mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a memory module, comprising: determining a fixed response time based, at least in part, on a total memory latency of the memory module; identifying an available time slot for receiving return data from the memory module over a data bus, wherein the time difference between a current clock cycle and the available time slot is greater than or equal to the fixed response time; creating a first slot reservation by reserving the available time slot; issuing a read request to the memory module over the data bus, wherein the read request is issued at a clock cycle determined by subtracting the fixed response time from a time of the first slot reservation; and comprising creating a second slot reservation by identifying and reserving a second available time slot later in time than the first slot reservation, wherein second return data corresponding to the read request is received at the second slot reservation if the memory module is not able to return requested data indicated by the read request in time for the requested data to arrive at the first slot reservation. determining a fixed response time based, at least in part, on a total memory latency of the memory module; identifying an available time slot for receiving return data from the memory module over a data bus, wherein the time difference between a current clock cycle and the available time slot is greater than or equal to the fixed response time; creating a first slot reservation by reserving the available time slot; issuing a read request to the memory module over the data bus, wherein the read request is issued at a clock cycle determined by subtracting the fixed response time from a time of the first slot reservation; and comprising creating a second slot reservation by identifying and reserving a second available time slot later in time than the first slot reservation, wherein second return data corresponding to the read request is received at the second slot reservation if the memory module is not able to return requested data indicated by the read request in time for the requested data to arrive at the first slot reservation.
A method of managing a first translation lookaside buffer, TLB, the method comprising: in response to starting execution of a memory instruction, setting a first field associated with an entry of the first TLB to indicate use of the entry, wherein the entry is used during the execution of the memory instruction, and setting a second field to indicate whether the entry in the first TLB matches a corresponding entry in a second TLB, wherein: the first TLB includes a plurality of first fields that are associated with the entry; each first field of the plurality of first fields indicates whether a particular slot of a very long instruction word, VLIW, packet is using the entry; the VLIW packet includes multiple slots; a first slot of the VLIW packet includes a first memory instruction and a second slot includes a second memory instruction; and the first memory instruction and the second memory instruction are architecturally atomic; and the first field is one of the plurality of fields; and the method further comprises preventing the entry in the first TLB from being synchronized to match the corresponding entry in the second TLB while the first field is set. in response to starting execution of a memory instruction, setting a first field associated with an entry of the first TLB to indicate use of the entry, wherein the entry is used during the execution of the memory instruction, and setting a second field to indicate whether the entry in the first TLB matches a corresponding entry in a second TLB, wherein: the first TLB includes a plurality of first fields that are associated with the entry; each first field of the plurality of first fields indicates whether a particular slot of a very long instruction word, VLIW, packet is using the entry; the VLIW packet includes multiple slots; a first slot of the VLIW packet includes a first memory instruction and a second slot includes a second memory instruction; and the first memory instruction and the second memory instruction are architecturally atomic; and the first field is one of the plurality of fields; and the first TLB includes a plurality of first fields that are associated with the entry; each first field of the plurality of first fields indicates whether a particular slot of a very long instruction word, VLIW, packet is using the entry; the VLIW packet includes multiple slots; a first slot of the VLIW packet includes a first memory instruction and a second slot includes a second memory instruction; and the first memory instruction and the second memory instruction are architecturally atomic; and the first field is one of the plurality of fields; and the method further comprises preventing the entry in the first TLB from being synchronized to match the corresponding entry in the second TLB while the first field is set.
A rubber composition for tire in which a complex modulus G* 50°C at 50°C and a dynamic strain amplitude of 5% and a complex modulus G* 100°C at 100°C and a dynamic strain amplitude of 5% satisfy the following formula: G * 100 ° C /G* 50°C > 0.85 an elongation at break EB 23°C in a tensile test at 23°C is not less than 350% and a loss tangent tanδ 50°C at 50°C and a dynamic strain amplitude of 1% is not less than 0.12, wherein the rubber composition comprises a rubber component comprising not less than 50% by mass of a diene rubber in which a content of styrene is 25 to 50% by mass and a vinyl bond amount is 10 to 35 mol% and carbon black and the content of carbon black based on 100 parts by mass of the rubber component is not less than 3 parts by mass.
An integrated aircraft seat control panel, comprising: an armrest; a user interface device at least partially embedded in a cavity defined within the armrest of an aircraft seat, the cavity being accessible via at least one exterior surface of the armrest, the user interface device including at least one user input device; at least one signal path for communicatively coupling the user interface device to at least one component of the aircraft seat, the user interface device being configured to generate at least one signal for at least one control function of the at least one component following an input being received via the at least one user input device; and a textile covering coupled to the armrest and positioned above the user interface device, the textile covering configured to transmit the input to the at least one user input device through the textile covering; wherein the textile covering extends to cover at least a portion of the armrest apart from the user interface device; characterized in that the textile covering includes a plurality of icons aligned above the at least one user input device, and the plurality of icons are configured to be illuminated from below via a light source output of the user interface device. an armrest; a user interface device at least partially embedded in a cavity defined within the armrest of an aircraft seat, the cavity being accessible via at least one exterior surface of the armrest, the user interface device including at least one user input device; at least one signal path for communicatively coupling the user interface device to at least one component of the aircraft seat, the user interface device being configured to generate at least one signal for at least one control function of the at least one component following an input being received via the at least one user input device; and a textile covering coupled to the armrest and positioned above the user interface device, the textile covering configured to transmit the input to the at least one user input device through the textile covering; wherein the textile covering extends to cover at least a portion of the armrest apart from the user interface device; characterized in that the textile covering includes a plurality of icons aligned above the at least one user input device, and the plurality of icons are configured to be illuminated from below via a light source output of the user interface device.
A method of wireless communication of a user equipment, UE, comprising: receiving signaling from a base station that indicates different tone indices; and transmitting a plurality of symbols (504, 506) in a single tone uplink transmission, wherein groups of symbols in the plurality of symbols are transmitted in the single tone uplink transmission using the different tone indices indicated by the received signaling, wherein the transmitting the plurality of symbols in the single tone uplink transmission comprises: transmitting a first symbol of a first symbol pair using a first tone index, and transmitting a second symbol of the first symbol pair using a second tone index that is a fixed frequency difference from the first tone index. receiving signaling from a base station that indicates different tone indices; and transmitting a plurality of symbols (504, 506) in a single tone uplink transmission, wherein groups of symbols in the plurality of symbols are transmitted in the single tone uplink transmission using the different tone indices indicated by the received signaling, wherein the transmitting the plurality of symbols in the single tone uplink transmission comprises: transmitting a first symbol of a first symbol pair using a first tone index, and transmitting a second symbol of the first symbol pair using a second tone index that is a fixed frequency difference from the first tone index. transmitting a first symbol of a first symbol pair using a first tone index, and transmitting a second symbol of the first symbol pair using a second tone index that is a fixed frequency difference from the first tone index.
Cosmetic method for in vivo hair multiplication, comprising the steps of: (a) providing at least a part of a hair follicle in the anagen phase, said at least a part of a hair follicle comprising at least one hair follicular stem cell; (b) longitudinally sectioning the at least a part of a hair follicle to produce at least two of said at least a part of a hair follicle, each of the at least two of said at least a part of a hair follicle comprising at least one hair follicular stem cell; (c) making at least one incision along the longitudinal axis of the at least two of said at least a part of a hair follicle; and (d) contacting said at least a part of a hair follicle of step (c) with a medium for at least 1 second. (a) providing at least a part of a hair follicle in the anagen phase, said at least a part of a hair follicle comprising at least one hair follicular stem cell; (b) longitudinally sectioning the at least a part of a hair follicle to produce at least two of said at least a part of a hair follicle, each of the at least two of said at least a part of a hair follicle comprising at least one hair follicular stem cell; (c) making at least one incision along the longitudinal axis of the at least two of said at least a part of a hair follicle; and (d) contacting said at least a part of a hair follicle of step (c) with a medium for at least 1 second.
A method for discovering system entities in a network comprising: identifying a plurality of system entities described in an asset repository, the asset repository defining a particular hierarchical organization of the plurality of system entities within a computing environment; tagging a particular system entity in the plurality of system entities with a particular tag; and associating the particular system entity with a particular security policy based on the particular system entity being tagged with the particular tag, wherein the particular security policy is applied to system entities in the asset repository tagged with one or more tags in a particular set of tags including the particular tag and wherein the particular security policy is enforced for the particular system entity using network security components remote from the particular system entity; characterized in that the method further comprises identifying one or more attributes of the particular system entity using an asset detection engine, wherein the particular system entity is tagged with the particular tag based at least in part on the one or more identified attributes, wherein pluggable discovery sensors enable identification of the attributes by the asset detection engine and wherein the pluggable discovery sensors include one or more passive discovery sensors adapted to identify the one or more attributes of the particular system entity without communicating with the particular system entity. identifying a plurality of system entities described in an asset repository, the asset repository defining a particular hierarchical organization of the plurality of system entities within a computing environment; tagging a particular system entity in the plurality of system entities with a particular tag; and associating the particular system entity with a particular security policy based on the particular system entity being tagged with the particular tag, wherein the particular security policy is applied to system entities in the asset repository tagged with one or more tags in a particular set of tags including the particular tag and wherein the particular security policy is enforced for the particular system entity using network security components remote from the particular system entity; characterized in that the method further comprises identifying one or more attributes of the particular system entity using an asset detection engine, wherein the particular system entity is tagged with the particular tag based at least in part on the one or more identified attributes, wherein pluggable discovery sensors enable identification of the attributes by the asset detection engine and wherein the pluggable discovery sensors include one or more passive discovery sensors adapted to identify the one or more attributes of the particular system entity without communicating with the particular system entity.
A wheeled concrete working device movable over a surface of uncured concrete and operable to establish a desired grade of the uncured concrete surface, said wheeled concrete working device comprising: a wheeled support selectively movable in a forward direction and a rearward direction, said wheeled support comprising a forward frame portion supported by at least one front wheel and a rearward frame portion pivotally attached to said forward frame portion and supported by at least one rear wheel; a plow assembly mounted to said forward frame portion, said plow assembly including at least one plow member for engaging and establishing the desired grade of the concrete when said wheeled support is moved in said rearward direction, said wheeled concrete working device being operable in response to a signal from a laser receiver mounted at said plow assembly to adjust an elevation of said plow member to establish the desired grade of the concrete when said wheeled support is moved in said rearward direction; characterised by; a user input that is adjustable by an operator of said wheeled concrete working device to adjust a down pressure of said plow assembly at the concrete when said wheeled support is moved in said rearward direction.
A compound having Formula: M is a metal having an atomic weight greater than 40, n has a value of at least 1 and m+n is the maximum number of ligands that may be attached to the metal; wherein A is a linking group having two to three linking atoms, wherein the linking atoms are each independently selected from the group consisting of C, Si, O, S, N, B or combinations thereof, and wherein R 1a - R 1g are independently selected from hydrogen, alkyl, alkenyl, alkynyl, aralkyl, CN, CF 3, CO 2 R, C R, C NR 2, NR 2, NO 2, OR, SR, SO 2, SOR, SO 3 R, halo, aryl, heteroaryl, substituted aryl, substituted heteroaryl, or a heterocyclic group, each R is independently selected from H, halo, alkyl, alkenyl, alkynyl, heteroalkyl, aralkyl, aryl, and heteroaryl; any one of the ring atoms to which R 1 b to R 1 g are attached may be replaced with a nitrogen atom, wherein when the ring atom is replaced with a nitrogen atom the corresponding R group is not present; and L is a substituted or unsubstituted cyclometallated ligand. M is a metal having an atomic weight greater than 40, n has a value of at least 1 and m+n is the maximum number of ligands that may be attached to the metal; wherein A is a linking group having two to three linking atoms, wherein the linking atoms are each independently selected from the group consisting of C, Si, O, S, N, B or combinations thereof, and wherein R 1a - R 1g are independently selected from hydrogen, alkyl, alkenyl, alkynyl, aralkyl, CN, CF 3, CO 2 R, C R, C NR 2, NR 2, NO 2, OR, SR, SO 2, SOR, SO 3 R, halo, aryl, heteroaryl, substituted aryl, substituted heteroaryl, or a heterocyclic group, each R is independently selected from H, halo, alkyl, alkenyl, alkynyl, heteroalkyl, aralkyl, aryl, and heteroaryl; any one of the ring atoms to which R 1 b to R 1 g are attached may be replaced with a nitrogen atom, wherein when the ring atom is replaced with a nitrogen atom the corresponding R group is not present; and L is a substituted or unsubstituted cyclometallated ligand.
Choke including two coils (20, 30) and a core, wherein the core comprises a plurality of core sections including a plurality of outer legs (230, 240, 240-A, 240-B, 240-C, 240-D) and a centre leg (250, 350, 450); the core sections form two loops with the centre leg as a common portion; and each of the two coils (20, 30) is located on different loops outside the common portion; wherein the outer legs consist of two outer legs supporting the coils and two lateral outer legs serving as connecting members of the outer legs supporting the coils forming a magnetic circuit, and wherein the centre leg, which is parallel to the outer legs supporting the coils and which connects approximately the centres of the lateral outer legs, causes a magnetic short circuit between the connecting members and divides the magnetic circuit into two loops (200-A, 200-B), characterized in that the outer legs (230, 240, 240-A, 240-B, 240-C, 240-D) have a cross-section A1; the centre leg (250, 350, 450) for the common portion has a cross-section A2 < 2 x A1, and the magnetic resistance R MA of at least one of the outer legs is higher than the magnetic resistance R MI of the centre leg, wherein R MA > 20 x R MI. the core comprises a plurality of core sections including a plurality of outer legs (230, 240, 240-A, 240-B, 240-C, 240-D) and a centre leg (250, 350, 450); the core sections form two loops with the centre leg as a common portion; and each of the two coils (20, 30) is located on different loops outside the common portion; wherein the outer legs consist of two outer legs supporting the coils and two lateral outer legs serving as connecting members of the outer legs supporting the coils forming a magnetic circuit, and wherein the centre leg, which is parallel to the outer legs supporting the coils and which connects approximately the centres of the lateral outer legs, causes a magnetic short circuit between the connecting members and divides the magnetic circuit into two loops (200-A, 200-B), characterized in that the outer legs (230, 240, 240-A, 240-B, 240-C, 240-D) have a cross-section A1; the centre leg (250, 350, 450) for the common portion has a cross-section A2 < 2 x A1, and the magnetic resistance R MA of at least one of the outer legs is higher than the magnetic resistance R MI of the centre leg, wherein R MA > 20 x R MI.
A method of masking an off-note in an orally-receivable or -ingestible composition, comprising the addition thereto of an off-note masking quantity of 1-(2-hydroxyphenyl)-3-(pyridin-4-yl)propane-1-one or a salt thereof, and a compound selected from the group consisting of 4-[2,2,3-trimethyl-cyclopentyl]-butanoic acid, 2-[(3-ethyl-4,8-dimethyl-2-oxo-2H-chromen-7-yl)oxy]propanoic acid, and salts thereof.
System, in particular for cleaning, comprising: - at least one high-pressure pumping unit designed to pump water or other similar fluids with a high output pressure; - at least one electric motor connected to the high-pressure pump for its actuation; - at least one device for regulating the revolutions of the pump, connected to the motor for its control and for regulating the pump in order to deliver water at a variable pressure, preferably from 0 to 500 bar, and at a very low flow-rate, preferably from 2 to 4 1/min; - at least one nozzle characterised in that the nozzle is equipped with at least one rotary head rotated by at least one pneumatic motor; and - at least one air compressor designed to provide the supply compressed air to said pneumatic motor. - at least one high-pressure pumping unit designed to pump water or other similar fluids with a high output pressure; - at least one electric motor connected to the high-pressure pump for its actuation; - at least one device for regulating the revolutions of the pump, connected to the motor for its control and for regulating the pump in order to deliver water at a variable pressure, preferably from 0 to 500 bar, and at a very low flow-rate, preferably from 2 to 4 1/min; - at least one nozzle - at least one air compressor designed to provide the supply compressed air to said pneumatic motor.
A process for converting organosulfur compounds in a liquid hydrocarbon feedstock to oxidation products sulfoxides and/or sulfones of the organosulfur compounds, including in-situ production of oxidant, the process comprising: a. providing an electrochemical reactor in which both in-situ production of oxidant and oxidative conversion of organosulfur compounds occur, the reactor including a gas-permeable and liquid-impermeable cathode in communication with a catholyte compartment, and an anode within an anolyte compartment, the cathode and the anode electrically coupled to an electrical power source and spaced apart from one another, and the catholyte compartment and anolyte compartment in fluid isolation and ionic communication via an ion-conducting membrane; b. conveying a gaseous source of oxygen to an outer surface of the gas-permeable and liquid-impermeable cathode to form oxygen ions; c. conveying acidic catholyte and the liquid hydrocarbon feedstock into the catholyte compartment, and conveying acidic anolyte into the anolyte compartment, wherein hydrogen peroxide and hydrogen peroxide ions are electrosynthesized by reaction of oxygen ions generated at the cathode and hydrogen cations from the anolyte, d. oxidizing organosulfur compounds in the hydrocarbon feedstock with oxidant formed in step (c) to produce oxidation products sulfoxides and/or sulfones of the organosulfur compounds; and e. removing a mixture of catholyte and hydrocarbons including oxidation products from the catholyte compartment. a. providing an electrochemical reactor in which both in-situ production of oxidant and oxidative conversion of organosulfur compounds occur, the reactor including a gas-permeable and liquid-impermeable cathode in communication with a catholyte compartment, and an anode within an anolyte compartment, the cathode and the anode electrically coupled to an electrical power source and spaced apart from one another, and the catholyte compartment and anolyte compartment in fluid isolation and ionic communication via an ion-conducting membrane; b. conveying a gaseous source of oxygen to an outer surface of the gas-permeable and liquid-impermeable cathode to form oxygen ions; c. conveying acidic catholyte and the liquid hydrocarbon feedstock into the catholyte compartment, and conveying acidic anolyte into the anolyte compartment, wherein hydrogen peroxide and hydrogen peroxide ions are electrosynthesized by reaction of oxygen ions generated at the cathode and hydrogen cations from the anolyte, d. oxidizing organosulfur compounds in the hydrocarbon feedstock with oxidant formed in step (c) to produce oxidation products sulfoxides and/or sulfones of the organosulfur compounds; and e. removing a mixture of catholyte and hydrocarbons including oxidation products from the catholyte compartment.