mhurhangee/ep-ind-claims huggingface dataset:
An energy management server comprising: an estimation unit configured to calculate an estimated value of an energy demand in a building in which an electric appliance is installed; a scheduler configured to create an operation schedule of the electric appliance based on the estimated value; an acquisition unit configured to acquire an actual value of the energy demand; a monitoring unit configured to monitor an error between the estimated value and the actual value, and if the error is equal to or larger than a defined threshold, generate an estimation trigger to execute a process of the estimation unit being configured to recalculate the estimated value of the energy demand, and the scheduler configured to reform the operation schedule based on the recalculated estimated value; a receiving unit configured to receive a demand response signal containing information which prompts suppression of energy consumption in a designated period, and generating a demand response trigger to execute the process of the estimation unit being configured to recalculate the estimated value of the energy demand, and the scheduler configured to reform the operation schedule based on the recalculated estimated value; characterized in that a setting unit configured to set the value of the threshold in the designated period to be lower than that in other periods. an estimation unit configured to calculate an estimated value of an energy demand in a building in which an electric appliance is installed; a scheduler configured to create an operation schedule of the electric appliance based on the estimated value; an acquisition unit configured to acquire an actual value of the energy demand; a monitoring unit configured to monitor an error between the estimated value and the actual value, and if the error is equal to or larger than a defined threshold, generate an estimation trigger to execute a process of the estimation unit being configured to recalculate the estimated value of the energy demand, and the scheduler configured to reform the operation schedule based on the recalculated estimated value; a receiving unit configured to receive a demand response signal containing information which prompts suppression of energy consumption in a designated period, and generating a demand response trigger to execute the process of the estimation unit being configured to recalculate the estimated value of the energy demand, and the scheduler configured to reform the operation schedule based on the recalculated estimated value; characterized in that a setting unit configured to set the value of the threshold in the designated period to be lower than that in other periods.
A system for performing an ocular surgical procedure, comprising: a multiple frequency signal source; a configurable tuned output filter connected to the multiple frequency signal source, wherein the configurable filter comprises a switchable passive component; a multiple frequency ultrasonic handpiece; a monitoring circuit configured to monitor an operating frequency, voltage and current of the configurable tuned output circuit; and a microcontroller configured to interface with the monitoring circuit and determine the phase relationship between the voltage and current of the configurable tuned output circuit as a function of frequency, in order to control handpiece parameters during the operation and switch between a first frequency and a second frequency based on a monitored operating frequency received from the monitoring circuit by switching the passive component; wherein the multiple frequency signal source operating at the first frequency is configured to drive the configurable filter and the multiple frequency ultrasonic handpiece at the first frequency, the multiple frequency signal source operating at the second frequency is configured to drive the configurable filter and the multiple frequency ultrasonic handpiece at the second frequency, and the configurable filter is configured to address third harmonic frequency issues for the multiple frequency ultrasonic handpiece. a multiple frequency signal source; a configurable tuned output filter connected to the multiple frequency signal source, wherein the configurable filter comprises a switchable passive component; a multiple frequency ultrasonic handpiece; a monitoring circuit configured to monitor an operating frequency, voltage and current of the configurable tuned output circuit; and a microcontroller configured to interface with the monitoring circuit and determine the phase relationship between the voltage and current of the configurable tuned output circuit as a function of frequency, in order to control handpiece parameters during the operation and switch between a first frequency and a second frequency based on a monitored operating frequency received from the monitoring circuit by switching the passive component; wherein the multiple frequency signal source operating at the first frequency is configured to drive the configurable filter and the multiple frequency ultrasonic handpiece at the first frequency, the multiple frequency signal source operating at the second frequency is configured to drive the configurable filter and the multiple frequency ultrasonic handpiece at the second frequency, and the configurable filter is configured to address third harmonic frequency issues for the multiple frequency ultrasonic handpiece.
A compound of general formula wherein: M is NR 2; X is CO; a is 1 or 0; R 1 is H; (CH 2) o -E, wherein o is an integer of from 1 to 10 and E is COOH; or (CH 2 -CH 2 -O) m -CH 3 or (CH 2 -CH 2 -O) m -H, wherein m is an integer of from 1 to 500; or wherein p is an integer of from 0 to 7 and q is an integer of from 1 to 500; R 2 is H; or a is 1 and M is NR 2, R 1 and R 2 form together a bridging -CH 2 CH CH 2 - group, with G = (CH 2) o -E, wherein o is an integer of from 0 to 10 and E is: COOH, OH or NH 2; or (CH 2 -CH 2 -O) m -CH 3, wherein m is an integer of from 1 to 500; or a bridging -CH 2 CH 2 -, -CH 2 CH 2 CH 2 - or -CH 2 -CHOH-CH 2 - group; and Q 1 and Q 2 are independently selected from and except the compound 4,4-ureylene-di-(2,2,6,6-tetramethylpiperidinyloxyl M is NR 2; X is CO; a is 1 or 0; R 1 is H; (CH 2) o -E, wherein o is an integer of from 1 to 10 and E is COOH; or (CH 2 -CH 2 -O) m -CH 3 or (CH 2 -CH 2 -O) m -H, wherein m is an integer of from 1 to 500; or wherein p is an integer of from 0 to 7 and q is an integer of from 1 to 500; R 2 is H; a is 1 and M is NR 2, R 1 and R 2 form together a bridging -CH 2 CH CH 2 - group, with G = (CH 2) o -E, wherein o is an integer of from 0 to 10 and E is: COOH, OH or NH 2; or (CH 2 -CH 2 -O) m -CH 3, wherein m is an integer of from 1 to 500; or a bridging -CH 2 CH 2 -, -CH 2 CH 2 CH 2 - or -CH 2 -CHOH-CH 2 - group; and Q 1 and Q 2 are independently selected from and except the compound 4,4-ureylene-di-(2,2,6,6-tetramethylpiperidinyloxyl
A shaft assembly for a gas turbine engine comprising: a shaft with a shaft shoulder defined between a first shaft section having a first external diameter and a second shaft section having a second external diameter larger than said first external diameter and forming an axially facing shoulder surface; and an annular locked spacer mounted to said shaft shoulder and abutting said axially facing shoulder surface for adjusting the axial length of the shaft assembly; characterized in that: a bearing is mounted to said first shaft section and abuts said locked spacer; and in that said locked spacer is manufactured from a steel alloy and said shaft is a Low Pressure Compressor shaft manufactured from a titanium alloy; and in that said locked spacer includes a multiple of circumferentially spaced keys, and said axially facing shoulder surface of said shaft shoulder includes a multiple of circumferentially spaced slots which mate with said multiple of keys, wherein the multiple of keys fit within corresponding slots to provide a geometric lock with the shaft. a shaft with a shaft shoulder defined between a first shaft section having a first external diameter and a second shaft section having a second external diameter larger than said first external diameter and forming an axially facing shoulder surface; and an annular locked spacer mounted to said shaft shoulder and abutting said axially facing shoulder surface for adjusting the axial length of the shaft assembly; characterized in that: a bearing is mounted to said first shaft section and abuts said locked spacer; and in that said locked spacer is manufactured from a steel alloy and said shaft is a Low Pressure Compressor shaft manufactured from a titanium alloy; and in that said locked spacer includes a multiple of circumferentially spaced keys, and said axially facing shoulder surface of said shaft shoulder includes a multiple of circumferentially spaced slots which mate with said multiple of keys, wherein the multiple of keys fit within corresponding slots to provide a geometric lock with the shaft. a bearing is mounted to said first shaft section and abuts said locked spacer; and in that said locked spacer is manufactured from a steel alloy and said shaft is a Low Pressure Compressor shaft manufactured from a titanium alloy; and in that said locked spacer includes a multiple of circumferentially spaced keys, and said axially facing shoulder surface of said shaft shoulder includes a multiple of circumferentially spaced slots which mate with said multiple of keys, wherein the multiple of keys fit within corresponding slots to provide a geometric lock with the shaft.
A thermoplastic composition comprising: a thermoplastic resin chosen from a PVC resin; and between 1.5 parts and 2.5parts of a core-shell impact modifier per 100 parts by weight of the thermoplastic resin, wherein the core-shell impact modifier has a rubber content of at least 90 wt% and wherein the core-shell impact modifier is selected from the group consisting of methacrylate-butadiene-styrene copolymers, acrylonitrile-butadiene-styrene copolymers, acrylic core/shell polymers, and a combination thereof. a thermoplastic resin chosen from a PVC resin; and between 1.5 parts and 2.5parts of a core-shell impact modifier per 100 parts by weight of the thermoplastic resin, wherein the core-shell impact modifier has a rubber content of at least 90 wt% and wherein the core-shell impact modifier is selected from the group consisting of methacrylate-butadiene-styrene copolymers, acrylonitrile-butadiene-styrene copolymers, acrylic core/shell polymers, and a combination thereof.
A sheet processing apparatus comprising a binding unit including a pair of toothed jaws (261 A, 261B), for binding a sheet stack by pressing the sheet stack between the pair of toothed jaws (261A, 261B), wherein at least one portion of edges of the toothed jaws (261A, 261B) is rounded and/or chamfered; characterized in that the toothed jaw (261 A, 261 B) includes a crimping tooth (310, 311) and a plurality of rounded portions differing from one another in radius of curvature and serving as a damage lessening portion.
A Cu-Ni-Si-based copper alloy sheet having excellent mold abrasion resistance and shear workability, comprising: 1.0 mass% to 4.0 mass% of Ni; and 0.2 mass% to 0.9 mass% of Si, and optionally comprising one or more of 0.2 mass% to 0.8 mass% of Sn, 0.3 mass% to 1.5 mass% of Zn, 0.001 mass% to 0.2 mass% of Mg, 0.007 mass% to 0.25 mass% of Fe, 0.001 mass% to 0.2 mass% of P, 0.0001 mass% to 0.001 mass% of C, 0.001 mass% to 0.3 mass% of Cr, and 0.001 mass% to 0.3 mass% of Zr, with a remainder made up of Cu and inevitable impurities, wherein the number of Ni-Si precipitate particles having a grain diameter in a range of 20 nm to 80 nm on a surface is in a range of 1.5×10 6 particles/mm 2 to 5.0×10 6 particles/mm 2, the number of Ni-Si precipitate particles having a grain diameter of greater than 100 nm on the surface is in a range of 0.5×10 5 particles/mm 2 to 4.0×10 5 particles/mm 2, a/b is in a range of 0.5 to 1.5, wherein a represents the number of the Ni-Si precipitate particles/mm 2 having a grain diameter in a range of 20 nm to 80 nm in a surface layer that is as thick as 20% of the entire sheet thickness from the surface in thickness direction, and wherein b represents the number of the Ni-Si precipitate particles/mm 2 having a grain diameter in a range of 20 nm to 80 nm in a portion below this surface layer, and the concentration of Si forming a solid solution in crystal grains in an area that is less than 10 μm thickness from the surface is in a range of 0.03 mass% to 0.4 mass%. 1.0 mass% to 4.0 mass% of Ni; and 0.2 mass% to 0.9 mass% of Si, and optionally comprising one or more of 0.2 mass% to 0.8 mass% of Sn, 0.3 mass% to 1.5 mass% of Zn, 0.001 mass% to 0.2 mass% of Mg, 0.007 mass% to 0.25 mass% of Fe, 0.001 mass% to 0.2 mass% of P, 0.0001 mass% to 0.001 mass% of C, 0.001 mass% to 0.3 mass% of Cr, and 0.001 mass% to 0.3 mass% of Zr, with a remainder made up of Cu and inevitable impurities,
Process for treating residues in coke drums of a delayed coking unit, said process comprising: operating a delayed coker unit so that coke is deposited in a coke drum (6A, 6B); subsequently entering a purge phase, in which the deposited coke is purged of gaseous light hydrocarbons; and a step of cooling, after the purge phase, the deposited coke using liquid water from a water stream; wherein the purge phase comprises injecting the residues from a residues stream into the coke drum (6A, 6B), and characterised in that: the injecting of the residues continues into the cooling step. operating a delayed coker unit so that coke is deposited in a coke drum (6A, 6B); subsequently entering a purge phase, in which the deposited coke is purged of gaseous light hydrocarbons; and a step of cooling, after the purge phase, the deposited coke using liquid water from a water stream; wherein the purge phase comprises injecting the residues from a residues stream into the coke drum (6A, 6B), and characterised in that: the injecting of the residues continues into the cooling step.
A chain slider, comprising: a body assembly having a first piece removably coupled to a second piece, wherein said body assembly has an inner diameter opening that is configured to receive a chain, cable or rope; and a first insert configured to removably attach to said first piece of said body assembly and a second insert configured to removably attach to said second piece of said body assembly, wherein said inserts (42, 44) form an insert assembly configured to reduce a size of said inner diameter opening; and wherein said first piece of said body assembly has a lock channel configured to receive a key portion extending out from said first insert.
Method to characterize a transmission line using a single-ended test comprising: sending, at a Central-Premise modem (CPE, 130) or a Central Office modem (CO, 110) operating as a test device, a predefined signal over said transmission line, obtaining, at said Central-Premise modem (CPE, 130) or said Central Office modem (CO, 110), an echo waveform of said sent signal, forwarding said analyzed echo waveform as single-ended data, receiving said single-ended data from said Central-Premise modem (CPE, 130) or said Central Office (CO, 110) modem; and using the received single-ended data to estimate a physical structure of a transmission line, the physical structure including a length of the transmission line. sending, at a Central-Premise modem (CPE, 130) or a Central Office modem (CO, 110) operating as a test device, a predefined signal over said transmission line, obtaining, at said Central-Premise modem (CPE, 130) or said Central Office modem (CO, 110), an echo waveform of said sent signal, forwarding said analyzed echo waveform as single-ended data, receiving said single-ended data from said Central-Premise modem (CPE, 130) or said Central Office (CO, 110) modem; and using the received single-ended data to estimate a physical structure of a transmission line, the physical structure including a length of the transmission line.
A printhead assembly manifold component comprising: a plurality of layers (910, 920, 930, 940, 950), each of which extends generally normal to a first direction in which the plurality of layers (910, 920, 930, 940, 950) are stacked; wherein the plurality of layers (910, 920, 930, 940, 950) provide, in each of a plurality of planes parallel to said layers, multiple curved fluid paths, and a plurality of fluid paths perpendicular to said layers that fluidically connect together curved fluid paths in different planes; wherein said perpendicular fluid paths and said curved fluid paths provide two or more branched fluid paths (180, 280) within the manifold component, each of said branched fluid paths: having a main branch (181, 281); branching at one or more branching points (186, 286) into two or more sub-branches (182, 185, 282, 285); and culminating in a plurality of end sub-branches (182, 282); wherein a sub-branch of one branched fluid path crosses a sub-branch of another branched fluid path, when viewed in the first direction; wherein each branched fluid path (180, 280) culminates in at least four end sub-branches (182, 282); characterised in that all of the end-sub-branches (182, 282) within each branched fluid path (180, 280) are of the same branching level; and each branched fluid path (180, 280) comprises at least two levels of branching. a plurality of layers (910, 920, 930, 940, 950), each of which extends generally normal to a first direction in which the plurality of layers (910, 920, 930, 940, 950) are stacked; wherein the plurality of layers (910, 920, 930, 940, 950) provide, in each of a plurality of planes parallel to said layers, multiple curved fluid paths, and a plurality of fluid paths perpendicular to said layers that fluidically connect together curved fluid paths in different planes; wherein said perpendicular fluid paths and said curved fluid paths provide two or more branched fluid paths (180, 280) within the manifold component, each of said branched fluid paths: having a main branch (181, 281); branching at one or more branching points (186, 286) into two or more sub-branches (182, 185, 282, 285); and culminating in a plurality of end sub-branches (182, 282); having a main branch (181, 281); branching at one or more branching points (186, 286) into two or more sub-branches (182, 185, 282, 285); and culminating in a plurality of end sub-branches (182, 282); wherein a sub-branch of one branched fluid path crosses a sub-branch of another branched fluid path, when viewed in the first direction; wherein each branched fluid path (180, 280) culminates in at least four end sub-branches (182, 282); characterised in that all of the end-sub-branches (182, 282) within each branched fluid path (180, 280) are of the same branching level; and each branched fluid path (180, 280) comprises at least two levels of branching.
4,6-diphenyl-1 H -pyrazolo[3,4- b]pyridin-3-amine or a pharmaceutically or veterinary acceptable salt thereof, for use in the treatment of a cancer of an hormone-dependent organ selected from breast cancer, prostate cancer, ovarian cancer and endometrial cancer.
An apparatus, comprising: an electronic device comprising a processor, a memory, and a camera, the electronic device to determine whether a person attempting to use the device is authorized to use the device, wherein the electronic device is to: receive a request for a first level of functionality in the electronic device; receive a first input of a first type; perform a first analysis of the first input to determine if the person attempting to use the device is authorized to use the first level of functionality in the device based on the first analysis; receive a request for a second level of functionality in the electronic device; receive a second input of a second type different than the first type; and if the person is authorized to use the first level of functionality based on the first analysis, then perform a second analysis of the second input to determine whether the person is authorized to use the second level of functionality based on the second analysis; and if the person is not authorized to use the second level of functionality, deny access to the second level of functionality and terminate access to the first level of functionality. receive a request for a first level of functionality in the electronic device; receive a first input of a first type; perform a first analysis of the first input to determine if the person attempting to use the device is authorized to use the first level of functionality in the device based on the first analysis; receive a request for a second level of functionality in the electronic device; receive a second input of a second type different than the first type; and if the person is authorized to use the first level of functionality based on the first analysis, then perform a second analysis of the second input to determine whether the person is authorized to use the second level of functionality based on the second analysis; and if the person is not authorized to use the second level of functionality, deny access to the second level of functionality and terminate access to the first level of functionality.
Method for producing formaldehyde-alkylene carbonate copolymers comprising the step of reacting trimeric, oligomeric and/or polymeric formaldehyde with an alkylene carbonate in the presence of a catalyst, characterized in that the reaction is carried out under pressurization with CO 2.
A scroll fluid machine configured by engaging spiral wraps (18B,19B) of a pair of fixed and orbiting scrolls (18, 19) in each of which the spiral wrap (18B,19B) is erected on an end plate (18A,19A), a chamfer is provided on a corner portion of a wrap tooth crest of each of the spiral wraps (18B,19B) of the fixed scroll and the orbiting scroll, and the wrap tooth crest is coated with an abradable seal material having machinability, the scroll fluid machine being characterised in that: a coating thickness of the abradable seal material is set to a thickness corresponding to a wrap tooth tip clearance set between the wrap tooth crest of each of the spiral wraps (18, 19) and a bottom land of the other spiral wrap, the coating thickness of the abradable seal material is set to 0.02 to 0.05 mm, and the chamfer (32, 33) is set to 0.05 to 0.2 mm. a coating thickness of the abradable seal material is set to a thickness corresponding to a wrap tooth tip clearance set between the wrap tooth crest of each of the spiral wraps (18, 19) and a bottom land of the other spiral wrap, the coating thickness of the abradable seal material is set to 0.02 to 0.05 mm, and the chamfer (32, 33) is set to 0.05 to 0.2 mm.
A thermally conductive material, comprising: 100 parts by mass of a crosslinking reaction product of an acrylic polymer including at least two crosslinkable functional groups containing a carbon-carbon unsaturated bond and an acrylic polymer including at least one of the crosslinkable functional groups; from 100 to 200 parts by mass of an acrylic polymer with a viscosity at 25 °C of 650 mPa·s or less; from 150 to 350 parts by mass of a trimellitate ester plasticizer; from 3500 to 7500 parts by mass of a thermally conductive filler with an average particle size ranging from 0.1 μm to 100 μm; and from 50 to 300 parts by mass of a thickener with an average particle size of 50 nm or less, the average particle size being measured by a laser diffraction type particle size distribution measurement instrument. 100 parts by mass of a crosslinking reaction product of an acrylic polymer including at least two crosslinkable functional groups containing a carbon-carbon unsaturated bond and an acrylic polymer including at least one of the crosslinkable functional groups; from 100 to 200 parts by mass of an acrylic polymer with a viscosity at 25 °C of 650 mPa·s or less; from 150 to 350 parts by mass of a trimellitate ester plasticizer; from 3500 to 7500 parts by mass of a thermally conductive filler with an average particle size ranging from 0.1 μm to 100 μm; and from 50 to 300 parts by mass of a thickener with an average particle size of 50 nm or less, the average particle size being measured by a laser diffraction type particle size distribution measurement instrument.