mhurhangee/patent-ind-claim-en huggingface dataset:
A cache memory, comprising: a mode input that indicates in which of a plurality of allocation modes the cache memory is to operate; a set-associative array of entries having a plurality of sets by W ways, wherein W is an integer greater than one; an input that receives a memory address comprising: an index used to select a set from the plurality of sets; and a tag used to compare with tags stored in the entries of the W ways of the selected set to determine whether the memory address hits or misses in the array; and allocation logic that, when the memory address misses in the array: selects one or more bits of the tag based on the allocation mode; performs a function, based on the allocation mode, on the selected one or more bits of the tag to generate a subset of the W ways of the array; and allocates into one way of the subset of the ways of the selected set, wherein the function performed on the one or more bits of the tag comprises a Boolean operation of two or more of the bits of the tag, and the Boolean operation comprises a rotation of the two or more of the bits of the tag by a number of bits specified by the allocation mode. a mode input that indicates in which of a plurality of allocation modes the cache memory is to operate; a set-associative array of entries having a plurality of sets by W ways, wherein W is an integer greater than one; an input that receives a memory address comprising: an index used to select a set from the plurality of sets; and a tag used to compare with tags stored in the entries of the W ways of the selected set to determine whether the memory address hits or misses in the array; and an index used to select a set from the plurality of sets; and a tag used to compare with tags stored in the entries of the W ways of the selected set to determine whether the memory address hits or misses in the array; and allocation logic that, when the memory address misses in the array: selects one or more bits of the tag based on the allocation mode; performs a function, based on the allocation mode, on the selected one or more bits of the tag to generate a subset of the W ways of the array; and allocates into one way of the subset of the ways of the selected set, wherein the function performed on the one or more bits of the tag comprises a Boolean operation of two or more of the bits of the tag, and the Boolean operation comprises a rotation of the two or more of the bits of the tag by a number of bits specified by the allocation mode. selects one or more bits of the tag based on the allocation mode; performs a function, based on the allocation mode, on the selected one or more bits of the tag to generate a subset of the W ways of the array; and allocates into one way of the subset of the ways of the selected set, wherein the function performed on the one or more bits of the tag comprises a Boolean operation of two or more of the bits of the tag, and the Boolean operation comprises a rotation of the two or more of the bits of the tag by a number of bits specified by the allocation mode.
A stent comprising: a body including: an inner lumen (147 / 247); oppositely disposed first and second curled ends , and, an outer surface; the second curled end including a groove extending through the body into the lumen from the outer surface of the body, and, a sleeve extending at least partially along the groove; wherein the sleeve is of a material of a softer durometer than the body of the stent. a body including: an inner lumen (147 / 247); oppositely disposed first and second curled ends , and, an outer surface; the second curled end including a groove extending through the body into the lumen from the outer surface of the body, and, an inner lumen (147 / 247); oppositely disposed first and second curled ends , and, an outer surface; the second curled end including a groove extending through the body into the lumen from the outer surface of the body, and, a sleeve extending at least partially along the groove; wherein the sleeve is of a material of a softer durometer than the body of the stent.
A computer-implemented method for deriving an estimation of intracranial blood pressure, the method comprising: obtaining a first signal, using transcranial Doppler ultrasound data, indicative of cerebral blood vessel wall movement as a function of time; obtaining a second signal, using transcranial Doppler ultrasound data, indicative of cerebral blood flow velocity as a function of time; obtaining a third signal, indicative of blood pressure at a location outside of the brain as a function of time, the first, second and third signals corresponding to measurements over the same time period; detecting a phase offset of the second signal with respect to the first; and transforming the third signal by applying to the third signal a phase shift such that the phase-shifted third signal exhibits a phase offset with respect to the second signal of an amount equal to said detected phase offset, to thereby obtain a fourth signal indicative of estimated intracranial blood pressure. obtaining a first signal, using transcranial Doppler ultrasound data, indicative of cerebral blood vessel wall movement as a function of time; obtaining a second signal, using transcranial Doppler ultrasound data, indicative of cerebral blood flow velocity as a function of time; obtaining a third signal, indicative of blood pressure at a location outside of the brain as a function of time, the first, second and third signals corresponding to measurements over the same time period; detecting a phase offset of the second signal with respect to the first; and transforming the third signal by applying to the third signal a phase shift such that the phase-shifted third signal exhibits a phase offset with respect to the second signal of an amount equal to said detected phase offset, to thereby obtain a fourth signal indicative of estimated intracranial blood pressure.
An airbag comprising: a side cushion configured to protrude forward from a seatback of a passenger seat and cover a side of a passenger when deployed; a front cushion configured to protrude from the side cushion to a front of the passenger and to cover a front of the passenger ; and an upper tether connecting an upper portion of the seatback , the side cushion and the front cushion together, and configured to be unfolded in a plane of a predetermined size to restrain the deployment of the side cushion and the front cushion , wherein the upper tether has a triangular shape including a flat surface in the plane when deployed and unfolded, and is fixedly connected to the upper portion of the seatback . a side cushion configured to protrude forward from a seatback of a passenger seat and cover a side of a passenger when deployed; a front cushion configured to protrude from the side cushion to a front of the passenger and to cover a front of the passenger ; and an upper tether connecting an upper portion of the seatback , the side cushion and the front cushion together, and configured to be unfolded in a plane of a predetermined size to restrain the deployment of the side cushion and the front cushion , wherein the upper tether has a triangular shape including a flat surface in the plane when deployed and unfolded, and is fixedly connected to the upper portion of the seatback .
A horological device, in particular a horological movement or a timepiece, comprising at least one first mechanism for correcting at least a first indicator member and a second mechanism for correcting a second indicator member, these mechanisms being capable of being actuated by a control stem that can occupy at least two axial positions, each corresponding to the actuation of one of the mechanisms, this control stem (T) bearing a sliding pinion that can be moved axially, both with respect to the control stem (T) and with respect to the frame of the horological device, and can engage with the first and second mechanisms, the horological device also including a pull-out piece and a lever for the axial return of the sliding pinion , said lever also comprising a spring part , the horological device being arranged such that: - when the control stem (T) is pulled in a first direction (F), the sliding pinion can be moved axially relative to the frame in the first direction (F), exclusively under the effect of a force exerted by the spring part of the lever and without direct contact necessary between the pull-out piece and the lever , so as to engage with the first mechanism, and - when the control stem (T) is further pulled in the first direction (F), the pull-out piece is able to pivot the lever against the force exerted by the spring part , so that the sliding pinion can be moved axially relative to the frame in a second direction opposite to the first direction (F) to engage with the second mechanism. - when the control stem (T) is pulled in a first direction (F), the sliding pinion can be moved axially relative to the frame in the first direction (F), exclusively under the effect of a force exerted by the spring part of the lever and without direct contact necessary between the pull-out piece and the lever , so as to engage with the first mechanism, and - when the control stem (T) is further pulled in the first direction (F), the pull-out piece is able to pivot the lever against the force exerted by the spring part , so that the sliding pinion can be moved axially relative to the frame in a second direction opposite to the first direction (F) to engage with the second mechanism.
A method for preparing a jet fuel product from a crude oil feedstock comprising a pre-refined crude oil, wherein the pre-refined crude oil comprises crude oil that has been subjected to cracking or conversion in a reaction environment containing less than 345 kPag of hydrogen prior to shipment to a refinery, the method comprising: (i) determining a breakpoint using ASTM D3241 procedure for a first sample of a distillate fraction, the distillate fraction having an initial boiling point of at least 140°C and a final boiling point of 300°C or less, the distillate fraction having been distilled from a first crude oil feedstock comprising a first pre-refined crude oil and comprising a portion from the first pre-refined crude oil, and if said breakpoint is at least 275 °C then (ii) maintaining a second sample of the distillate fraction at a temperature of at least 40°C for an aging period of at least 6 weeks; (iii) determining a breakpoint for the aged second sample of the distillate fraction, and if the breakpoint for the aged second sample is at least 265°C then (iv) preparing a jet fuel product comprising a kerosene portion having been distilled from a second crude oil feedstock comprising a second pre-refined crude oil and comprising a volume percentage from the second pre-refined crude oil, wherein the second pre-refined crude oil is derived from the same source as the first pre-refined crude oil, the volume percentage of the kerosene portion from the second pre-refined crude in the jet fuel product being not more than 110% of the volume percentage corresponding to the portion of the distillate fraction from the first pre-refined crude oil, and the initial boiling point of the jet fuel product being at least as high as the initial boiling point of the distillate fraction, and the final boiling point of the jet fuel product being not more than the final boiling point of the distillate fraction. (i) determining a breakpoint using ASTM D3241 procedure for a first sample of a distillate fraction, the distillate fraction having an initial boiling point of at least 140°C and a final boiling point of 300°C or less, the distillate fraction having been distilled from a first crude oil feedstock comprising a first pre-refined crude oil and comprising a portion from the first pre-refined crude oil, and if said breakpoint is at least 275 °C then (ii) maintaining a second sample of the distillate fraction at a temperature of at least 40°C for an aging period of at least 6 weeks; (iii) determining a breakpoint for the aged second sample of the distillate fraction, and if the breakpoint for the aged second sample is at least 265°C then (iv) preparing a jet fuel product comprising a kerosene portion having been distilled from a second crude oil feedstock comprising a second pre-refined crude oil and comprising a volume percentage from the second pre-refined crude oil, wherein the second pre-refined crude oil is derived from the same source as the first pre-refined crude oil,
A knob assembly for a cooking appliance, comprising: a valve including a movable valve shaft ; a knob connected to a knob shaft , the knob shaft being coupled with the valve shaft ; a knob ring surrounding a periphery of the knob and supporting the knob shaft ; an actuating member coupled with the knob ring ; a support frame supporting the actuating member ; and a fixing frame coupled with the support frame for preventing the actuating member from separating from the support frame , characterized in that the knob ring includes: a knob ring body ; a rear plate including a support hole for supporting the valve shaft passing through the support hole ; and a support tube coupled with the rear plate for supporting the valve shaft . a valve including a movable valve shaft ; a knob connected to a knob shaft , the knob shaft being coupled with the valve shaft ; a knob ring surrounding a periphery of the knob and supporting the knob shaft ; an actuating member coupled with the knob ring ; a support frame supporting the actuating member ; and a fixing frame coupled with the support frame for preventing the actuating member from separating from the support frame , characterized in that the knob ring includes: a knob ring body ; a rear plate including a support hole for supporting the valve shaft passing through the support hole ; and a support tube coupled with the rear plate for supporting the valve shaft . a knob ring body ; a rear plate including a support hole for supporting the valve shaft passing through the support hole ; and a support tube coupled with the rear plate for supporting the valve shaft .
Hand-held vacuum cleaner comprising a body provided with a handle arranged behind the vacuum cleaner and suctioning means, a suctioning tube arranged at the front of the vacuum cleaner and a suctioning chamber provided with a bowl communicating with the suctioning tube, and a filtering element inserted in the bowl and which communicates with the suctioning means, as well as a guiding and maintaining system arranged between a rear face of the bowl and a front fact of the body to engage the bowl on the body until reaching a position of forming said suctioning chamber or, conversely, to release the bowl from the body until reaching a separation position, said guiding and maintaining system being configured support the movement of the bowl on the body during its engagement or its release; characterised in that the vacuum cleaner comprises a locking system arranged between a front upper portion of the bowl and a front portion of the body to lock the bowl on the body in a position of forming the suctioning chamber or to unlock the bowl from the body so as to release it.
A non-surgical method for configuring a tele-operational system, the method comprising: accelerating a platform linkage that supports a first robotic arm by driving one or more driven joints supporting the platform linkage thereby imparting a force or moment to the first robotic arm ; characterized by inhibiting passive movement of a first joint of the first robotic arm , with a processor operably coupled with the first joint , when passive movement of the first joint in response to the force or moment moves the first joint away from a reference state of the first j oint , the reference state corresponding to a desired configuration of the first robotic arm ; and facilitating the passive movement of the first joint , with the processor, when the passive movement of the first joint in response to the force or moment on the first robotic arm moves the first joint towards the reference state of the first joint . accelerating a platform linkage that supports a first robotic arm by driving one or more driven joints supporting the platform linkage thereby imparting a force or moment to the first robotic arm ; characterized by inhibiting passive movement of a first joint of the first robotic arm , with a processor operably coupled with the first joint , when passive movement of the first joint in response to the force or moment moves the first joint away from a reference state of the first j oint , the reference state corresponding to a desired configuration of the first robotic arm ; and facilitating the passive movement of the first joint , with the processor, when the passive movement of the first joint in response to the force or moment on the first robotic arm moves the first joint towards the reference state of the first joint .
Compound of formula (I) in which: - Q represents a dipole comprising at least one nitrogen atom; - A represents an arenediyl ring, optionally substituted by one or more hydrocarbon-based chains, which are identical or different, independent of one another, and are optionally substituted or interrupted by one or more heteroatoms; - E represents a divalent hydrocarbon-based bonding group which may optionally contain one or more heteroatoms; - R 1 , R 2 and R 3 represent, independently of one another, a hydrogen atom or a hydrocarbon-based chain which is optionally substituted or interrupted by one or more heteroatoms; and - n is an integer equal to 1, 2, 3 or 4. - Q represents a dipole comprising at least one nitrogen atom; - A represents an arenediyl ring, optionally substituted by one or more hydrocarbon-based chains, which are identical or different, independent of one another, and are optionally substituted or interrupted by one or more heteroatoms; - E represents a divalent hydrocarbon-based bonding group which may optionally contain one or more heteroatoms; - R 1 , R 2 and R 3 represent, independently of one another, a hydrogen atom or a hydrocarbon-based chain which is optionally substituted or interrupted by one or more heteroatoms; and - n is an integer equal to 1, 2, 3 or 4.
A channel transmission method, operable by a terminal side, comprising: acquiring target transmission configuration indicator, TCI, state information of a control resource set with an identity value of 0, CORESET0 ; receiving a physical downlink channel according to the target TCI state information when a preset condition is met , characterized in that the physical downlink channel comprises a physical downlink control channel, PDCCH, wherein receiving the physical downlink channel according to the target TCI state information comprises: monitoring a PDCCH search space of CORESET0 corresponding to an index of a Synchronization Signal and PBCH Block, SSB, to receive the PDCCH, wherein the index of the SSB is an index corresponding to an activated TCI state received by the terminal. acquiring target transmission configuration indicator, TCI, state information of a control resource set with an identity value of 0, CORESET0 ; receiving a physical downlink channel according to the target TCI state information when a preset condition is met , characterized in that the physical downlink channel comprises a physical downlink control channel, PDCCH, wherein receiving the physical downlink channel according to the target TCI state information comprises: monitoring a PDCCH search space of CORESET0 corresponding to an index of a Synchronization Signal and PBCH Block, SSB, to receive the PDCCH, wherein the index of the SSB is an index corresponding to an activated TCI state received by the terminal.
Method for predicting a strength of an ultrasonic weld-joint of a wire-cable , comprising the steps of: providing a sample of a wire-cable containing an organic contaminant ; determining a combined-weight of the wire-cable and the contaminant ; removing the contaminant from a surface of the wire-cable using a heat-source ; determining a weight of the wire-cable after the contaminant has been removed; determining a percentage-by-weight of the contaminant removed from the wire-cable based on a formula [(Mb-Ma)/Mb] ∗ 100, wherein Mb is the combined-weight of the wire-cable and the contaminant and Ma is the weight of the wire-cable ; and characterized by determining whether the percentage-by-weight of the contaminant is less than a predetermined threshold , wherein said threshold correlates to the strength of the ultrasonic weld-joint . providing a sample of a wire-cable containing an organic contaminant ; determining a combined-weight of the wire-cable and the contaminant ; removing the contaminant from a surface of the wire-cable using a heat-source ; determining a weight of the wire-cable after the contaminant has been removed; determining a percentage-by-weight of the contaminant removed from the wire-cable based on a formula [(Mb-Ma)/Mb] ∗ 100, wherein Mb is the combined-weight of the wire-cable and the contaminant and Ma is the weight of the wire-cable ; and characterized by determining whether the percentage-by-weight of the contaminant is less than a predetermined threshold , wherein said threshold correlates to the strength of the ultrasonic weld-joint .
Process for producing a cold-rolled steel strip from a high-strength manganesecontaining steel having TRIP properties containing (in wt.%): C: 0.05 to 0.42 Mn: more than 5.0 to < 10 and one or more of the following elements (in wt.%) Al: 0.1 to 5, in particular > 0.5 to 3 Si: 0.05 to 3, in particular > 0.1 to 1.5 Cr: 0.1 to 4, in particular > 0.5 to 2.5 the remainder being iron, including unavoidable steel-accompanying elements, with the optional alloying addition of one or more of the following elements (in wt.%): Nb: up to 1.5 V: up to 1.5 Ti: up to 1.5 Mo: up to 3 Cu: up to 3 Sn: up to 0.5 W: up to 5 Co: up to 8 Zr: up to 0.5 Ta: up to 0.5 Te: up to 0.5 B: up to 0.15 P: max. 0.1, in particular < 0.04 S: max. 0.1, in particular < 0.02 N: max. 0.1, in particular < 0.05 Ca: up to 0.1, characterised in that the cold rolling to a required final thickness takes place at a temperature, prior to the first pass of the cold rolling, of 70°C to 250°C. C: 0.05 to 0.42 Mn: more than 5.0 to < 10 and one or more of the following elements (in wt.%) Al: 0.1 to 5, in particular > 0.5 to 3 Si: 0.05 to 3, in particular > 0.1 to 1.5 Cr: 0.1 to 4, in particular > 0.5 to 2.5 the remainder being iron, including unavoidable steel-accompanying elements, with the optional alloying addition of one or more of the following elements (in wt.%): Nb: up to 1.5 V: up to 1.5 Ti: up to 1.5 Mo: up to 3 Cu: up to 3 Sn: up to 0.5 W: up to 5 Co: up to 8 Zr: up to 0.5 Ta: up to 0.5 Te: up to 0.5 B: up to 0.15 P: max. 0.1, in particular < 0.04 S: max. 0.1, in particular < 0.02 N: max. 0.1, in particular < 0.05 Ca: up to 0.1, characterised in that the cold rolling to a required final thickness takes place at a temperature, prior to the first pass of the cold rolling, of 70°C to 250°C. Nb: up to 1.5 V: up to 1.5 Ti: up to 1.5 Mo: up to 3 Cu: up to 3 Sn: up to 0.5 W: up to 5 Co: up to 8 Zr: up to 0.5 Ta: up to 0.5 Te: up to 0.5 B: up to 0.15 P: max. 0.1, in particular < 0.04 S: max. 0.1, in particular < 0.02 N: max. 0.1, in particular < 0.05 Ca: up to 0.1, characterised in that the cold rolling to a required final thickness takes place at a temperature, prior to the first pass of the cold rolling, of 70°C to 250°C.