mhurhangee/patent-ind-claim-en huggingface dataset:
A mounting assembly for a hair cutting appliance , the mounting assembly comprising: a head configured to receive a cutting unit ; a base coupled to the head ; a pivoting mechanism coupling the base to the head , wherein the pivoting mechanism is configured to permit pivoting movement of the head relative to the base about a head pivot axis ; characterised by : a rotatable locking element configured to be rotated between: (i) an engaged position, in which the locking element obstructs pivoting movement of the head to thereby lock the head in a locked position about the head pivot axis , and (ii) a disengaged position in which the locking element does not obstruct pivoting movement of the head such that the head is freely pivotable relative to the base about the head pivot axis ; wherein the locking element is configured such that rotating the locking element to the engaged position drives the head into the locked position. a head configured to receive a cutting unit ; a base coupled to the head ; a pivoting mechanism coupling the base to the head , wherein the pivoting mechanism is configured to permit pivoting movement of the head relative to the base about a head pivot axis ; characterised by : a rotatable locking element configured to be rotated between: (i) an engaged position, in which the locking element obstructs pivoting movement of the head to thereby lock the head in a locked position about the head pivot axis , and (ii) a disengaged position in which the locking element does not obstruct pivoting movement of the head such that the head is freely pivotable relative to the base about the head pivot axis ; wherein the locking element is configured such that rotating the locking element to the engaged position drives the head into the locked position. a rotatable locking element configured to be rotated between: (i) an engaged position, in which the locking element obstructs pivoting movement of the head to thereby lock the head in a locked position about the head pivot axis , and (ii) a disengaged position in which the locking element does not obstruct pivoting movement of the head such that the head is freely pivotable relative to the base about the head pivot axis ; (i) an engaged position, in which the locking element obstructs pivoting movement of the head to thereby lock the head in a locked position about the head pivot axis , and (ii) a disengaged position in which the locking element does not obstruct pivoting movement of the head such that the head is freely pivotable relative to the base about the head pivot axis ; wherein the locking element is configured such that rotating the locking element to the engaged position drives the head into the locked position.
A user equipment , UE, to identify access networks, the UE comprising circuitry to: receive access network assistance information, from a base station of a RAN to assist identification of the preferred access network, wherein the access network assistance information is to include a received signal strength threshold and a network load threshold; receive Access Network Discovery and Selection Function, ANDSF policy; determine that an ANDSF rules overriding condition is present; identify a preferred access network based on ANDSF rules if no ANDSF rules overriding condition is present; identify the preferred access network based on local UE criteria if an ANDSF rules overriding condition is present; and transmit or receive data over the preferred access network, wherein the circuitry is further to: measure received signal strength values and network loads of access networks, and wherein the circuitry includes a network selection and traffic routing circuitry configured to route traffic among access networks based on comparison of the received signal strength threshold to the signal strength values measured by the UE and based on comparison of the network load threshold to a network load. receive access network assistance information, from a base station of a RAN to assist identification of the preferred access network, wherein the access network assistance information is to include a received signal strength threshold and a network load threshold; receive Access Network Discovery and Selection Function, ANDSF policy; determine that an ANDSF rules overriding condition is present; identify a preferred access network based on ANDSF rules if no ANDSF rules overriding condition is present; identify the preferred access network based on local UE criteria if an ANDSF rules overriding condition is present; and transmit or receive data over the preferred access network, wherein the circuitry is further to: measure received signal strength values and network loads of access networks, and wherein the circuitry includes a network selection and traffic routing circuitry configured to route traffic among access networks based on comparison of the received signal strength threshold to the signal strength values measured by the UE and based on comparison of the network load threshold to a network load. measure received signal strength values and network loads of access networks, and wherein the circuitry includes a network selection and traffic routing circuitry configured to route traffic among access networks based on comparison of the received signal strength threshold to the signal strength values measured by the UE and based on comparison of the network load threshold to a network load.
A method for improving sleep quality, which comprises consistently measuring a pressure applied by a user by means of various sensors controlling various regions of a mattress, characterized in that it comprises the steps of: - calculating a sleep quality index (SQI) for at least one night based on prominent movements of the user detected by the sensors throughout the night, where a score is assigned to each detected prominent movement depending on the time of night at which it occurs; - calculating a weight factor for each region of the mattress comprising the steps of: ∘ calculating the mean pressure measured by each sensor throughout the night; ∘ calculating the difference between the mean pressure measured by each sensor and the pressure measured by that sensor when there is no user on the mattress; ∘ calculating the mean pressure difference for each region of the mattress; - comparing the weight factor with a reference value; - if the weight factor is greater than the reference value, giving an indication for a support level in that location to be reduced; whereas if the weight factor is less than the reference value, giving an indication for the support level to be increased; - increasing or reducing the support level in each location depending on the comparison of the weight factor with the reference value. - calculating a sleep quality index (SQI) for at least one night based on prominent movements of the user detected by the sensors throughout the night, where a score is assigned to each detected prominent movement depending on the time of night at which it occurs; - calculating a weight factor for each region of the mattress comprising the steps of: ∘ calculating the mean pressure measured by each sensor throughout the night; ∘ calculating the difference between the mean pressure measured by each sensor and the pressure measured by that sensor when there is no user on the mattress; ∘ calculating the mean pressure difference for each region of the mattress; ∘ calculating the mean pressure measured by each sensor throughout the night; ∘ calculating the difference between the mean pressure measured by each sensor and the pressure measured by that sensor when there is no user on the mattress; ∘ calculating the mean pressure difference for each region of the mattress; - comparing the weight factor with a reference value; - if the weight factor is greater than the reference value, giving an indication for a support level in that location to be reduced; whereas if the weight factor is less than the reference value, giving an indication for the support level to be increased; - increasing or reducing the support level in each location depending on the comparison of the weight factor with the reference value.
A polymer represented by the following formula (P2): wherein in the formula (P2), D represents a dye backbone of a dye having absorption in a near-infrared region, A represents a main chain of the polymer, L1 and L2 each independently represent a linker, L1 and L2 may not be present, x represents an integer of more than 1 , E is selected from any of halogen, an alkyl group, a hydroxyl group, a carboxyl group, an amino group, a thiol group, an azido group, a diamine, a succinimidyl ester group, a maleimide group and a succinimide group, a low-molecular compound, a dye, a reporter molecule, a target-binding molecule and a polymer, and B is represented by the following formula (s1): wherein in the formula (s1), a represents an integer of 1 or more and 6 or less, n, m and I each independently represent an integer of 1 to 3, and ∗ represents binding to L2 or A, wherein the A is a structure represented by the following formula (m1): wherein in the formula (m1), R 1 to R 3 each independently represent a hydrogen atom, or a substituted or unsubstituted hydrocarbon group having 1 or more and 4 or less carbon atoms; and each substituent in R 1 to R 3 is a functional group including at least one selected from the group consisting of a halogen atom, an oxygen atom and a nitrogen atom; and in the formula (m1), ∗ represents binding to L2 or B, ∗∗ represents binding to L1 or D, and each terminal not marked represents binding to E, and wherein a number average molecular weight of the polymer is 5000 or more. wherein in the formula (P2), D represents a dye backbone of a dye having absorption in a near-infrared region, A represents a main chain of the polymer, L1 and L2 each independently represent a linker, L1 and L2 may not be present, x represents an integer of more than 1 , E is selected from any of halogen, an alkyl group, a hydroxyl group, a carboxyl group, an amino group, a thiol group, an azido group, a diamine, a succinimidyl ester group, a maleimide group and a succinimide group, a low-molecular compound, a dye, a reporter molecule, a target-binding molecule and a polymer, and B is represented by the following formula (s1): wherein in the formula (s1), a represents an integer of 1 or more and 6 or less, n, m and I each independently represent an integer of 1 to 3, and ∗ represents binding to L2 or A, wherein the A is a structure represented by the following formula (m1): wherein in the formula (m1), R 1 to R 3 each independently represent a hydrogen atom, or a substituted or unsubstituted hydrocarbon group having 1 or more and 4 or less carbon atoms; and each substituent in R 1 to R 3 is a functional group including at least one selected from the group consisting of a halogen atom, an oxygen atom and a nitrogen atom; and in the formula (m1), ∗ represents binding to L2 or B, ∗∗ represents binding to L1 or D, and each terminal not marked represents binding to E, and wherein a number average molecular weight of the polymer is 5000 or more.
A tablet comprising an inner core and an outer layer, wherein the inner core is an enteric-coated tablet comprising acetylsalicylic acid, and the outer layer comprises a potassium-competitive acid blocker (P-CAB) free of enteric coating, and fumaric acid, wherein the P-CAB is 1-[5-(2-fluorophenyl)-1-(pyridin-3-ylsulfonyl)-1H-pyrrol-3-yl]-N-methylmethanamine (vonoprazan) or a salt thereof, and wherein the content ratio of the P-CAB and the fumaric acid (P-CAB:fumaric acid) is 1:0.001 to 1:0.01 in a weight ratio. the inner core is an enteric-coated tablet comprising acetylsalicylic acid, and the outer layer comprises a potassium-competitive acid blocker (P-CAB) free of enteric coating, and fumaric acid, wherein the P-CAB is 1-[5-(2-fluorophenyl)-1-(pyridin-3-ylsulfonyl)-1H-pyrrol-3-yl]-N-methylmethanamine (vonoprazan) or a salt thereof, and wherein the content ratio of the P-CAB and the fumaric acid (P-CAB:fumaric acid) is 1:0.001 to 1:0.01 in a weight ratio.
Artificial breakwater reef comprising: - At least a foundation bench ; - At least one tout-venant core placed on the foundation bench comprising gravel and a geotextile substrate; - A plurality of natural stones placed on the tout-venant core ; and - At least one artificial matrix alternated to layers of the natural stones ; wherein the artificial matrix comprises an overwrap made of a permeable and biodegradable material, containing an aggregating mixture comprising at least a hydraulic binder, configured to solidify rapidly in seawater, characterised in that the aggregating mixture is added with dyes, and comprises inorganic solid waste classified as non-toxic. - At least a foundation bench ; - At least one tout-venant core placed on the foundation bench comprising gravel and a geotextile substrate; - A plurality of natural stones placed on the tout-venant core ; and - At least one artificial matrix alternated to layers of the natural stones ;
Threshing element intended to be mounted on a cylindrical rotor fitted on a combine harvester , of given radius (R1) and of given axis (XX') directed in the front/rear direction of the combine harvester , associated with a cylindrical base surface , of the same axis (XX') and of the same diameter as the surface of the rotor , containing the points of contact between the threshing element and the surface of the rotor and coincident with said surface of the rotor when said threshing element is mounted on said rotor , comprising an upper side formed by an inclined front side rising from said base surface up to a compression side arranged at a height h1 from the base surface , said compression side having - a cylindrical shape of radius equal to the radius of the base surface increased by said height (R+h1), or - a flat shape, wherein said height (h1) is measured at the intersection with the compression side of a radius of the cylinder formed by the base surface perpendicular to said compression surface , the front side and the compression side each forming a portion of the upper side characterised in that said threshing element supports at least two flat combing fins (35; 36), having a front edge (350; 360) rising from the surface of a given portion of the upper side forming an angle (β) of less than 45° with said surface, up to a top edge (351; 361) arranged at a constant height h2 from the base surface , and wherein the ratio (h2-h1)/h2 is between 0.30 and 0.50. - a cylindrical shape of radius equal to the radius of the base surface increased by said height (R+h1), or - a flat shape, wherein said height (h1) is measured at the intersection with the compression side of a radius of the cylinder formed by the base surface perpendicular to said compression surface ,
A tire for motorcycles comprising a toroidal carcass and a band layer , wherein the carcass is formed by a plurality of carcass plies in which carcass cords are arranged in parallel, the carcass plies are overlapped so that the carcass cords cross each other, the carcass plies include at least one turned up ply which includes a main body portion extending between a tread portion and a bead core of a bead portion through a sidewall portion and a turned up portion connected with the main body portion and turned up around the bead core so as to extend outwardly in a tire radial direction, the carcass cords of the main body portion are arranged at an angle of 20 degrees or more and 70 degrees or less with respect to a tire equator (c), and the band layer is arranged radially outside the carcass and inside the tread portion , and includes a jointless band ply in which band cords are spirally arranged at angles of 5 degrees or less with respect to the tire circumferential direction, characterized in that the carcass cords of the turned up portion are arranged at an angle different from the carcass cords of the main body portion with respect to a tire circumferential direction, an angle difference between the carcass cords of the main body portion and the carcass cords of the turned up portion being 3 degrees or more and 15 degrees or less.
A pneumatic tool comprising: a drive mechanism configured to be actuated by a pneumatic pressure of compressed air; a body housing having the drive mechanism embedded therein; a grip housing connected to the body housing ; and an electromagnetic valve (32; 132) configured to control supply of the compressed air to the drive mechanism , wherein the electromagnetic valve (32; 132) is arranged on an opposite side to the body housing , as seen in an extension direction of the grip housing , characterized in that the electromagnetic valve (32; 132) is arranged at an end of the grip housing . a drive mechanism configured to be actuated by a pneumatic pressure of compressed air; a body housing having the drive mechanism embedded therein; a grip housing connected to the body housing ; and an electromagnetic valve (32; 132) configured to control supply of the compressed air to the drive mechanism , wherein the electromagnetic valve (32; 132) is arranged on an opposite side to the body housing , as seen in an extension direction of the grip housing , characterized in that the electromagnetic valve (32; 132) is arranged at an end of the grip housing .
Method for controlling a generator comprising an inverter provided with electronic switches which, controlled based on instantaneous duty cycles α abc , allow said inverter to deliver to an electrical distribution network electric power P abc of alternating voltage, called source voltage V abc , and alternating current, called source current I abc , said voltage V abc and current I abc having a frequency f abc , the inverter being controlled by a control rule which comprises: a) an observation loop configured to estimate a network current (I r ) actually required by the electrical distribution network, the network current being estimated from the source voltage V abc , the source current I abc and the frequency f abc by modelling the connection between the inverter and the electrical distribution network, b) an integration loop configured to evaluate a deviation ε between the source current I abc and the network current I r , c) a correction loop which, when the deviation ε is greater than a deviation called reference deviation ε ∗ , is configured to control the adjustment by the inverter of the instantaneous duty cycles α abc so as to reduce the deviation ε to a value lower than the reference deviation ε ∗ . a) an observation loop configured to estimate a network current (I r ) actually required by the electrical distribution network, the network current being estimated from the source voltage V abc , the source current I abc and the frequency f abc by modelling the connection between the inverter and the electrical distribution network, b) an integration loop configured to evaluate a deviation ε between the source current I abc and the network current I r , c) a correction loop which, when the deviation ε is greater than a deviation called reference deviation ε ∗ , is configured to control the adjustment by the inverter of the instantaneous duty cycles α abc so as to reduce the deviation ε to a value lower than the reference deviation ε ∗ .
A system for preventing attacks, on an organization having plural computers, via the computers' Universal Serial Bus, USB, ports, the system comprising: at least one processor configured to monitor at least one aspect of a connection between a peripheral and a computer's USB port, to identify aspects which match pre-configured criteria and responsively, to take action, wherein the system stores descriptor sets, each including at least one descriptor, for known rogue devices and for known legitimate devices and identifies peripherals which have these descriptors, wherein the system is updated by adding descriptor sets for new models or types of legitimate or rogue USB devices to system memory, when a Machine Learning, ML, based algorithm is able to classify a certain USB device as a legitimate non malicious device with a sufficiently high level of confidence, wherein the system determines that an unknown descriptor set, which does not match the descriptor sets for the known rogue devices and the known legitimate devices, is for an unknown legitimate device after the unknown descriptor set repeats for over a threshold number of USB devices in the organization. at least one processor configured to monitor at least one aspect of a connection between a peripheral and a computer's USB port, to identify aspects which match pre-configured criteria and responsively, to take action, wherein the system stores descriptor sets, each including at least one descriptor, for known rogue devices and for known legitimate devices and identifies peripherals which have these descriptors, wherein the system is updated by adding descriptor sets for new models or types of legitimate or rogue USB devices to system memory, when a Machine Learning, ML, based algorithm is able to classify a certain USB device as a legitimate non malicious device with a sufficiently high level of confidence,
Preparation device for preparing meals, the preparation device comprising the following features: a functional module having a rotatable element , and a drive means comprising a drive having a drive shaft having a coupling end for coupling the drive shaft to the rotatable element of the placeable functional module , characterised by a worktop having a top side and a bottom side and a through-opening , the drive being arranged together with the drive shaft of the drive means on the bottom side of the worktop , the functional module being placeable on the top side of the worktop , the drive shaft being movable between a rest position in which the coupling end is sunk in the worktop and an operating position in which the coupling end protrudes from the worktop . a functional module having a rotatable element , and a drive means comprising a drive having a drive shaft having a coupling end for coupling the drive shaft to the rotatable element of the placeable functional module , characterised by a worktop having a top side and a bottom side and a through-opening , the drive being arranged together with the drive shaft of the drive means on the bottom side of the worktop , the functional module being placeable on the top side of the worktop , the drive shaft being movable between a rest position in which the coupling end is sunk in the worktop and an operating position in which the coupling end protrudes from the worktop .
An aerosol generation device designed to operate with a consumable article , comprising: - a socket configured to receive the consumable article ; - a heater arranged at least partially adjacent to the socket and configured to heat the consumable article when it is received in the socket ; - at least a first sensor and a second sensor , each of the first sensor and the second sensor being configured to detect the consumable article inside at least a first portion of the socket , respectively a second portion of the socket and generate a first sensor signal (S24A), respectively a second sensor signal (S24B); - a controller configured to control the operation of the heater according to both sensor signals (S24A, S24B), wherein each sensor comprises a roller movable in rotation when the consumable article is being received in the corresponding portion of the socket or extracted from this portion . - a socket configured to receive the consumable article ; - a heater arranged at least partially adjacent to the socket and configured to heat the consumable article when it is received in the socket ; - at least a first sensor and a second sensor , each of the first sensor and the second sensor being configured to detect the consumable article inside at least a first portion of the socket , respectively a second portion of the socket and generate a first sensor signal (S24A), respectively a second sensor signal (S24B); - a controller configured to control the operation of the heater according to both sensor signals (S24A, S24B),