mhurhangee/ep-ind-claims huggingface dataset:
A method of cementing a well bore, comprising: introducing a well fluid comprising hydraulic cement, an oil viscosifier, and an invert emulsion into a well bore containing an oil-based drilling fluid so as to displace at least a portion of the oil-based drilling fluid from the well bore; disposing a pipe string in the well bore so as to create an annulus between the pipe string and the well bore such that a portion of the well fluid resides in the annulus and a portion of the well fluid resides in the pipe string; flowing a cement composition through the pipe string and into the annulus so as to displace the portion of the well fluid out of the pipe string and into the annulus; and allowing both the well fluid and cement composition to develop compressive strength along a desired length of the well bore. introducing a well fluid comprising hydraulic cement, an oil viscosifier, and an invert emulsion into a well bore containing an oil-based drilling fluid so as to displace at least a portion of the oil-based drilling fluid from the well bore; disposing a pipe string in the well bore so as to create an annulus between the pipe string and the well bore such that a portion of the well fluid resides in the annulus and a portion of the well fluid resides in the pipe string; flowing a cement composition through the pipe string and into the annulus so as to displace the portion of the well fluid out of the pipe string and into the annulus; and allowing both the well fluid and cement composition to develop compressive strength along a desired length of the well bore.
Process for the manufacture of a material on the basis of calcium carbonate and/or magnesium carbonate having a reduced decrepitation tendency, characterized in that a material on the basis of calcium carbonate and/or magnesium carbonate comprising 20 to 80 wt.% of particles having a primary particle size of more than 90 μm and less than 1 mm is coated with at least one additive selected among alkali metal compounds, and/or alkaline earth metal compounds in an amount of 0.05 to 5 wt.% based on the amount of the material on the basis of calcium carbonate and/or magnesium carbonate wherein the alkaline earth metal compounds have a solubility at 25°C in water of at least 0.5%.
A computer program product comprising a software executable by a computer system to cause the computer system to perform a method for controlling dispensing of at least one combined spinal-epidural analgesia in intermittent doses over discrete predefined time periods, comprising the steps of: initiating the dispensing of the combined spinal-epidural analgesia in intermittent doses at a first background dosage rate of 5ml/h; dispensing a signal-induced dose of the combined spinal-epidural analgesia, in response to an input signal from a signalling device; and resetting the intermittent doses to a time period of 30 minutes; if no further signal within the reset time limit, the delivery of the intermittent doses is reset to a time period of 60 minutes; or if there was a second input signal within 60 minutes of the first signal induced dose, the frequency of intermittent doses is increased having a time period of 30 minutes; and if there was a third input signal within 60 minutes of the first signal induced dose, the frequency of intermittent doses is increased having a time period of 20 minutes; and if there was a fourth input signal within 60 minutes of the first signal induced dose, the frequency of intermittent doses is increased having a time period of 15 minutes; if there are no further input signals for a following 60 minutes, the frequency of intermittent doses is increased each 60 minute period in the reverse order from the time interval of 15 minutes to 20 minutes to 30 minutes and then to 60 minutes where an input signal is not received. initiating the dispensing of the combined spinal-epidural analgesia in intermittent doses at a first background dosage rate of 5ml/h; dispensing a signal-induced dose of the combined spinal-epidural analgesia, in response to an input signal from a signalling device; and resetting the intermittent doses to a time period of 30 minutes; if no further signal within the reset time limit, the delivery of the intermittent doses is reset to a time period of 60 minutes; or if there was a second input signal within 60 minutes of the first signal induced dose, the frequency of intermittent doses is increased having a time period of 30 minutes; and if there was a third input signal within 60 minutes of the first signal induced dose, the frequency of intermittent doses is increased having a time period of 20 minutes; and if there was a fourth input signal within 60 minutes of the first signal induced dose, the frequency of intermittent doses is increased having a time period of 15 minutes; if there are no further input signals for a following 60 minutes, the frequency of intermittent doses is increased each 60 minute period in the reverse order from the time interval of 15 minutes to 20 minutes to 30 minutes and then to 60 minutes where an input signal is not received.
An aqueous binder composition comprising a multistage copolymer in two or more stages having as the outermost stage a polymerized acid functional aqueous solution polymer and as the one or more remaining stages a vinyl emulsion polymer wherein the emulsion polymer stage(s) in the multistage copolymer comprise 5 wt.% or less of hydrophilic monomer, based on the total weight of monomers used to make the emulsion polymer stage(s), and one or more polyol.
Mixture, comprising or at least substantially consisting of - compound of formula (Ia) and - compound of formula (Ib), wherein the weight ratio of the compound of formula (Ia) to the compound of formula (Ib) in the mixture is in a range of from 90: 10 to 99: 1. - compound of formula (Ia) and - compound of formula (Ib),
A method of operating a terminal in a wireless communication system, the method comprising: receiving a radio frequency, RF, signal for a channel group through a bandwidth comprising a plurality of channels composing the channel group; in response to identifying a signal strength of the received RF signal for the channel group being higher than a threshold, converting the received RF signal into a base-band signal, wherein a direct current, DC, that is a center frequency of the base-band signal is positioned at a center of the plurality of channels; performing (903, 905) a synchronization on a first channel by adjusting a position of the DC to a center of the first channel and detecting a first synchronous signal for the first channel; and performing (903, 905) the synchronization on a second channel by adjusting the position of the DC to a center of the second channel and detecting a second synchronous signal for the second channel, wherein the first channel and the second channel are comprised in the channel group. receiving a radio frequency, RF, signal for a channel group through a bandwidth comprising a plurality of channels composing the channel group; in response to identifying a signal strength of the received RF signal for the channel group being higher than a threshold, converting the received RF signal into a base-band signal, wherein a direct current, DC, that is a center frequency of the base-band signal is positioned at a center of the plurality of channels; performing (903, 905) a synchronization on a first channel by adjusting a position of the DC to a center of the first channel and detecting a first synchronous signal for the first channel; and performing (903, 905) the synchronization on a second channel by adjusting the position of the DC to a center of the second channel and detecting a second synchronous signal for the second channel, wherein the first channel and the second channel are comprised in the channel group.
Method for severing a microchip from a carrier body (1.1) of a wafer and arranging the microchip on a substrate, wherein the microchip is connected to the carrier body (1.1) inside a cutout (1.2) of the carrier body (1.1) by a plurality of retaining tabs, comprising the following method steps: • arranging the wafer on a rigid base, • arranging a tip (5.1) of a handling device above the microchip, • moving the tip (5.1) downward towards the microchip, wherein shear forces and/or bending forces act on the retaining tabs while the tip (5.1) contacts the microchip and these retaining tabs are broken so that the microchip is severed from the carrier body (1.1), characterized in that while the tip (5.1) contacts the microchip, a contact bonding process is initiated so that the microchip which is severed from the carrier body (1.1) is held at the tip (5.1) by adhesive force, transported to the substrate and deposited on the latter. • arranging the wafer on a rigid base, • arranging a tip (5.1) of a handling device above the microchip, • moving the tip (5.1) downward towards the microchip, wherein shear forces and/or bending forces act on the retaining tabs while the tip (5.1) contacts the microchip and these retaining tabs are broken so that the microchip is severed from the carrier body (1.1), characterized in that
An interface bridge circuit communicatively coupled to a first bus and a second bus, and configured to: receive, via the first bus, a snoop command from a first core device implementing a first protocol, wherein the first protocol is a retry bus coherency protocol; forward, via the second bus, the snoop command to a second core device implementing a second protocol, wherein the second protocol is an in-order-response non-retry bus coherency protocol; detect a potential deadlock condition between the first core device and the second core device while the snoop command is pending, wherein the potential deadlock condition is resulting from the differing requirements of the first and second protocols; and responsive to detecting the potential deadlock condition, send a retry response corresponding to the snoop command to the first core device. receive, via the first bus, a snoop command from a first core device implementing a first protocol, wherein the first protocol is a retry bus coherency protocol; forward, via the second bus, the snoop command to a second core device implementing a second protocol, wherein the second protocol is an in-order-response non-retry bus coherency protocol; detect a potential deadlock condition between the first core device and the second core device while the snoop command is pending, wherein the potential deadlock condition is resulting from the differing requirements of the first and second protocols; and responsive to detecting the potential deadlock condition, send a retry response corresponding to the snoop command to the first core device.
Display mechanism for a timepiece comprising a first display disc and a second display disc which are arranged to be coplanar and each bearing markings (10, 20) and an aperture, which is disposed on the line extending between the centres of the first and second display discs (1, 2), the display mechanism being arranged to drive the first and second display discs (1, 2) in rotation in opposite directions and in the same plane, characterised in that the display mechanism is arranged so as to display the markings of the first display disc and then the markings of the second display disc is succession through the aperture.
An elevator system in a building having a plurality of levels with a respective plurality of lobbies, including a first level and a second level having a respective first lobby and second lobby, the system comprising: an elevator car and a controller that is adapted to control the elevator car and communicate over a network with a device for a passenger seeking elevator service at the first lobby, wherein the controller is adapted to: generate statistical data of elevator usage from a dynamically updated accounting of elevator calls from the passenger, render a first determination from the statistical data that the passenger will request first elevator service at the first lobby, wherein the first determination includes the controller rendering from the statistical data a first time of day at which the passenger will effect the first request for elevator service; and transmit a first communication to the device that includes instructions to display the first determination for the passenger; characterized in that: the controller is adapted to render a second determination to instruct the elevator car to travel to the first lobby proximate the first time of day and idle at the first lobby until engaged by the passenger. an elevator car and a controller that is adapted to control the elevator car and communicate over a network with a device for a passenger seeking elevator service at the first lobby, wherein the controller is adapted to: generate statistical data of elevator usage from a dynamically updated accounting of elevator calls from the passenger, render a first determination from the statistical data that the passenger will request first elevator service at the first lobby, wherein the first determination includes the controller rendering from the statistical data a first time of day at which the passenger will effect the first request for elevator service; and generate statistical data of elevator usage from a dynamically updated accounting of elevator calls from the passenger, render a first determination from the statistical data that the passenger will request first elevator service at the first lobby, wherein the first determination includes the controller rendering from the statistical data a first time of day at which the passenger will effect the first request for elevator service; and transmit a first communication to the device that includes instructions to display the first determination for the passenger; characterized in that: the controller is adapted to render a second determination to instruct the elevator car to travel to the first lobby proximate the first time of day and idle at the first lobby until engaged by the passenger.
A connection assembly for an air maintenance tire system, the air maintenance tire system including an annular air tube, a valve housing and at least one connecting tube (22, 28) in fluid communication with the annular air tube and the valve housing, the connection assembly comprising a connection housing comprising a first port, a second port and a fluid passageway extending between the first port and the second port, a first compression fitting for fluidly connecting the annular air tube to the connection housing first port, and a second compression fitting for fluidly connecting the connecting tube (22, 28) to the connection housing second port, characterized in that the first compression fitting includes a nut that is formed with a cylindrical body, a shoulder and a central bore, the nut including threads formed on the cylindrical body, the threads engaging mating grooves or slots that are formed in a wall of the first port of the housing, the threads preferably fully engaging the slots with a one-half or one-quarter turn of the nut and/or the housing.
Linear actuator device comprising a shaft, which is aligned according to an axial direction, which can be displaced with respect to a casing in which it is housed at least partially, by actuating elastic means, wherein the shaft can be located in a first position in which it is actuated by the elastic means, being maintained immobile in said first position by the contact between said shaft and at least one support element which conveys its load to at least one intermediate element which in turn conveys its load to an activating element according to a direction parallel to the axial direction; the shaft being able to be located in a second position in which the activating element is rotated with respect to the axial direction with respect to the casing, with respect to the position thereof in the first position of the shaft, such that said at least one intermediate element is housed in a housing which the activating element has, allowing the displacement of said at least one support element such that the shaft is not in contact with said at least one support element, characterized in that said at least one intermediate element and said at least one support element are in direct contact, both in the first and in the second position of the shaft, and have a spherical configuration.
An exhaust gas control system for an internal combustion engine, the internal combustion engine including an exhaust gas control apparatus, the exhaust gas control apparatus including an adding mechanism and a catalyst, the adding mechanism being configured to add urea water to exhaust gas, and the catalyst being configured to adsorb ammonia resulting from the urea water and remove NOx by using the adsorbed ammonia, the exhaust gas control system comprising an electronic control unit configured to: set a target adsorption amount (NHp) for the ammonia adsorbed onto the catalyst; control a urea water addition amount based on the target adsorption amount; acquire a temperature (THEH) of the catalyst; execute a first processing for acquiring a parameter correlated to the time period during which the temperature (THEH) of the catalyst is equal to or higher than a threshold determined in advance; and execute an initialization processing for decreasing the amount of the ammonia adsorbed on the catalyst on a condition that said parameter calculated in the first processing is equal to or higher than a predetermined value. set a target adsorption amount (NHp) for the ammonia adsorbed onto the catalyst; control a urea water addition amount based on the target adsorption amount; acquire a temperature (THEH) of the catalyst; execute a first processing for acquiring a parameter correlated to the time period during which the temperature (THEH) of the catalyst is equal to or higher than a threshold determined in advance; and execute an initialization processing for decreasing the amount of the ammonia adsorbed on the catalyst on a condition that said parameter calculated in the first processing is equal to or higher than a predetermined value.
A method of a base station, BS, for allocating a feedback channel in a multi-user multiple-input multiple-output, MU-MIMO, communication system, the method comprising: measuring, by the BS, a MU-MIMO transmission environment by measuring an interference level; determining, by the BS, a feedback amount for each of a plurality of mobile stations, MSs, according to the MU-MIMO transmission environment; and allocating, by the BS, a feedback channel according to the determined feedback amount, wherein determining the feedback amount for each of the plurality of MSs according to the MU-MIMO transmission environment comprises: determining, by the BS, the feedback amount as a feedback amount for a single data stream, if the interference level is greater than a preset threshold; and determining, by the BS, the feedback amount as a feedback amount for a plurality of data streams, if the interference level is less than a preset threshold. measuring, by the BS, a MU-MIMO transmission environment by measuring an interference level; determining, by the BS, a feedback amount for each of a plurality of mobile stations, MSs, according to the MU-MIMO transmission environment; and allocating, by the BS, a feedback channel according to the determined feedback amount, wherein determining the feedback amount for each of the plurality of MSs according to the MU-MIMO transmission environment comprises: determining, by the BS, the feedback amount as a feedback amount for a single data stream, if the interference level is greater than a preset threshold; and determining, by the BS, the feedback amount as a feedback amount for a plurality of data streams, if the interference level is less than a preset threshold. determining, by the BS, the feedback amount as a feedback amount for a single data stream, if the interference level is greater than a preset threshold; and determining, by the BS, the feedback amount as a feedback amount for a plurality of data streams, if the interference level is less than a preset threshold.
A user equipment, comprising: a radio communication unit configured to receive a first RRC message related to reconfiguration of a second radio base station included in a secondary cell group for a split bearer that goes from a core network via the second radio base station and splits from the second radio base station toward a first radio base station included in a master cell group, and to receive a second RRC message that requests modification of the split bearer, and a controlling unit configured to release part of the resources of the split bearer based on the second RRC message when a radio link failure in the second radio base station is detected. a radio communication unit configured to receive a first RRC message related to reconfiguration of a second radio base station included in a secondary cell group for a split bearer that goes from a core network via the second radio base station and splits from the second radio base station toward a first radio base station included in a master cell group, and to receive a second RRC message that requests modification of the split bearer, and a controlling unit configured to release part of the resources of the split bearer based on the second RRC message when a radio link failure in the second radio base station is detected.
A method for monitoring a data flow in a communication network, said method comprising: a) associating said data flow with a class of monitoring associated with a service of monitoring to be applied to said data flow by marking data units (Pki) of said data flow by setting a feature of said data units (Pki) to a value indicating said class of monitoring; b) determining said class of monitoring by detecting said feature in said data units (Pki) and associating said data units (Pki) with said service of monitoring on the basis of said class of monitoring; and c) applying said service of monitoring for monitoring said data flow, wherein said applying said service of monitoring is performed according to a monitoring policy which is associated with said service of monitoring and specifies one or more monitoring actions to be performed on said marked data units (Pki), and wherein said marking comprises subdividing said data flow in first blocks and second blocks, said first blocks alternating in time with said second blocks, by setting said feature of the data units (Pki) of said first blocks to said value indicating said class of monitoring, wherein said value indicating said class of monitoring is higher than 1, and setting said feature of the data units (Pki) of said second blocks to a predetermined value equal to 1. a) associating said data flow with a class of monitoring associated with a service of monitoring to be applied to said data flow by marking data units (Pki) of said data flow by setting a feature of said data units (Pki) to a value indicating said class of monitoring; b) determining said class of monitoring by detecting said feature in said data units (Pki) and associating said data units (Pki) with said service of monitoring on the basis of said class of monitoring; and c) applying said service of monitoring for monitoring said data flow, wherein said applying said service of monitoring is performed according to a monitoring policy which is associated with said service of monitoring and specifies one or more monitoring actions to be performed on said marked data units (Pki), and wherein said marking comprises subdividing said data flow in first blocks and second blocks, said first blocks alternating in time with said second blocks, by setting said feature of the data units (Pki) of said first blocks to said value indicating said class of monitoring, wherein said value indicating said class of monitoring is higher than 1, and setting said feature of the data units (Pki) of said second blocks to a predetermined value equal to 1.