mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: executing a first encryption instruction to generate a first cryptographically encoded pointer to a memory location in memory for storing a first object, including: computing an encrypted slice of a base address of the memory location based, at least in part, on first context information associated with the first object and a first key; storing the encrypted slice of the base address in first bits of the first cryptographically encoded pointer; determining if the first object is to be stored in a memory region that is statically addressable, indicating, if the first object is to be stored in a memory region that is statically addressable, in the first cryptographically encoded pointer that the first context information to be used for decoding the first cryptographically encoded pointer is to be obtained from a first instruction operand in a memory access instruction. computing an encrypted slice of a base address of the memory location based, at least in part, on first context information associated with the first object and a first key; storing the encrypted slice of the base address in first bits of the first cryptographically encoded pointer; determining if the first object is to be stored in a memory region that is statically addressable, indicating, if the first object is to be stored in a memory region that is statically addressable, in the first cryptographically encoded pointer that the first context information to be used for decoding the first cryptographically encoded pointer is to be obtained from a first instruction operand in a memory access instruction.
Circuit for detecting a variation in inductance (Lx) of the magnetic circuit of an inductive displacement sensor, wherein the detector circuit comprises: - a first flip flop arranged to supply a first signal comprising a voltage pulse of necessary and sufficient duration to charge the coil to a threshold current, wherein the first signal is applied to a first terminal of the coil - a pulse generator configured to supply a reference signal comprising a reference pulse - a clock signal generator arranged to trigger the charge pulse and the reference pulse periodically and simultaneously - a second flip flop arranged to generate an output signal taking the status of the first signal on the trailing edge of the reference pulse. - a first flip flop arranged to supply a first signal comprising a voltage pulse of necessary and sufficient duration to charge the coil to a threshold current, wherein the first signal is applied to a first terminal of the coil - a pulse generator configured to supply a reference signal comprising a reference pulse - a clock signal generator arranged to trigger the charge pulse and the reference pulse periodically and simultaneously - a second flip flop arranged to generate an output signal taking the status of the first signal on the trailing edge of the reference pulse.
A method for manufacturing a flexible foldable display screen, comprising forming a flexible screen body on a glass substrate, the flexible screen body comprising a display area and a curing assembling area formed at an end of the flexible screen body; forming a pixel sparse area at an edge of the display area, wherein a pixel unit density of pixel units disposed in the pixel sparse area is smaller than that of pixel units disposed outside the pixel sparse area, and a pitch between adjacent pixel units in the pixel sparse area accommodates to an outer diameter of signal lines; disposing the signal lines evenly between the pixel units in the pixel sparse area; disposing a controlling IC in the curing assembling area; peeling off a part of the glass substrate corresponding to the display area; and forming a touch input region on a part of the glass substrate corresponding to the curing assembling area. forming a flexible screen body on a glass substrate, the flexible screen body comprising a display area and a curing assembling area formed at an end of the flexible screen body; forming a pixel sparse area at an edge of the display area, wherein a pixel unit density of pixel units disposed in the pixel sparse area is smaller than that of pixel units disposed outside the pixel sparse area, and a pitch between adjacent pixel units in the pixel sparse area accommodates to an outer diameter of signal lines; disposing the signal lines evenly between the pixel units in the pixel sparse area; disposing a controlling IC in the curing assembling area; peeling off a part of the glass substrate corresponding to the display area; and forming a touch input region on a part of the glass substrate corresponding to the curing assembling area.
Rotor group of a cooling pump of a cooling circuit of a vehicle, comprising: - a shaft, which extends along an axis (X-X), - a rotor fixed to a rotor end of the shaft and comprising a rotor frame having a central cavity in which the shaft extends and a plurality of inserts suitable to operate as rotor poles; - a main device that which extends along the axis (X-X) and comprises: i) a rotor body which extends from the shaft and surrounds the rotor suitable to integrally support the rotor at the rotor end; and ii) an impeller body which extends radially from the shaft at an impeller end thereof opposite the rotor end; the rotor group being characterized by the fact that the rotor frame has, parallel to the axis (X-X) a plurality of through holes, wherein the rotor body comprises a plurality of support pins respectively housed in said through holes. - a shaft, which extends along an axis (X-X), - a rotor fixed to a rotor end of the shaft and comprising a rotor frame having a central cavity in which the shaft extends and a plurality of inserts suitable to operate as rotor poles; - a main device that which extends along the axis (X-X) and comprises: i) a rotor body which extends from the shaft and surrounds the rotor suitable to integrally support the rotor at the rotor end; and ii) an impeller body which extends radially from the shaft at an impeller end thereof opposite the rotor end; i) a rotor body which extends from the shaft and surrounds the rotor suitable to integrally support the rotor at the rotor end; and ii) an impeller body which extends radially from the shaft at an impeller end thereof opposite the rotor end;
A compound of Formula I or a stereoisomer, tautomer, racemic, pro- or predrug in the form of an ester, salt, hydrate, or solvate thereof, Wherein R 1 is selected from-(C=O)-O-R 3 and -(C=O)-NR 4 R 5; R 2 is -halo; R 3 is selected from -H and -C 1-8 alkyl; R 4 and R 5 are each independently selected from -H, -C 1-8 alkyl, -Ar 2 and -Het 1; wherein said -C 1-8 alkyl is optionally substituted with one or more substituents -Ar 2; Ar 2 is a 5- to 10-membered aromatic cycle; wherein said -Ar 2 is optionally substituted with one or more substituents selected from; -halo, -C 1-6 alkyl, and -O-C 1-6 alkyl; wherein said -C 1-6 alkyl may be optionally substituted with from one to three -halo. Het 1 is a 5- to 10-membered aromatic or non-aromatic heterocycle, optionally comprising 1 to 3 N, O or S atoms; wherein said Het 1 is optionally substituted with one or more substituents selected from - halo, -C 1-6 alkyl, -O-C 1-6 alkyl; wherein said -C 1-6 alkyl may be optionally substituted with from one to three -halo; and wherein said compound is not R 1 is selected from-(C=O)-O-R 3 and -(C=O)-NR 4 R 5; R 2 is -halo; R 3 is selected from -H and -C 1-8 alkyl; R 4 and R 5 are each independently selected from -H, -C 1-8 alkyl, -Ar 2 and -Het 1; wherein said -C 1-8 alkyl is optionally substituted with one or more substituents -Ar 2; Ar 2 is a 5- to 10-membered aromatic cycle; wherein said -Ar 2 is optionally substituted with one or more substituents selected from; -halo, -C 1-6 alkyl, and -O-C 1-6 alkyl; wherein said -C 1-6 alkyl may be optionally substituted with from one to three -halo. Het 1 is a 5- to 10-membered aromatic or non-aromatic heterocycle, optionally comprising 1 to 3 N, O or S atoms; wherein said Het 1 is optionally substituted with one or more substituents selected from - halo, -C 1-6 alkyl, -O-C 1-6 alkyl; wherein said -C 1-6 alkyl may be optionally substituted with from one to three -halo; and wherein said compound is not
A method comprising: indicating, in a database, that a relational table (120, 331A, 331B) is for blockchain storage, wherein the relational table (120, 331A, 331B) contains at least one application column; adding, in response to said indicating that the relational table (120, 331A, 331B) is for blockchain storage, to same said relational table (120, 331A, 331B), at least one column that is hidden, wherein the at least one column that is hidden includes a cryptographic hash column; receiving a first request to store a first value in a particular application column of the at least one application column; calculating a first cryptographic hash value that is based on the at least one application column of a first new row for the relational table (120, 331A, 331B); storing, in the relational table (120, 331A, 331B), the first new row that contains: the first value in the particular application column and the first cryptographic hash value in the cryptographic hash column; receiving a second request to store a second value in the particular application column of the at least one application column; calculating a second cryptographic hash value that is based on the at least one application column of a second new row for the relational table (120, 331A, 331B) and a column of the at least one column that is hidden of the first new row; storing, in the relational table (120, 331A, 331B), the second new row that contains: the second value in the particular application column and the second cryptographic hash value in the cryptographic hash column. indicating, in a database, that a relational table (120, 331A, 331B) is for blockchain storage, wherein the relational table (120, 331A, 331B) contains at least one application column; adding, in response to said indicating that the relational table (120, 331A, 331B) is for blockchain storage, to same said relational table (120, 331A, 331B), at least one column that is hidden, wherein the at least one column that is hidden includes a cryptographic hash column; receiving a first request to store a first value in a particular application column of the at least one application column; calculating a first cryptographic hash value that is based on the at least one application column of a first new row for the relational table (120, 331A, 331B); storing, in the relational table (120, 331A, 331B), the first new row that contains: the first value in the particular application column and the first cryptographic hash value in the cryptographic hash column; receiving a second request to store a second value in the particular application column of the at least one application column; calculating a second cryptographic hash value that is based on the at least one application column of a second new row for the relational table (120, 331A, 331B) and a column of the at least one column that is hidden of the first new row; storing, in the relational table (120, 331A, 331B), the second new row that contains: the second value in the particular application column and the second cryptographic hash value in the cryptographic hash column.
A coated cutting tool consisting of a substrate of cemented carbide, cermet, ceramics, steel or cubic boron nitride and a multi-layered wear resistant coating deposited by chemical vapour deposition and having a total thickness from 4 to 25 μm, wherein the multi-layered wear resistant coating comprises a TiAICN layer (a) represented by the general formula Ti 1-x Al x C y N z with 0.2 ≤ x ≤ 0.97, 0 ≤ y ≤ 0.25 and 0.7 ≤ z ≤ 1.15 deposited by CVD, and a κ-Al 2 O 3 layer (b) of kappa aluminium oxide deposited by CVD immediately on top of the TiAICN layer (a), and wherein the Ti 1-x Al x C y N z layer (a) has an overall fiber texture with the plane preferentially growing parallel to the substrate surface, the fiber texture being characterized in that a pole figure of the Ti 1-x Al x C y N z layer (a), measured by X-ray diffraction or electron backscatter diffraction over an angle range of 0°≤α≤80°, has an intensity maximum within ≤10° tilt angle from the sample normal, and has ≥50% of the relative intensity measured over an angle range of 0°≤α≤60° within ≤20° tilt angle from the sample normal, and wherein the κ-Al 2 O 3 layer (b) has an overall fiber texture with the plane preferentially growing parallel to the substrate surface, the fiber texture being characterized in that a pole figure of the κ-Al 2 O 3 layer (b), measured by X-ray diffraction or electron backscatter diffraction over an angle range of 0°≤α≤80°, has an intensity maximum within ≤10° tilt angle from the sample normal, and has ≥50% of the relative intensity measured over an angle range of 0°≤α≤80° within ≤20° tilt angle from the sample normal.
A process for preparing landscaping products, such as a paver, comprising: i) mixing a dry part; and a liquid part; wherein said dry part is comprising an aggregate and a binder, wherein said binder is consisting of steel slag and optionally cement; and wherein said liquid part is comprising water and a chemical admixture selected from water repellents, water reducers, air entraining admixture and efflorescence reducing/controlling admixture, wherein said water reducers are meeting the requirements of ASTM C494; ii) molding and compacting the mixture of step i) to a shaped product having an initial water to slag ratio W/S; iii) optionally reducing the initial water to slag ratio W/S of said shaped product of step ii) to provide a shaped product having a pre-carbonation water to slag ratio W/S; and iv) curing the shaped product of step ii) or iii) with carbon dioxide to provide said landscaping products. i) mixing a dry part; and a liquid part; wherein said dry part is comprising an aggregate and a binder, wherein said binder is consisting of steel slag and optionally cement; and wherein said liquid part is comprising water and a chemical admixture selected from water repellents, water reducers, air entraining admixture and efflorescence reducing/controlling admixture, wherein said water reducers are meeting the requirements of ASTM C494; ii) molding and compacting the mixture of step i) to a shaped product having an initial water to slag ratio W/S; iii) optionally reducing the initial water to slag ratio W/S of said shaped product of step ii) to provide a shaped product having a pre-carbonation water to slag ratio W/S; and iv) curing the shaped product of step ii) or iii) with carbon dioxide to provide said landscaping products.
A method, performed by a network node, for enabling uplink power control in a wireless network, wherein said method comprises the steps of: - assigning a transmit power for downlink transmission of a reference signal, wherein the reference signal is to be used for power control of uplink transmissions; - determining a reference signal transmit power parameter providing a fictitious value for the transmit power of the reference signal that is different from the assigned transmit power, wherein the reference signal transmit power parameter is a cell-dependent parameter that enables uplink power control for multiple wireless devices (200-1,..., 200-N) in a cell of the wireless network, wherein the step of determining a reference signal transmit power parameter comprises the steps of determining (S2-1) a delta value and adding (S2-2) this delta value to the assigned transmit power, wherein the delta value is selected to compensate for a noise floor difference, and wherein the noise floor difference is representative of a difference between an indoor noise floor and an outdoor noise floor; and - transmitting the reference signal transmit power parameter to wireless devices in the cell of the wireless network to enable the wireless devices to perform transmit power determination for the uplink transmissions at least partly based on the fictitious value for the transmit power of the reference signal. - assigning a transmit power for downlink transmission of a reference signal, wherein the reference signal is to be used for power control of uplink transmissions; - determining a reference signal transmit power parameter providing a fictitious value for the transmit power of the reference signal that is different from the assigned transmit power, wherein the reference signal transmit power parameter is a cell-dependent parameter that enables uplink power control for multiple wireless devices (200-1,..., 200-N) in a cell of the wireless network, wherein the step of determining a reference signal transmit power parameter comprises the steps of determining (S2-1) a delta value and adding (S2-2) this delta value to the assigned transmit power, wherein the delta value is selected to compensate for a noise floor difference, and wherein the noise floor difference is representative of a difference between an indoor noise floor and an outdoor noise floor; and - transmitting the reference signal transmit power parameter to wireless devices in the cell of the wireless network to enable the wireless devices to perform transmit power determination for the uplink transmissions at least partly based on the fictitious value for the transmit power of the reference signal.
Method of selecting elements represented by icons forming an ordered series of icons appearing on a screen, comprising a step of selecting a first element by superposition of a graphics distinction applied to a first icon representing this first element; characterized in that it comprises: - a step of moving the graphics distinction towards at least a second icon triggered by the introduction and the holding of an action introduced by the user, this action specifying a single direction, the first icon preserving the graphics distinction which extends over the other icons in the specified direction of the movement, the dimension of the graphics distinction being variable during the holding of the action introduced by the user, - a step of selecting a single second element represented by the said second icon as soon as the graphics distinction occupies at least one determined area of said second icon, and - a step of executing a command associated with the single second element represented by said second icon. - a step of moving the graphics distinction towards at least a second icon triggered by the introduction and the holding of an action introduced by the user, this action specifying a single direction, the first icon preserving the graphics distinction which extends over the other icons in the specified direction of the movement, the dimension of the graphics distinction being variable during the holding of the action introduced by the user, - a step of selecting a single second element represented by the said second icon as soon as the graphics distinction occupies at least one determined area of said second icon, and - a step of executing a command associated with the single second element represented by said second icon.
An impact tool, comprising: a motor comprising a drive shaft rotating about a first axis; an output shaft for outputting torque externally to operate a fastener; an impact mechanism for applying an impact force to the output shaft; a switching portion configured to set a direction of rotation of the motor to a forward rotation direction in which the fastener is tightened or a reverse rotation direction in which the fastener is loosened; and a controller for controlling the motor; characterised in that the controller is configured to: when the direction of rotation of the motor is set to the reverse rotation direction, the drive shaft rotates at a first speed, and after the impact mechanism applies the impact force to the output shaft for a preset time, control the drive shaft to rotate at a second speed when it is determine that the fastener is in a tightened state according to a load parameter of the output shaft, wherein the second speed is greater than the first speed. a motor comprising a drive shaft rotating about a first axis; an output shaft for outputting torque externally to operate a fastener; an impact mechanism for applying an impact force to the output shaft; a switching portion configured to set a direction of rotation of the motor to a forward rotation direction in which the fastener is tightened or a reverse rotation direction in which the fastener is loosened; and a controller for controlling the motor; characterised in that the controller is configured to: when the direction of rotation of the motor is set to the reverse rotation direction, the drive shaft rotates at a first speed, and after the impact mechanism applies the impact force to the output shaft for a preset time, control the drive shaft to rotate at a second speed when it is determine that the fastener is in a tightened state according to a load parameter of the output shaft, wherein the second speed is greater than the first speed.
Temperature control device for use in fluid-based hyper/hypothermia systems, comprising: a connection unit for connecting the device to a local power network; and a fluid temperature control unit for heating or cooling a fluid, said fluid temperature control unit comprising: - a fluid container, - a heater for heating said fluid in said fluid container - a cooler for cooling said fluid in said fluid container - a supply pump for removing said fluid from said fluid container and for conveying it outside such that the fluid can be used in the hyper/hypothermia system, - a temperature sensor and - a temperature controller; and a power supply unit, via which all of the electrical consumers (5, 6, 7, 8, 10) of the fluid temperature control unit are electrically supplied with power irrespective of the local power network, and which effects the supply of the consumers (6, 7, 8, 10) with direct current, wherein the electrical consumers of the fluid temperature control unit comprise said supply pump with a direct current motor and said cooler with a direct current compressor and characterized in that the heater is provided in the fluid container, the cooler is provided in the fluid container and the temperature sensor is provided in the fluid container. a connection unit for connecting the device to a local power network; and a fluid temperature control unit for heating or cooling a fluid, said fluid temperature control unit comprising: - a fluid container, - a heater for heating said fluid in said fluid container - a cooler for cooling said fluid in said fluid container - a supply pump for removing said fluid from said fluid container and for conveying it outside such that the fluid can be used in the hyper/hypothermia system, - a temperature sensor and - a temperature controller; and - a fluid container, - a heater for heating said fluid in said fluid container - a cooler for cooling said fluid in said fluid container - a supply pump for removing said fluid from said fluid container and for conveying it outside such that the fluid can be used in the hyper/hypothermia system, - a temperature sensor and - a temperature controller; and