylene oxide; or a combination of propylene oxide and ethylene oxide; and the physical modification is conducted by mixing the starch ether, a thickener, and a rheological agent for 40 min to 60 min.