mhurhangee/ep-ind-claims huggingface dataset:
Method for performing a balance check with an elevator, which balance check is the determination of the balancing weight difference of the elevator, which balancing weight difference is the difference between the weight of the empty elevator car and the counterweight of the elevator, in which method - a power model of the elevator is established, comprising the motor power fed to the motor (P M) and power parameters of the motor and the moved components in the hoistway (P K, P P, P Fr, P Cu, P Fe), - a test run of the elevator is made, - mid power values (P ME,mid,up + P ME,mid,dn) for the up and down direction are determined, i.e. the power fed to the motor only at the instant when the car is moving through the middle of the travelling path of the elevator in up and down direction with constant velocity, - the power difference between the mid power value in up and down direction is calculated, and the balancing weight difference (m B) is calculated from said power difference. - a power model of the elevator is established, comprising the motor power fed to the motor (P M) and power parameters of the motor and the moved components in the hoistway (P K, P P, P Fr, P Cu, P Fe), - a test run of the elevator is made, - mid power values (P ME,mid,up + P ME,mid,dn) for the up and down direction are determined, i.e. the power fed to the motor only at the instant when the car is moving through the middle of the travelling path of the elevator in up and down direction with constant velocity, - the power difference between the mid power value in up and down direction is calculated, and the balancing weight difference (m B) is calculated from said power difference.
A zeolite structure comprising: a zeolite base material having a honeycomb shape and including partition walls disposed to form a plurality of cells which become through channels of a fluid and extend from one end face to the other end face, wherein the partition walls contain a zeolite ion-exchanged with metal ions, a pore diameter distribution of the partition walls, which is a log differential pore volume distribution dV/d (log 10 D), wherein V is a pore volume per unit mass and D is a pore diameter, in a case where the abscissa indicates a pore diameter (μm) and the ordinate indicates a log differential pore volume (cm 3 /g) is represented by a curve having a first maximum point in a range of pore diameters from 0.002 to 0.05 μm, originating from pores of an alumina sol, montmorillonite or boehmite forming auxiliary agent used in formation of the zeolite structure, and a second maximum point in a range of pore diameters from 0.06 to 10 μm, originating from pores formed among zeolite particles used in formation of the zeolite structure, and a value obtained by dividing a first maximum value which is a maximum value at the first maximum point by a second maximum value which is a maximum value at the second maximum point is from 1.0 to 20.
A method of providing an indication of a user's urgency index associated with a physiological condition, wherein the physiological condition is diabetes, comprising: a. receiving data of a first type associated with a physiological condition, the data of the first type being glucose concentration; b. calculating data of a second type associated with the physiological condition, wherein the calculated data of the second type is derived from the received data of the first type; c. receiving data of a third type associated with the physiological condition, wherein the received data of the third type represents a factor affecting a health risk of the physiological condition and includes receiving data entered by a user that includes a user weight, a user indication of activity level, anthropometric data, stress data, health data, data about a placement of the sensor measuring the data of the first type, age, or gender; d. determining pattern data comprising time-of-day-based patterns of glucose values based on eating, exercising or other activities at certain times of day; e. determining a glycemic urgency index based at least on the received data of the first, second, and third types, wherein the glycemic urgency index is a number; f. providing an indication of the determined urgency index on a mobile device; and g. providing an alert or alarm if the urgency index reaches a predetermined alerting or alarming threshold, respectively, wherein determining the glycemic urgency index comprises determining, based on the time of day and the pattern data, whether an excursion outside normal glucose levels is expected and wherein alert or alarm triggering is supressed in the case where the excursion outside normal glucose levels is expected. a. receiving data of a first type associated with a physiological condition, the data of the first type being glucose concentration; b. calculating data of a second type associated with the physiological condition, wherein the calculated data of the second type is derived from the received data of the first type; c. receiving data of a third type associated with the physiological condition, wherein the received data of the third type represents a factor affecting a health risk of the physiological condition and includes receiving data entered by a user that includes a user weight, a user indication of activity level, anthropometric data, stress data, health data, data about a placement of the sensor measuring the data of the first type, age, or gender; d. determining pattern data comprising time-of-day-based patterns of glucose values based on eating, exercising or other activities at certain times of day; e. determining a glycemic urgency index based at least on the received data of the first, second, and third types, wherein the glycemic urgency index is a number; f. providing an indication of the determined urgency index on a mobile device; and g. providing an alert or alarm if the urgency index reaches a predetermined alerting or alarming threshold, respectively,
A resource configuration method, comprising: sending, by a Node B, capability information of the Node B, wherein the capability information of the Node B comprises information indicating whether the Node B has an Enhanced Dedicated Channel, E-DCH, Dedicated Physical Control Channel, E-DPCCH power boost capability; acquiring, by a radio network controller, RNC, the capability information of the Node B; acquiring, by the RNC, capability information of a user equipment, UE, wherein the capability information of the UE comprises information indicating whether the UE has the E-DPCCH power boost capability; and notifying, by the RNC, the Node B to configure resources for performing channel estimation by using the E-DPCCH power boost capability for the UE if the UE and the Node B both have the E-DPCCH power boost capability. sending, by a Node B, capability information of the Node B, wherein the capability information of the Node B comprises information indicating whether the Node B has an Enhanced Dedicated Channel, E-DCH, Dedicated Physical Control Channel, E-DPCCH power boost capability; acquiring, by a radio network controller, RNC, the capability information of the Node B; acquiring, by the RNC, capability information of a user equipment, UE, wherein the capability information of the UE comprises information indicating whether the UE has the E-DPCCH power boost capability; and notifying, by the RNC, the Node B to configure resources for performing channel estimation by using the E-DPCCH power boost capability for the UE if the UE and the Node B both have the E-DPCCH power boost capability.
An integrated circuit, IC, fuse structure, comprising: an interconnect fuse line disposed over a substrate, the fuse line comprising a nominal fuse segment abutted to a necked fuse segment, wherein the nominal fuse segment has a nominal lateral width, and the necked fuse segment has a necked lateral width that is smaller than the nominal lateral width; a pair of interconnect lines (115A, 115B) disposed over the substrate and coplanar with the fuse line, and each of the interconnect lines (115A, 115B) spaced equidistant from opposite edges of both the nominal fuse segment and the necked fuse segment; and a pair of electrical connections to the fuse line, the pair of connections comprising a first connection to the nominal fuse segment, and a second connection spaced apart from the first connection by at least the necked fuse segment; wherein at least one of the interconnect lines (115A, 115B) is bifurcated, and is separated by a field region that is aligned with the necked fuse segment and comprises dielectric material. an interconnect fuse line disposed over a substrate, the fuse line comprising a nominal fuse segment abutted to a necked fuse segment, wherein the nominal fuse segment has a nominal lateral width, and the necked fuse segment has a necked lateral width that is smaller than the nominal lateral width; a pair of interconnect lines (115A, 115B) disposed over the substrate and coplanar with the fuse line, and each of the interconnect lines (115A, 115B) spaced equidistant from opposite edges of both the nominal fuse segment and the necked fuse segment; and a pair of electrical connections to the fuse line, the pair of connections comprising a first connection to the nominal fuse segment, and a second connection spaced apart from the first connection by at least the necked fuse segment; wherein at least one of the interconnect lines (115A, 115B) is bifurcated, and is separated by a field region that is aligned with the necked fuse segment and comprises dielectric material.
A method comprising: registering and authenticating a mobile device of one or more guest users; responsive to detecting the registered and authenticated mobile device in a monitored region, enabling a GUEST mode of a security system in the monitored region; and when in the GUEST mode, a control panel providing the one or more guest users with control of at least one of a plurality of automation devices in the security system and executing one or more fallback scenes instead of a primary scene at a predetermined time at which the control panel would otherwise execute the primary scene outside of the GUEST mode, wherein the one or more fallback scenes account for a presence of the one or more guest users in the monitored region, include actions that do not affect the one or more guest users, and exclude activation of the at least one of the plurality of automation devices, and wherein the primary scene fails to account for the presence of the one or more guest users in the monitored region and includes the activation of the one of the plurality of automation devices. registering and authenticating a mobile device of one or more guest users; responsive to detecting the registered and authenticated mobile device in a monitored region, enabling a GUEST mode of a security system in the monitored region; and when in the GUEST mode, a control panel providing the one or more guest users with control of at least one of a plurality of automation devices in the security system and executing one or more fallback scenes instead of a primary scene at a predetermined time at which the control panel would otherwise execute the primary scene outside of the GUEST mode, wherein the one or more fallback scenes account for a presence of the one or more guest users in the monitored region, include actions that do not affect the one or more guest users, and exclude activation of the at least one of the plurality of automation devices, and wherein the primary scene fails to account for the presence of the one or more guest users in the monitored region and includes the activation of the one of the plurality of automation devices.
A method for fabricating a luminescent structure comprising: a. depositing an intermediate phosphor layer on a supporting structure, the intermediate phosphor layer comprising phosphor powder mixed with a first binder, wherein depositing the intermediate phosphor layer on the supporting structure comprises depositing a mixture of an organic polymer binder and a phosphor powder on the support structure by screen printing, spray coating, dip coating or spinning; b. removing the first binder, leaving a porous phosphor layer on the supporting structure; c. infusing the porous phosphor layer with liquid glass; and d. curing the liquid glass to form an inorganic transparent glass binder. a. depositing an intermediate phosphor layer on a supporting structure, the intermediate phosphor layer comprising phosphor powder mixed with a first binder, wherein depositing the intermediate phosphor layer on the supporting structure comprises depositing a mixture of an organic polymer binder and a phosphor powder on the support structure by screen printing, spray coating, dip coating or spinning; b. removing the first binder, leaving a porous phosphor layer on the supporting structure; c. infusing the porous phosphor layer with liquid glass; and d. curing the liquid glass to form an inorganic transparent glass binder.
Closure system for a medication container, whose interior is accessible via a container opening configured in the form of a bottle mouth, comprising a snap-on cap with an annular lid having a central opening and a plurality of latching elements arranged on its outer circumference which can be brought into engagement with an outer bead circumferentially attached to the container opening, and a one-piece sealing plug (12, 12') with a closure body (36, 36'), which completely fills the central opening of the annular lid and can be brought into engagement with the same in a snap-in manner, characterized in that the closure body (36, 36') is configured as a duckbill valve.
A method of forming an implantable medical device, the method comprising: electrospinning or electrospraying a first material onto a substrate to form a fibrous matrix having pores; extruding or molding a second material over the fibrous matrix so that the second material fills at least a portion of the pores of the fibrous matrix; and removing the substrate after extruding or molding the second material to form an implantable medical device with an inner surface, an outer surface and a lumen. electrospinning or electrospraying a first material onto a substrate to form a fibrous matrix having pores; extruding or molding a second material over the fibrous matrix so that the second material fills at least a portion of the pores of the fibrous matrix; and removing the substrate after extruding or molding the second material to form an implantable medical device with an inner surface, an outer surface and a lumen.
A method for evaluating analgesic sensitivity, comprising associating a gene polymorphism of a cyclic AMP responsive element binding protein gene or a haplotype constituted by the gene polymorphism with an individual analgesic sensitivity, wherein the gene polymorphism is rs2952768 of a CREB1 subtype gene and the C/C or T/C genotype is correlated with a low sensitivity to analgesic.
Method for the preferably fully automated glazing of a ceramic article, in particular a hollowware with a perforated foot rim, comprising the steps of - glazing a first part of the ceramic article with a first glaze by means of cascade glazing, - subsequent cleaning of the ceramic article by removing the excess portions of the applied first glaze in such a way that a defined boundary line of the first glaze is produced, and - subsequently glazing a second part of the ceramic article with a second glaze by means of dip glazing, the second glaze being applied up to the boundary line of the first glaze during the dip glazing. - glazing a first part of the ceramic article with a first glaze by means of cascade glazing, - subsequent cleaning of the ceramic article by removing the excess portions of the applied first glaze in such a way that a defined boundary line of the first glaze is produced, and - subsequently glazing a second part of the ceramic article with a second glaze by means of dip glazing, the second glaze being applied up to the boundary line of the first glaze during the dip glazing.
Drive system for rotating a turbomachine rotor relative to a stator casing, the rotor comprising an annular row of blades (200, 300), the drive system being characterised in that it comprises: - a support arm comprising a first end arranged for gripping a leading edge of a first blade of the annular row and a second end arranged for gripping a trailing edge of the first blade; - an electric motor comprising a shaft and a body attached to the support arm; and - a wheel coupled to the shaft of the motor and provided with a rolling strip, the wheel being further arranged such that the rolling strip is able to come into contact with an annular wall of the stator casing when the support arm is mounted on the first blade. - a support arm comprising a first end arranged for gripping a leading edge of a first blade of the annular row and a second end arranged for gripping a trailing edge of the first blade; - an electric motor comprising a shaft and a body attached to the support arm; and - a wheel coupled to the shaft of the motor and provided with a rolling strip, the wheel being further arranged such that the rolling strip is able to come into contact with an annular wall of the stator casing when the support arm is mounted on the first blade.
A method for producing granules to be used for the production of silicate glass, which has a step of mixing a glass raw material composition composed essentially of an alkali metal source, an alkaline earth metal source and a powdery silicon source, with water, followed by compression molding, and which is characterized in that the glass raw material composition contains at least 50 mass% of the silicon source and at least 10 mass% in total of the alkali metal source and the alkaline earth metal source, as calculated as oxides, based on 100 mass% of the silicate glass obtainable from the granules, the alkali metal source contains an alkali metal carbonate, D90 representing the particle size at a cumulative volume of 90% in the particle size accumulation curve of the alkaline earth metal source is at most 100μm, the compression molded granules have a volume of from 1 to 50cm 3, the silicon source is at least one selected from silica sand, quartz, cristobalite, amorphous silica and feldspar, and the amount of water to be mixed is from 3 to 8 mass%.
A process for preparing biomass particles for thermolytic or enzymatic conversion, said process comprising the steps of: (i) providing biomass particles having a moisture content of at least 20 wt.%; and (ii) subjecting the biomass particles to flash heating, wherein the flash heating comprises increasing the temperature from 90°C or below to 110°C or above in less than 30 seconds, wherein the flash heating is followed by a pressure drop, wherein step (i) is preceded by at least one absorption/desorption cycle wherein a liquid comprising water is adsorbed into and desorbed from said biomass particles. (i) providing biomass particles having a moisture content of at least 20 wt.%; and (ii) subjecting the biomass particles to flash heating,
A device for measuring particulate matter, comprising: a filter that is provided in an exhaust passage of an internal combustion engine and that includes a plurality of cells (1, 2, 3, 4) forming lattice-patterned exhaust flow channels defined by porous partition walls, the cells (1, 2, 3, 4) being plugged alternatingly at an upstream side and a downstream side; electrodes (A, B), which are received from unplugged sides of said corresponding pair of cells (1, 2, 3, 4) and accumulation amount calculating means (21, 22) configured to calculate an amount of accumulated particulate matter collected by the filter, based on an electrostatic capacity between the pair of electrodes (A, B), the device being characterized in that, each of the electrodes (A,B) includes a conductive wire core (A1, B1) covered with an insulating layer (A2, B2), one of the cells is designated as a center cell, four measurement cells are disposed adjacent to the four respective partition walls of the center cell, and four electrodes (A, B) are disposed in the four respective cells located diagonally across the center cell, and the device for measuring particulate matter further includes: a first conducting connecting member configured to connect a pair of diagonally disposed electrodes to each other; and a second conducting connecting member configured to connect another pair of diagonally disposed electrodes to each other. a filter that is provided in an exhaust passage of an internal combustion engine and that includes a plurality of cells (1, 2, 3, 4) forming lattice-patterned exhaust flow channels defined by porous partition walls, the cells (1, 2, 3, 4) being plugged alternatingly at an upstream side and a downstream side; electrodes (A, B), which are received from unplugged sides of said corresponding pair of cells (1, 2, 3, 4) and accumulation amount calculating means (21, 22) configured to calculate an amount of accumulated particulate matter collected by the filter, based on an electrostatic capacity between the pair of electrodes (A, B), the device being characterized in that, each of the electrodes (A,B) includes a conductive wire core (A1, B1) covered with an insulating layer (A2, B2), one of the cells is designated as a center cell, four measurement cells are disposed adjacent to the four respective partition walls of the center cell, and four electrodes (A, B) are disposed in the four respective cells located diagonally across the center cell, and the device for measuring particulate matter further includes: a first conducting connecting member configured to connect a pair of diagonally disposed electrodes to each other; and a second conducting connecting member configured to connect another pair of diagonally disposed electrodes to each other. a first conducting connecting member configured to connect a pair of diagonally disposed electrodes to each other; and a second conducting connecting member configured to connect another pair of diagonally disposed electrodes to each other.
A data distribution method, wherein the method comprises: buffering, by a network device, first data, wherein the first data is data of a service that is provided by a server for a first terminal device; receiving, by the network device, N first data requests sent by N second terminal devices, wherein N is a positive integer greater than or equal to 1; when data requested by the N first data requests is data provided by the server based on the service, intercepting, by the network device, the N first data requests and sending the buffered first data to the N second terminal devices; the method being characterized in that it further comprises: receiving, by the network device, second data when the first terminal device is disconnected from the server, wherein the second data is data provided by the server based on the service; buffering, by the network device, the second data; and sending the buffered second data to the N second terminal devices, wherein the second data is continuous with data received when the first terminal device is disconnected from the server. buffering, by a network device, first data, wherein the first data is data of a service that is provided by a server for a first terminal device; receiving, by the network device, N first data requests sent by N second terminal devices, wherein N is a positive integer greater than or equal to 1; when data requested by the N first data requests is data provided by the server based on the service, intercepting, by the network device, the N first data requests and sending the buffered first data to the N second terminal devices; the method being characterized in that it further comprises: receiving, by the network device, second data when the first terminal device is disconnected from the server, wherein the second data is data provided by the server based on the service; buffering, by the network device, the second data; and sending the buffered second data to the N second terminal devices, wherein the second data is continuous with data received when the first terminal device is disconnected from the server.