mhurhangee/patent-ind-claim-en huggingface dataset:
A pozzolan cement composition comprising: a distribution of differently sized pozzolan particles capable of reacting with calcium hydroxide in the presence of water in order to form solid hydration products having cementitious properties, the pozzolan particles having a D 15 of 5 μm or greater; and a distribution of differently sized hydraulic cement particles at least partially comprised of tricalcium silicate and/or dicalcium silicate that provide excess calcium hydroxide when mixed with water and that is available for reaction with at least a portion of the pozzolan particles, the hydraulic cement particles having a D 85 of 20 μm or less. a distribution of differently sized pozzolan particles capable of reacting with calcium hydroxide in the presence of water in order to form solid hydration products having cementitious properties, the pozzolan particles having a D 15 of 5 μm or greater; and a distribution of differently sized hydraulic cement particles at least partially comprised of tricalcium silicate and/or dicalcium silicate that provide excess calcium hydroxide when mixed with water and that is available for reaction with at least a portion of the pozzolan particles, the hydraulic cement particles having a D 85 of 20 μm or less.
A method of thawing a sample , wherein said sample is comprised within a container , the method comprising the steps of: a) heating at least one region of an outer wall of said container to a temperature equal to or above that at which cellular damage occurs and wherein an inner wall of the container is at a temperature lower than that at which cellular damage occurs; b) calculating an agitation program as a function of i) either or both of the sample volume and the type of container , ii) the ice fraction in the sample , and optionally iii) the thermal conductivity of the sample container ; c) agitating said sample according to the program to agitate at least one region of the sample ; and d) changing the agitation program applied to at least one region of the sample in response to changes in the sample volume and/or sample ice fraction. a) heating at least one region of an outer wall of said container to a temperature equal to or above that at which cellular damage occurs and wherein an inner wall of the container is at a temperature lower than that at which cellular damage occurs; b) calculating an agitation program as a function of i) either or both of the sample volume and the type of container , ii) the ice fraction in the sample , and optionally iii) the thermal conductivity of the sample container ; c) agitating said sample according to the program to agitate at least one region of the sample ; and d) changing the agitation program applied to at least one region of the sample in response to changes in the sample volume and/or sample ice fraction.
A multi-core processing system comprising: a system memory; a first processor core of a first type to execute program code; a second processor core of a second type different from the first type; a code distribution module configured to define a predict performance function, including running n pieces of code, on both the first processor core and the second processor core and collecting their respective performance information and statistics, on the two cores, respectively, to predict the performance of execution of the program code on the second processor core with the predict performance function, while the first processor core executes the program code and switch execution of the program code from the first processor core to the second processor core in response to a prediction that the performance of execution of the second processor core is better than the performance of execution of the first processor core . a system memory; a first processor core of a first type to execute program code; a second processor core of a second type different from the first type; a code distribution module configured to define a predict performance function, including running n pieces of code, on both the first processor core and the second processor core and collecting their respective performance information and statistics, on the two cores, respectively, to predict the performance of execution of the program code on the second processor core with the predict performance function, while the first processor core executes the program code and switch execution of the program code from the first processor core to the second processor core in response to a prediction that the performance of execution of the second processor core is better than the performance of execution of the first processor core .
A system for assisting a user in manually delivering repetitive therapy to a patient , the system comprising: a ventilation therapy delivery device , and an external defibrillator comprising a processor , a memory, and associated circuitry; at least one sensor for sensing at least one parameter relating to how well ventilation is being delivered by the ventilation therapy delivery device ; a visual display of the external defibrillator for generating a visual, non-verbal feedback graphic to provide the user with a graphical indication of how well the repetitive therapy is being delivered, the feedback graphic configured to provide graphical ventilation feedback, wherein the processor is configured to process at least one output from the at least one sensor to control an appearance of the feedback graphic on the visual display to indicate that ventilation tidal volume and ventilation rate are each within a respective target zone . a ventilation therapy delivery device , and an external defibrillator comprising a processor , a memory, and associated circuitry; at least one sensor for sensing at least one parameter relating to how well ventilation is being delivered by the ventilation therapy delivery device ; a visual display of the external defibrillator for generating a visual, non-verbal feedback graphic to provide the user with a graphical indication of how well the repetitive therapy is being delivered, the feedback graphic configured to provide graphical ventilation feedback, wherein the processor is configured to process at least one output from the at least one sensor to control an appearance of the feedback graphic on the visual display to indicate that ventilation tidal volume and ventilation rate are each within a respective target zone .
A method for storing and retrieving data in a storage node of a data store, the storage node comprises at least a processor core and its associated main memory; the method comprising the step of storing at least one segment of a relational table in data storage means of the storage node , characterized in that the method comprises the following steps: storing in each associated main memory of a processor core a single segment; running from the processor core one scan thread dedicated to the scanning of the said segment; continuously and fully scanning said segment; receiving and processing batches of query and update operations; indexing a set of predicates of query and update operations of a batch at a beginning of each data scan; joining query and update operations of a batch to retrieved data records of said segment that match with predicates of the indexed query and update operations; progressively fulfilling query and update operations of a batch whenever data of the joined data records are retrieved by the scan thread while scanning said segment. storing in each associated main memory of a processor core a single segment; running from the processor core one scan thread dedicated to the scanning of the said segment; continuously and fully scanning said segment; receiving and processing batches of query and update operations; indexing a set of predicates of query and update operations of a batch at a beginning of each data scan; joining query and update operations of a batch to retrieved data records of said segment that match with predicates of the indexed query and update operations; progressively fulfilling query and update operations of a batch whenever data of the joined data records are retrieved by the scan thread while scanning said segment.
An implant system for long-term use within a mammalian body, comprising: a first nonsurgical means for delivering a first tissue response modifier effective to direct a first localised biological response of a mammalian body without the first tissue response modifier reaching systemic levels in the mammalian body; the implant configured to emit, after optical interrogation, an optical signal proportional to a concentration of the analyte in the mammalian body; and a second non-surgical means / for delivering a second tissue response modifier / effective to minimise a second localised biological response of the mammalian body that would impede availability of the analyte to the implant without the second tissue response modifier / reaching systemic levels in the mammalian body, the second non-surgical means / including a detector configured to receive the optical signal from the implant , the first non-surgical means and the second non-surgical means / each configured to be positioned outside the mammalian body adjacent to a location identified for receiving the implant or adjacent to the implant. a first nonsurgical means for delivering a first tissue response modifier effective to direct a first localised biological response of a mammalian body without the first tissue response modifier reaching systemic levels in the mammalian body; the implant configured to emit, after optical interrogation, an optical signal proportional to a concentration of the analyte in the mammalian body; and a second non-surgical means / for delivering a second tissue response modifier / effective to minimise a second localised biological response of the mammalian body that would impede availability of the analyte to the implant without the second tissue response modifier / reaching systemic levels in the mammalian body, the second non-surgical means / including a detector configured to receive the optical signal from the implant , the first non-surgical means and the second non-surgical means / each configured to be positioned outside the mammalian body adjacent to a location identified for receiving the implant or adjacent to the implant.
An engine , comprising: an air intake arrangement configured to receive air; a heat exchanger arrangement arranged downstream of the air intake arrangement , configured to cool the air, and comprising a plurality of heat exchanger modules ; and one or more turbomachinery components configured to receive cooled air from the heat exchanger arrangement ; wherein: the plurality of heat exchanger modules are arranged to be generally centred on and to be arranged along a longitudinal axis of the engine ; and at least one of the plurality of heat exchanger modules is arranged to partially overlap with at least one other one of the plurality of heat exchanger modules relative to the longitudinal axis of the engine ; wherein each of the plurality of heat exchanger modules has a length , and wherein at least one of the plurality of heat exchanger modules is arranged such that its respective length partially overlaps with the respective length of at least one other one of the plurality of heat exchanger modules , relative to the longitudinal axis of the engine . an air intake arrangement configured to receive air; a heat exchanger arrangement arranged downstream of the air intake arrangement , configured to cool the air, and comprising a plurality of heat exchanger modules ; and one or more turbomachinery components configured to receive cooled air from the heat exchanger arrangement ; wherein: the plurality of heat exchanger modules are arranged to be generally centred on and to be arranged along a longitudinal axis of the engine ; and at least one of the plurality of heat exchanger modules is arranged to partially overlap with at least one other one of the plurality of heat exchanger modules relative to the longitudinal axis of the engine ; the plurality of heat exchanger modules are arranged to be generally centred on and to be arranged along a longitudinal axis of the engine ; and at least one of the plurality of heat exchanger modules is arranged to partially overlap with at least one other one of the plurality of heat exchanger modules relative to the longitudinal axis of the engine ; wherein each of the plurality of heat exchanger modules has a length , and wherein at least one of the plurality of heat exchanger modules is arranged such that its respective length partially overlaps with the respective length of at least one other one of the plurality of heat exchanger modules , relative to the longitudinal axis of the engine .
A control method applied to an electronic device , wherein the electronic device comprises a processor and a wireless network module , and the control method comprises the steps: generating a determination result by determining if the wireless network module needs to transmit a packet; and when the determination result indicates that the wireless network module needs to transmit the packet, reducing a frequency of a clock signal used by the processor during the transmission of the packet; wherein the step of when the determination result indicates that the wireless network module needs to transmit the packet, reducing the frequency of the clock signal used by the processor during the transmission of the packet comprises: when the determination result indicates that the wireless network module needs to transmit the packet, reducing the frequency of the clock signal used by the processor ; setting a timer , and starting to control the wireless network module to transmit the packet; and when a time set by the timer expires, increasing the frequency of the clock signal used by the processor . generating a determination result by determining if the wireless network module needs to transmit a packet; and when the determination result indicates that the wireless network module needs to transmit the packet, reducing a frequency of a clock signal used by the processor during the transmission of the packet; wherein the step of when the determination result indicates that the wireless network module needs to transmit the packet, reducing the frequency of the clock signal used by the processor during the transmission of the packet comprises: when the determination result indicates that the wireless network module needs to transmit the packet, reducing the frequency of the clock signal used by the processor ; setting a timer , and starting to control the wireless network module to transmit the packet; and when a time set by the timer expires, increasing the frequency of the clock signal used by the processor . when the determination result indicates that the wireless network module needs to transmit the packet, reducing the frequency of the clock signal used by the processor ; setting a timer , and starting to control the wireless network module to transmit the packet; and when a time set by the timer expires, increasing the frequency of the clock signal used by the processor .
A method performed by a network node for handling positioning of a wireless device in a wireless communication network , the method comprising: - determining a set of service areas in which positioning of the wireless device is requested; - transmitting a request for positioning of the wireless device to a controlling network node , wherein the request comprises an indication of the set of service areas; and - receiving a response from the controlling network node based on the request transmitted to the controlling network node , wherein the response indicates whether the wireless device is positioned within the set of service areas or not. - determining a set of service areas in which positioning of the wireless device is requested; - transmitting a request for positioning of the wireless device to a controlling network node , wherein the request comprises an indication of the set of service areas; and - receiving a response from the controlling network node based on the request transmitted to the controlling network node , wherein the response indicates whether the wireless device is positioned within the set of service areas or not.
A friction material comprising a fiber base material, a friction modifying material and a binder, wherein the friction modifying material comprises alumina particles comprising, as a main component, θ-alumina particles in a ratio of 50 mass% or more, and the θ-alumina particles are contained in an amount of 1 mass% or more in the friction material; wherein the θ-alumina particles have a specific surface area of 40 m 2 /g or more and 120 m 2 /g or less determined by a BET method using nitrogen gas adsorption.
A packaged assembly for high power applications, the packaged assembly comprising: a case having a hermetic lid, a bottom and four walls , two walls opposed to each other having a respective shelf whereas the other two walls are free of a shelf; a double-sided dielectric substrate disposed on the shelves of said case , the double-sided dielectric substrate having a coefficient of thermal expansion closely matched with the coefficient of thermal expansion of the case ; the double-sided dielectric substrate having on its front side a semiconductor die and on its back side circuit elements ; wherein all semiconductor dies and all circuit elements are fully enclosed in the hermetically sealed case , wherein the front side of the double-sided dielectric substrate is in contact with the shelves and wherein the double-sided dielectric substrate is secured to the shelves by an epoxy, wherein the epoxy is positioned only on perimeters of the double-sided dielectric substrate along the two walls having respective shelves . a case having a hermetic lid, a bottom and four walls , two walls opposed to each other having a respective shelf whereas the other two walls are free of a shelf; a double-sided dielectric substrate disposed on the shelves of said case , the double-sided dielectric substrate having a coefficient of thermal expansion closely matched with the coefficient of thermal expansion of the case ; the double-sided dielectric substrate having on its front side a semiconductor die and on its back side circuit elements ; wherein all semiconductor dies and all circuit elements are fully enclosed in the hermetically sealed case , wherein the front side of the double-sided dielectric substrate is in contact with the shelves and wherein the double-sided dielectric substrate is secured to the shelves by an epoxy, wherein the epoxy is positioned only on perimeters of the double-sided dielectric substrate along the two walls having respective shelves .
Method for planning the cultivation of at least a quadrangular area of an agricultural field by means of a steerable or controllable agricultural machine, wherein the area between its corners has edge sections and thereby a first edge section and a second edge section opposite the first edge section , and wherein the second edge section is oblique to the first edge section , comprising the following steps: (a) determination of a plurality of first working paths running next to each other in parallel with or equidistant from the first edge section and determination of a plurality of second working paths running next to each other in parallel with or equidistant from the second edge section , (b) determination of a lane that runs at least partially along the first working paths and the second working paths and along which the agricultural machine is to be moved from the first edge section over the area to the second edge section in order to cultivate the area , characterized by the following step: (c) determination of a plurality of turning points along the lane at which the machine is steered from a direction along one of the first working paths into a direction along one of the second working paths or from a direction along one of the second working paths into a direction along one of the first working paths , such that the lane runs less along the first working paths as the distance from the first edge section increases and more along the second working paths as the distance from the second edge section decreases. (a) determination of a plurality of first working paths running next to each other in parallel with or equidistant from the first edge section and determination of a plurality of second working paths running next to each other in parallel with or equidistant from the second edge section , (b) determination of a lane that runs at least partially along the first working paths and the second working paths and along which the agricultural machine is to be moved from the first edge section over the area to the second edge section in order to cultivate the area , characterized by the following step: (c) determination of a plurality of turning points along the lane at which the machine is steered from a direction along one of the first working paths into a direction along one of the second working paths or from a direction along one of the second working paths into a direction along one of the first working paths , such that the lane runs less along the first working paths as the distance from the first edge section increases and more along the second working paths as the distance from the second edge section decreases.