mhurhangee/ep-ind-claims huggingface dataset:
A colored glass sheet of aluminosilicate composition chemically strengthened by an ion exchange, characterized in that it comprises the following oxides in the weight content ranges defined below: SiO 2 between 59.20 and 68.00% Al 2 O 3 between 2.00 and 8.00% MgO between 6.00 and 9.00% if the Al 2 O 3 content is between 5.00 and 8.00% and if the SiO 2 /Al 2 O 3 ratio is greater than or equal to 7.8 or between 8.00 and 10.00% if the Al 2 O 3 content is between 2.00 and 5.00% and if the SiO 2 /Al 2 O 3 ratio is greater than or equal to 24, Na 2 O between 9.00 and 16.00% K 2 O between 5.00 and 11.00% B 2 O 3 between 0 and 3.00% CaO between 0 and 1.00% and the following coloring agents in the weight content ranges defined below: Fe 2 O 3 total between 0.05 and 6.00% CoO between 0 and 2.00% NiO between 0 and 1.00% Se between 0 and 0.10%, the glass having a redox factor of between 0.10 and 0.65.
A radiation sensitive filler for measuring a dose of ionizing irradiation received by a predetermined body part during a radiotherapy treatment, said radiation sensitive filler being a viscous or semi-solid radiation sensitive filler adapted for being injected between said predetermined body part and a tissue to be protected from radiation, wherein the radiation sensitive filler is adapted for undergoing a measurable physical and/or chemical change under the influence of ionizing irradiation, said radiation sensitive filler furthermore being adapted for emitting a signal when elicited by an energy wave, whereby said emitted signal has characteristics that reflect said physical and/or chemical change, the radiation sensitive filler being characterized in that it is adapted for substantially preserving, during said radiotherapy treatment, its initial morphology by undergoing a further chemical and/or physical change subsequent to the injection, in order to minimize dose to a tissue to be protected from radiation, wherein the initial morphology is determined by the shape and volume of said radiation sensitive filler upon injection between said predetermined part of the body and said tissue to be protected.
Fan unit for aerating and ventilating rooms of a building, wherein the fan unit comprises a fan blower having at least one discharge opening and at least one blower opening, and a multi-part fan mounting, in particular for clamping insertion into a hollow chamber of a plastic profile, in particular of a window profile or door profile, wherein the multi-part fan mounting comprises (a) a fan mounting base part, in which the fan blower is received and which comprises base part openings (11, 12) for the at least one discharge opening and the at least one blower opening of the fan blower; characterised in that the multi-part fan mounting further comprises (b) a fan mounting front part, which is connected to the fan mounting base part on the side on which the discharge opening is arranged and has at least one front part opening for the at least one discharge opening of the fan blower, wherein the fan mounting front part comprises a layer of a closed-cell foam material perpendicular to the discharge direction of the fan blower. (a) a fan mounting base part, in which the fan blower is received and which comprises base part openings (11, 12) for the at least one discharge opening and the at least one blower opening of the fan blower; characterised in that the multi-part fan mounting further comprises (b) a fan mounting front part, which is connected to the fan mounting base part on the side on which the discharge opening is arranged and has at least one front part opening for the at least one discharge opening of the fan blower, wherein the fan mounting front part comprises a layer of a closed-cell foam material perpendicular to the discharge direction of the fan blower.
A method for metering at least one electrical physical quantity by using an Internet of Things, IoT, comprising steps of: (a) if each of the IoT sensors (S, S1, S2, S3, S11, S12, and S13) installed in each of the inlet lines in each of the distribution boards (D, D1,D2,D3,D11,D12,D13) of at least one facility transmits power data corresponding to power consumed by one or more electric devices (L1-L12) electrically connected with each of the distribution boards, a metering server performing a process of acquiring the power data transmitted from each of the IoT sensors via at least one gateway, GW, over a network; and (b) the metering server performing a process of analyzing the power data acquired from each of the IoT sensors, to thereby meter the electrical physical quantity corresponding to total power consumed in the facility, characterized in that at the step of (b), the metering server performs (i) a process of identifying each of wiring types of each of the inlet lines of each of the distribution boards, and (ii) if a wiring type of at least one of the inlet lines corresponds to a single-phase type, (ii-1) a process of analyzing the power data acquired from its corresponding IoT sensors, to thereby identify a specific IoT sensor estimated as having a wiring error, and (ii-2) a process of calibrating a specific value of the power data corresponding to the specific IoT sensor estimated as having the wiring error by using a predetermined calibration constant. (a) if each of the IoT sensors (S, S1, S2, S3, S11, S12, and S13) installed in each of the inlet lines in each of the distribution boards (D, D1,D2,D3,D11,D12,D13) of at least one facility transmits power data corresponding to power consumed by one or more electric devices (L1-L12) electrically connected with each of the distribution boards, a metering server performing a process of acquiring the power data transmitted from each of the IoT sensors via at least one gateway, GW, over a network; and (b) the metering server performing a process of analyzing the power data acquired from each of the IoT sensors, to thereby meter the electrical physical quantity corresponding to total power consumed in the facility, characterized in that at the step of (b), the metering server performs (i) a process of identifying each of wiring types of each of the inlet lines of each of the distribution boards, and (ii) if a wiring type of at least one of the inlet lines corresponds to a single-phase type, (ii-1) a process of analyzing the power data acquired from its corresponding IoT sensors, to thereby identify a specific IoT sensor estimated as having a wiring error, and (ii-2) a process of calibrating a specific value of the power data corresponding to the specific IoT sensor estimated as having the wiring error by using a predetermined calibration constant.
A titanium-based material for use as a fuel cell separator characterized by containing not greater than 5 mass% boron, the boron being present as TiB-type boride particles precipitated and dispersed throughout the material and a part of the boride particles being exposed on a passive film formed on the surface of the material to form paths for electricity.
A tubular compression garment for monitoring the therapy and physiological activity of the person, said tubular compression garment comprising a classic compression garment and a sensor-control unit, characterized in that, the compression garment comprises at least one stretch-measuring sensor attached to the compression garment, wherein the stretch-measuring sensor is implemented as a strip made of electroactive polymers that change their capacitance during stretch, and the stretch-measuring sensor is attached to the compression garment in a way for measuring the stretch of the compression garment predominantly in the circumferential direction perpendicular to the longitudinal axis of a part of the body wrapped by the compression garment, wherein the compression garment is provided with a socket for receiving the sensor-control unit and the socket is provided with first contacts for connection with the stretch-measuring sensor and the compression garment is, in the area of the socket, provided with a hole, and wherein the sensor-control unit is provided with second contacts for connecting to the first contacts made on the socket and wherein the sensor-control unit comprises at least a motion sensor, a photoplethysmographic sensor, a temperature sensor and a processing unit with a clock, and the sensor-control unit is detachably secured to the compression garment.
A method for propagating changes to data records among components of a distributed computing system, the method comprising: detecting a plurality of changes, generated by a source component of the distributed computing system, to a data record stored by the source component; storing backlog entries to at least one backlog responsive to detecting the changes, the backlog entries including data record identifiers that each identify a location of the changed data record stored by the source component and a time stamp indicating a time at which the backlog entry is being stored to the at least one backlog, wherein the backlog entry does not include contents of the data record; deduplicating backlog entries that relate to the same data record by comparing time stamps of respective backlog entries and removing one or more older backlog entries for the same data record stored in the at least one backlog; resolving a backlog entry by retrieving, from a source component, updated data of a data record identified in the backlog entry; and providing the updated data to at least one target component. detecting a plurality of changes, generated by a source component of the distributed computing system, to a data record stored by the source component; storing backlog entries to at least one backlog responsive to detecting the changes, the backlog entries including data record identifiers that each identify a location of the changed data record stored by the source component and a time stamp indicating a time at which the backlog entry is being stored to the at least one backlog, wherein the backlog entry does not include contents of the data record; deduplicating backlog entries that relate to the same data record by comparing time stamps of respective backlog entries and removing one or more older backlog entries for the same data record stored in the at least one backlog; resolving a backlog entry by retrieving, from a source component, updated data of a data record identified in the backlog entry; and providing the updated data to at least one target component.
A method for performing a marine survey of a subterranean formation, the method comprising: determining a sail line separation in a crossline direction for the marine survey; towing two or more wide towed sources and streamers in an inline direction behind a survey vessel; activating the wide towed sources; and recording wavefields reflected from the subterranean formation at receivers located in the streamers as seismic data; characterized in that determining the sail line separation in the crossline direction comprises multiplying an average streamer separation by the selected number of streamers and a streamer spread factor that corresponds to a percentage of streamer overlap in a region between adjacent sail lines separated by the sail line separation; the method further comprising: depositing an array of ocean bottom seismic, OBS, receivers on a surface of the subterranean formation with an OBS receiver separation in the crossline direction based on the sail line separation; wherein the two or more wide towed sources and streamers are towed above the array of OBS receivers in the inline direction behind the survey vessel; and the method further comprises recording wavefields reflected from the subterranean formation at the OBS receivers as seismic data. determining a sail line separation in a crossline direction for the marine survey; towing two or more wide towed sources and streamers in an inline direction behind a survey vessel; activating the wide towed sources; and recording wavefields reflected from the subterranean formation at receivers located in the streamers as seismic data; characterized in that determining the sail line separation in the crossline direction comprises multiplying an average streamer separation by the selected number of streamers and a streamer spread factor that corresponds to a percentage of streamer overlap in a region between adjacent sail lines separated by the sail line separation; the method further comprising: depositing an array of ocean bottom seismic, OBS, receivers on a surface of the subterranean formation with an OBS receiver separation in the crossline direction based on the sail line separation; wherein the two or more wide towed sources and streamers are towed above the array of OBS receivers in the inline direction behind the survey vessel; and the method further comprises recording wavefields reflected from the subterranean formation at the OBS receivers as seismic data. depositing an array of ocean bottom seismic, OBS, receivers on a surface of the subterranean formation with an OBS receiver separation in the crossline direction based on the sail line separation; wherein the two or more wide towed sources and streamers are towed above the array of OBS receivers in the inline direction behind the survey vessel; and the method further comprises recording wavefields reflected from the subterranean formation at the OBS receivers as seismic data.
A bearing assembly (30, 50) for a rotor, the assembly comprising: a cage (36, 56) surrounding the rotor (32, 52) and defining a recess therein; a series of tilt pads (38, 58) disposed within the recess and adapted to engage the rotor (32, 52); a housing (40, 60) surrounding the cage (36, 56); and at least one axially-extending groove (40c, 60c) formed in the outer periphery of the housing (40, 60) and spaced radially outwardly from the inner radial surface of the housing (40, 60) to form a cantilevered portion (40e, 60e) extending between the groove (40c, 60c) and the corresponding surface of the cage (36, 56) to form a mechanical spring. a cage (36, 56) surrounding the rotor (32, 52) and defining a recess therein; a series of tilt pads (38, 58) disposed within the recess and adapted to engage the rotor (32, 52); a housing (40, 60) surrounding the cage (36, 56); and at least one axially-extending groove (40c, 60c) formed in the outer periphery of the housing (40, 60) and spaced radially outwardly from the inner radial surface of the housing (40, 60) to form a cantilevered portion (40e, 60e) extending between the groove (40c, 60c) and the corresponding surface of the cage (36, 56) to form a mechanical spring.
Perforated glued paper banderole for fully enclosing one or more items, wherein the paper banderole comprises perpendicular to the circumferential direction a central area and adjacent thereto at both sides a respective outer area, wherein the paper banderole is provided at least in the two outer areas respectively with an adhesive, and wherein in the outer areas overlapping paper areas adhere to each other and the overlapping areas in the central area of the paper banderole substantially do not adhere to each other, characterized in that the central area comprises a tab, and starting from the tab in the central area a respective perforation extends at least partially through the two outer areas in the same circumferential direction. characterized in that the central area comprises a tab, and starting from the tab in the central area a respective perforation extends at least partially through the two outer areas in the same circumferential direction.
A pneumatic radial tire for a passenger vehicle, having a carcass constituted of a carcass ply made of radially-disposed cords provided to extend in a toroidal shape across a pair of bead portions and a tread rubber provided on the outer side in the tire radial direction of the carcass, wherein: provided that SW and OD represent cross sectional width and outer diameter of the tire, respectively, and that the tire assembled with a rim is inflated at an internal pressure of at least 250 kPa, SW/OD (a ratio of the cross sectional width SW (mm) with respect to the outer diameter OD (mm) of the tire) is ≤ 0.26 when SW < 165 (mm); SW and OD satisfy a formula shown below when SW ≥ 165 (mm); OD ≥ 2.135 × SW + 282.3; characterized in that: a rubber composition, forming the tread rubber, contains at least a rubber component and filler such that content of the filler is in the range of 55 to 85 parts by mass with respect to 100 parts by mass of the rubber component; dynamic storage elastic modulus E' of the tread rubber at 30 °C is in the range of 8.5 MPa to 11.0 MPa; loss tangent "tan δ" of the tread rubber at 60 °C is in the range of 0.05 to 0.18; and loss tangent "tan δ" of the tread rubber at o °C is in the range of 0.50 to 0.80. provided that SW and OD represent cross sectional width and outer diameter of the tire, respectively, and that the tire assembled with a rim is inflated at an internal pressure of at least 250 kPa, SW/OD (a ratio of the cross sectional width SW (mm) with respect to the outer diameter OD (mm) of the tire) is ≤ 0.26 when SW < 165 (mm); SW and OD satisfy a formula shown below when SW ≥ 165 (mm); OD ≥ 2.135 × SW + 282.3; characterized in that: a rubber composition, forming the tread rubber, contains at least a rubber component and filler such that content of the filler is in the range of 55 to 85 parts by mass with respect to 100 parts by mass of the rubber component; dynamic storage elastic modulus E' of the tread rubber at 30 °C is in the range of 8.5 MPa to 11.0 MPa; loss tangent "tan δ" of the tread rubber at 60 °C is in the range of 0.05 to 0.18; and loss tangent "tan δ" of the tread rubber at o °C is in the range of 0.50 to 0.80. a rubber composition, forming the tread rubber, contains at least a rubber component and filler such that content of the filler is in the range of 55 to 85 parts by mass with respect to 100 parts by mass of the rubber component; dynamic storage elastic modulus E' of the tread rubber at 30 °C is in the range of 8.5 MPa to 11.0 MPa; loss tangent "tan δ" of the tread rubber at 60 °C is in the range of 0.05 to 0.18; and loss tangent "tan δ" of the tread rubber at o °C is in the range of 0.50 to 0.80.
A method comprising: providing a foamed spacer fluid comprising cement kiln dust, a foaming agent, a gas, and water; and introducing the foamed spacer fluid into a well bore to displace at least a portion of a first fluid present in the well bore wherein the yield point of the foamed spacer fluid at 180°F (82°C) is greater than 20 lb/100 ft 2 (0.98 kg/m 2). providing a foamed spacer fluid comprising cement kiln dust, a foaming agent, a gas, and water; and introducing the foamed spacer fluid into a well bore to displace at least a portion of a first fluid present in the well bore wherein the yield point of the foamed spacer fluid at 180°F (82°C) is greater than 20 lb/100 ft 2 (0.98 kg/m 2).
A method for measuring a flow of a fluid using a magnetic flow sensor device (100; 200; 300), comprising: introducing the magnetic flow sensor device (100; 200; 300) into a fluid, wherein the fluid has a flow path, wherein the magnetic flow sensor device (100; 200; 300) comprises a coil having a longitudinal axis that is oriented to be orthogonal to the flow of the fluid and at least one mass of conductive material which disrupts a magnetic field created by conductive particles passing the coil; positioning the magnetic flow sensor device (100; 200; 300) in a flow such that the flow sensor device measures the flow in an unobstructed position in the flow; and measuring a flow of the fluid by measuring a voltage received from the magnetic flow sensor device (100; 200; 300). introducing the magnetic flow sensor device (100; 200; 300) into a fluid, wherein the fluid has a flow path, wherein the magnetic flow sensor device (100; 200; 300) comprises a coil having a longitudinal axis that is oriented to be orthogonal to the flow of the fluid and at least one mass of conductive material which disrupts a magnetic field created by conductive particles passing the coil; positioning the magnetic flow sensor device (100; 200; 300) in a flow such that the flow sensor device measures the flow in an unobstructed position in the flow; and measuring a flow of the fluid by measuring a voltage received from the magnetic flow sensor device (100; 200; 300).
A curable composition comprising: a hydrocarbon compound having a plurality of carbon-carbon double bonds, and a carbonaceous material, wherein the hydrocarbon compound having a plurality of carbon-carbon double bonds is a polymer, wherein the ratio of the monomer unit having a side-chain containing a carbon-carbon double bond and saturated main chain is 60 mole % or more, based on the total number of monomer units constituting the polymer, wherein the carbonaceous material contains 0.05 mass % to 10 mass % of boron. a hydrocarbon compound having a plurality of carbon-carbon double bonds, and a carbonaceous material,
A method performed by a mobile terminal, comprising: determining whether a current split is configured to camp on a selected cell; and causing the current split to not be utilized in an instance in which the currrent split is not configured to camp on the selected cell, characterized by the split comprising a current physical cell id, PCI, / primary synchronization code, PSC, split; receiving an indication of an area where the PCI/PSC split is valid, and causing the current PCI/PSC split to not be utilized in an instance in which the mobile terminal is outside the area where the PCI/PSC split is valid. determining whether a current split is configured to camp on a selected cell; and causing the current split to not be utilized in an instance in which the currrent split is not configured to camp on the selected cell, characterized by the split comprising a current physical cell id, PCI, / primary synchronization code, PSC, split; receiving an indication of an area where the PCI/PSC split is valid, and causing the current PCI/PSC split to not be utilized in an instance in which the mobile terminal is outside the area where the PCI/PSC split is valid.
A method for correcting a measured spectrum of X radiation (Sp mes), according to a number of channels Nc, each channel i corresponding to an energy range between E i and Ei + ΔE i, including: - determining the function δt i,j (k) being the width of a window encompassing the temporal differences Δt, such that two interactions with energy E i and E j temporally spaced of such a difference are considered to be stacked with energy E k, - determining, from said function δt i,j (k), the probability function P i,j (k) that an event counted in a channel k corresponds to a stack of two interactions, respectively of energies E i and E j, - determining, from said probability function P i,j (k), a stack spectrum (Emp), which is the part of the measured spectrum (Sp mes), that corresponds only to the stacks alone, - calculating or estimating at least a first corrected spectrum (Sp cor), by the difference between the measured spectrum (Sp mes) and the stack spectrum (Emp). - determining the function δt i,j (k) being the width of a window encompassing the temporal differences Δt, such that two interactions with energy E i and E j temporally spaced of such a difference are considered to be stacked with energy E k, - determining, from said function δt i,j (k), the probability function P i,j (k) that an event counted in a channel k corresponds to a stack of two interactions, respectively of energies E i and E j, - determining, from said probability function P i,j (k), a stack spectrum (Emp), which is the part of the measured spectrum (Sp mes), that corresponds only to the stacks alone, - calculating or estimating at least a first corrected spectrum (Sp cor), by the difference between the measured spectrum (Sp mes) and the stack spectrum (Emp).