mhurhangee/patent-ind-claim-en huggingface dataset:
A method of reducing recovery time for an application, the method comprising: monitoring, based on a first application instance of the application running in a first mode, for failure detection of the first application instance running on a first computing device , wherein monitoring for failure detection comprises monitoring for failure to replicate data based on a corresponding mode of the first application instance and a set of data replication requirements associated with the corresponding mode; determining that the first application instance is to be changed from the first mode to a second mode; based on the determination, validating that a second application instance can run in the first mode by performing a data integrity compliance check; and responsive to validating that the second application instance can run in the first mode, facilitating running of the second application instance in the first mode. monitoring, based on a first application instance of the application running in a first mode, for failure detection of the first application instance running on a first computing device , wherein monitoring for failure detection comprises monitoring for failure to replicate data based on a corresponding mode of the first application instance and a set of data replication requirements associated with the corresponding mode; determining that the first application instance is to be changed from the first mode to a second mode; based on the determination, validating that a second application instance can run in the first mode by performing a data integrity compliance check; and responsive to validating that the second application instance can run in the first mode, facilitating running of the second application instance in the first mode.
A non-volatile memory , comprising: an array of memory cells, comprising: a first section (107-1, 207-1) comprising a plurality of rows (235-1,1 to 235-1,N); and a second section (107-2, 207-2) comprising a plurality of rows (235-2,1 to 235-2,N); and a controller configured to perform a wear leveling operation and, in association with performing the wear leveling operation: transfer data stored in a first row (235-1,1) of the first section from the first row to a register ; and transfer the data from the register to a destination row (235-2,1) of the second section while data in a second row (235-1,2) of the first section is being sensed. an array of memory cells, comprising: a first section (107-1, 207-1) comprising a plurality of rows (235-1,1 to 235-1,N); and a second section (107-2, 207-2) comprising a plurality of rows (235-2,1 to 235-2,N); and a first section (107-1, 207-1) comprising a plurality of rows (235-1,1 to 235-1,N); and a second section (107-2, 207-2) comprising a plurality of rows (235-2,1 to 235-2,N); and a controller configured to perform a wear leveling operation and, in association with performing the wear leveling operation: transfer data stored in a first row (235-1,1) of the first section from the first row to a register ; and transfer the data from the register to a destination row (235-2,1) of the second section while data in a second row (235-1,2) of the first section is being sensed. transfer data stored in a first row (235-1,1) of the first section from the first row to a register ; and transfer the data from the register to a destination row (235-2,1) of the second section while data in a second row (235-1,2) of the first section is being sensed.
A lubricating oil composition comprising a refined paraffinic mineral oil (A) having a flash point of 250°C or higher and an alkylbenzene (B) having a flash point of 160°C or higher, and an antioxidant (D) containing an amine-based antioxidant (D1), wherein the lubricating oil composition has a flash point of 250°C or higher, the content of the refined paraffinic mineral oil (A) is from 60 to 99.9 % by mass, the content of the alkylbenzene (B) is from 0.1 to 10 % by mass and the content of the antioxidant (D) is from 0.01 to 15 % by mass, based on the total amount of the lubricating oil composition, and the amine-based antioxidant (D1) contains a diphenylamine compound (D11) and a phenyl-naphthylamine compound (D12), and wherein the flash point is a value measured according to a Cleveland open-cup method according to JIS K2265-4.
A method for transmitting a radio frame by a second type station, STA, in a wireless local area network, WLAN, system, the method comprising: configuring the radio frame including a first part for a first type STA and a second part for the second type STA, wherein the second part comprises a first signaling field and a second signaling field; and transmitting the configured radio frame via a bandwidth equal to or greater than 80 MHz, wherein configuring the radio frame comprises: processing information for at least one of the first signaling field or the second signaling field to be transmitted via a first 20 MHz of the bandwidth; and duplicating the information processed for the first 20 MHz into a second 20 MHz within the bandwidth, wherein the processing information comprises: encoding and modulating the information based on a lowest Modulation and Coding Scheme, MCS, level among available MCS levels, wherein the lowest MCS is used for Binary Phase Shift Keying, BPSK, and 1/2 coding rate; and repeating the encoded- and modulated-information in a unit of n bits within the 20 MHz channel, wherein n is an integer being one of 1, 2, 3, 4, 6, 8, 12, 24. configuring the radio frame including a first part for a first type STA and a second part for the second type STA, wherein the second part comprises a first signaling field and a second signaling field; and transmitting the configured radio frame via a bandwidth equal to or greater than 80 MHz, wherein configuring the radio frame comprises: processing information for at least one of the first signaling field or the second signaling field to be transmitted via a first 20 MHz of the bandwidth; and duplicating the information processed for the first 20 MHz into a second 20 MHz within the bandwidth, processing information for at least one of the first signaling field or the second signaling field to be transmitted via a first 20 MHz of the bandwidth; and duplicating the information processed for the first 20 MHz into a second 20 MHz within the bandwidth, wherein the processing information comprises: encoding and modulating the information based on a lowest Modulation and Coding Scheme, MCS, level among available MCS levels, wherein the lowest MCS is used for Binary Phase Shift Keying, BPSK, and 1/2 coding rate; and repeating the encoded- and modulated-information in a unit of n bits within the 20 MHz channel, wherein n is an integer being one of 1, 2, 3, 4, 6, 8, 12, 24. encoding and modulating the information based on a lowest Modulation and Coding Scheme, MCS, level among available MCS levels, wherein the lowest MCS is used for Binary Phase Shift Keying, BPSK, and 1/2 coding rate; and repeating the encoded- and modulated-information in a unit of n bits within the 20 MHz channel, wherein n is an integer being one of 1, 2, 3, 4, 6, 8, 12, 24.
A method of synthesizing a compound of the structure wherein R is H, R 1 a and R 1 b are independently selected from H and F, provided that at least one of R 1 a and R 1 b is F, Het is an optionally-substituted five- or six-membered heterocycle comprising at least one N, O, or S atom, comprising treating a compound having the structure wherein R 2 is selected from the group consisting of optionally substituted benzyl and optionally substituted C 1 -C 6 alkyl, with glycidyl butyrate in the presence of a strong base or an organolithium salt under conditions to make R is H, R 1 a and R 1 b are independently selected from H and F, provided that at least one of R 1 a and R 1 b is F, Het is an optionally-substituted five- or six-membered heterocycle comprising at least one N, O, or S atom,
A method for device to device, D2D, communication by a terminal, the method comprising: obtaining, from a radio link control, RLC, layer, first data for transmission via a D2D dedicated logical channel ; obtaining, from the RLC layer, second data for transmission via a logical channel for a cellular network communication; buffering, to a first buffer, information received for transmission via any D2D dedicated logical channel; buffering, to a second buffer, information received for transmission via any logical channel for the cellular network communication; triggering a buffer status report, BSR; calculating first buffer size information per logical channel group based on the first data which is buffered in the first buffer; calculating second buffer size information per logical channel group based on the second data which is buffered in the second buffer; generating a first medium access control, MAC, control element, CE, for a BSR of the D2D communication based on the first buffer size information per logical channel group; and generating a second MAC CE for a BSR of the cellular network communication based on the second buffer sizeinformation per logical channel group; wherein each logical channel group is formed by grouping logical channels based on priorities of the logical channels and logical channel configuration information, wherein the method further comprises in case that a resource for transmission is not enough to allocate the first MAC CE and the second MAC CE simultaneously, selecting and transmitting the second MAC CE with a priority. obtaining, from a radio link control, RLC, layer, first data for transmission via a D2D dedicated logical channel ; obtaining, from the RLC layer, second data for transmission via a logical channel for a cellular network communication; buffering, to a first buffer, information received for transmission via any D2D dedicated logical channel; buffering, to a second buffer, information received for transmission via any logical channel for the cellular network communication; triggering a buffer status report, BSR; calculating first buffer size information per logical channel group based on the first data which is buffered in the first buffer; calculating second buffer size information per logical channel group based on the second data which is buffered in the second buffer; generating a first medium access control, MAC, control element, CE, for a BSR of the D2D communication based on the first buffer size information per logical channel group; and generating a second MAC CE for a BSR of the cellular network communication based on the second buffer sizeinformation per logical channel group; wherein each logical channel group is formed by grouping logical channels based on priorities of the logical channels and logical channel configuration information, wherein the method further comprises in case that a resource for transmission is not enough to allocate the first MAC CE and the second MAC CE simultaneously, selecting and transmitting the second MAC CE with a priority.
Aqueous composition comprising at least one water glass having a molar modulus in a range of about 2.0 to about 4.0, at least one first reactive, namely at least one inorganic and/or at least one organic acid, and at least one second reactive, namely at least one ester, selected from a group comprising methyl esters, ethyl esters and/or propyl esters of ascorbic acid, acetic acid, and dicarboxylic acid esters having carbon chains with 1 to 6 carbon atoms, triglycerides, propylene carbonate, triacetin or dibasic esters, wherein the pH of the aqueous composition is in a range from about 7 to about 10.5.
A material lifter comprising: a vacuum pump ; a frame containing the vacuum pump; an arm located on each of two opposing sides of the frame, each arm including an upper and a lower end , the upper end pivotally connected to the frame; a vacuum pad located on each of the two opposing sides of the frame, each vacuum pad in fluid communication with the vacuum pump and removably connected to a respective arm, the material lifter being characterized in that it comprises: a cylinder located on each of the two opposing sides of the frame, each cylinder including an upper end connected to the frame and a lower end connected to a respective arm; and in that the vacuum pads are moveable along the arm to a first location and a first orientation and a second different location and a second different orientation; wherein as the cylinders extend and retract: the arms pivot toward and away from one another between a first clock position and a second different clock position. a vacuum pump ; a frame containing the vacuum pump; an arm located on each of two opposing sides of the frame, each arm including an upper and a lower end , the upper end pivotally connected to the frame; a vacuum pad located on each of the two opposing sides of the frame, each vacuum pad in fluid communication with the vacuum pump and removably connected to a respective arm, the material lifter being characterized in that it comprises: a cylinder located on each of the two opposing sides of the frame, each cylinder including an upper end connected to the frame and a lower end connected to a respective arm; and in that the vacuum pads are moveable along the arm to a first location and a first orientation and a second different location and a second different orientation; a cylinder located on each of the two opposing sides of the frame, each cylinder including an upper end connected to the frame and a lower end connected to a respective arm; and in that the vacuum pads are moveable along the arm to a first location and a first orientation and a second different location and a second different orientation;
Assembly for making a lamp incorporated in a wall of perforated bricks or blocks, or in a panel cladding of a wall, comprising: - a front body wherein a light emission cavity is obtained extending from a rear body opening to a front body opening ; - a lamp housing forming a lamp seat suitable to house a lamp body and defining a rear housing opening for the passage of the power supply cables of the lamp body and a front housing opening suitable to face or be partially inserted into the rear body opening ; and - a rear body forming a housing seat suitable to receive with shape-coupling the lamp housing protruding from the rear of the front body , wherein said rear body is suitable to be coupled to the front body so as to form a monobloc panel substantially parallelepiped in shape which completely incorporates the lamp housing, which is suitable to be inserted and fixed between the bricks, blocks or panels forming the wall or a cladding of the wall, and having a front surface suitable to receive a finishing layer of the wall or cladding of the wall. - a front body wherein a light emission cavity is obtained extending from a rear body opening to a front body opening ; - a lamp housing forming a lamp seat suitable to house a lamp body and defining a rear housing opening for the passage of the power supply cables of the lamp body and a front housing opening suitable to face or be partially inserted into the rear body opening ; and - a rear body forming a housing seat suitable to receive with shape-coupling the lamp housing protruding from the rear of the front body ,
Method for personalizing a UICC cooperating with a terminal, said method comprising: i- Sending from said UICC to a-D-HSS , which is an improved HSS, an attach request message comprising an IMSI with a given MCC/MNC; ii- Sending from said D-HSS to said UICC at least a command and a first cryptographic data; iii- Computing at said UICC a secret key Ki by using said first cryptographic data; iv- Sending from said UICC to said D-HSS in at least one Authentication failure message a command and a second cryptographic data or a part of it; v- Repeating steps ii to iv until said UICC holds the entire first cryptographic data and said D-HSS holds the entire second cryptographic data; vi- When said D-HSS holds the entire second cryptographic data, computing at said D-HSS the same secret key by using said second entire cryptographic data; vii- Allocating by said D-HSS a free IMSI belonging to an operator and transferring from said D-HSS to said UICC personalization data including said free IMSI and other personalization data; viii - Personalizing said UICC with said personalization data and said secret key. i- Sending from said UICC to a-D-HSS , which is an improved HSS, an attach request message comprising an IMSI with a given MCC/MNC; ii- Sending from said D-HSS to said UICC at least a command and a first cryptographic data; iii- Computing at said UICC a secret key Ki by using said first cryptographic data; iv- Sending from said UICC to said D-HSS in at least one Authentication failure message a command and a second cryptographic data or a part of it; v- Repeating steps ii to iv until said UICC holds the entire first cryptographic data and said D-HSS holds the entire second cryptographic data; vi- When said D-HSS holds the entire second cryptographic data, computing at said D-HSS the same secret key by using said second entire cryptographic data; vii- Allocating by said D-HSS a free IMSI belonging to an operator and transferring from said D-HSS to said UICC personalization data including said free IMSI and other personalization data; viii - Personalizing said UICC with said personalization data and said secret key.
Method for operating a multi-axis system comprising a plurality of basic axes (X1, X2) and at least one drive axis (Y) which is mechanically coupled to the basic axes (X1, X2) at coupling points (K1, K2), the positions (p1, p2) of the coupling points (K1, K2) on the basic axes (X1, X2) being changeable by means of an associated motor (M1, M2) in order to move the drive axis (Y) in relation to the basic axes (X1, X2), closed-loop control units (R1, R2) being provided which are associated with the motors (M1, M2) and determine control input variables (u1, u2) from specified setpoint variables (w1, w2), preferably setpoint positions (p1 soll , p2 soll ), and from associated corresponding actual variables (x1, x2), preferably the positions (p1, p2), occurring at the motor (M1, M2) and provide said control input variables to the motors (M1, M2) in order to control the corresponding actual variables (x1, x2) in accordance with the specified setpoint variables (w1, w2), characterized in that a feedforward control unit (V1, V2) associated with the motors (M1, M2) is provided in each case, which feedforward control unit in each case determines a feedforward control value (v1, v2) based on the associated specified setpoint variable (w1, w2) and superimposes said feedforward control value on the associated control input variable (u1, u2), in that a feedforward control identification process is provided, during which actual identification variables (x1', x2') occurring on each motor (M1, M2) are each provided to identification units (I1, I2) associated with the feedforward control units (V1, V2), feedforward control parameters (P1, P2) being identified using the actual identification variables (x1', x2'), and in that the closed-loop control units (R1, R2) are parameterized using the feedforward control parameters (P1, P2).
A tap assembly , the tap assembly including a partially hollow body which defines a dispensing chamber within the body with a liquid inlet and a liquid outlet, the liquid inlet being located to receive liquid to be dispensed by the tap assembly, the liquid outlet connecting to an outlet arrangement for the tap assembly, a valve assembly to selectively open the dispensing chamber liquid inlet, the valve assembly including a valve element selectively movable between a position closing the dispensing chamber liquid inlet and a position permitting liquid to pass therethrough, a push button for operating the valve assembly, the push button defining an operating chamber against part of the body, such that as the push button is pushed to operate the valve assembly the push button moves into the operating chamber, a connecting member which extends from the push button through the operating chamber, through an opening in a part of the body, and into the dispensing chamber to the valve element, with a seal provided in the opening in a part of the body to prevent liquid passing from the dispensing chamber to the operating chamber, characterised in that the opening in the body comprises a deformable part which is deformed by the connecting member extending through the opening and is resiliently urged onto the connecting member, the deformable part forming a swipe seal against the connecting member. a valve assembly to selectively open the dispensing chamber liquid inlet, the valve assembly including a valve element selectively movable between a position closing the dispensing chamber liquid inlet and a position permitting liquid to pass therethrough, a push button for operating the valve assembly, the push button defining an operating chamber against part of the body, such that as the push button is pushed to operate the valve assembly the push button moves into the operating chamber, a connecting member which extends from the push button through the operating chamber, through an opening in a part of the body, and into the dispensing chamber to the valve element, with a seal provided in the opening in a part of the body to prevent liquid passing from the dispensing chamber to the operating chamber, characterised in that the opening in the body comprises a deformable part which is deformed by the connecting member extending through the opening and is resiliently urged onto the connecting member, the deformable part forming a swipe seal against the connecting member.
A network connection method, wherein a terminal device supports a dual connection mode and establishes a connection with a network device through a first network, characterized in that the method comprises: sending (S201), by the terminal device , a cell re-registration request message to the network device in a case that a request for updating a tracking area from the terminal device to the network device fails; wherein the cell re-registration request message is configured to cause the network device to know a capability of the terminal device to connect to a second network; and receiving (S202), by the terminal device , a network connection mode configured by the network device . sending (S201), by the terminal device , a cell re-registration request message to the network device in a case that a request for updating a tracking area from the terminal device to the network device fails; wherein the cell re-registration request message is configured to cause the network device to know a capability of the terminal device to connect to a second network; and receiving (S202), by the terminal device , a network connection mode configured by the network device .