mhurhangee/ep-ind-claims huggingface dataset:
A data transmission method, comprising: modulating (S201, S501, S1001, S1401) to-be-sent information bits according to a lower order constellation diagram, and generating 4m lower order modulation symbols, wherein m is an integer greater than or equal to 1; separately multiplying (S202, S502, S1002, S1402) a precoding matrix Q by a column vector comprising every four lower order modulation symbols in the 4m lower order modulation symbols, to obtain 4m to-be-sent higher order modulation symbols corresponding to a higher order constellation diagram; characterized in that the method further comprises: respectively and correspondingly sending the 4m to-be-sent higher order modulation symbols on different carriers of two antennas, wherein the 4m to-be-sent higher order modulation symbols are classified into four types; and the respectively and correspondingly sending the 4m to-be-sent higher order modulation symbols on different carriers of two antennas comprises: sending the first higher order modulation symbol on a first subcarrier of a first transmit antenna; sending the second higher order modulation symbol on a first subcarrier of a second transmit antenna; sending the third higher order modulation symbol on a second subcarrier of the first transmit antenna; and sending the fourth higher order modulation symbol on a second subcarrier of the second transmit antenna. modulating (S201, S501, S1001, S1401) to-be-sent information bits according to a lower order constellation diagram, and generating 4m lower order modulation symbols, wherein m is an integer greater than or equal to 1; separately multiplying (S202, S502, S1002, S1402) a precoding matrix Q by a column vector comprising every four lower order modulation symbols in the 4m lower order modulation symbols, to obtain 4m to-be-sent higher order modulation symbols corresponding to a higher order constellation diagram; respectively and correspondingly sending the 4m to-be-sent higher order modulation symbols on different carriers of two antennas, wherein the 4m to-be-sent higher order modulation symbols are classified into four types; and the respectively and correspondingly sending the 4m to-be-sent higher order modulation symbols on different carriers of two antennas comprises: sending the first higher order modulation symbol on a first subcarrier of a first transmit antenna; sending the second higher order modulation symbol on a first subcarrier of a second transmit antenna; sending the third higher order modulation symbol on a second subcarrier of the first transmit antenna; and sending the fourth higher order modulation symbol on a second subcarrier of the second transmit antenna.
A composition comprising one or more embryonic proteins produced by a method comprising: culturing fibroblast cells under hypoxic conditions for at least 2 weeks in a suitable growth medium on a support, wherein the support is mesh or beads, containing basic FGF (bFGF), under 1-5% oxygen, thereby producing pluripotent stem cells, wherein the stem cells produce and secrete into the medium and on the cell culture or surfaces, a soluble and a non-soluble fraction comprising one or more embryonic proteins for use in medicine to stimulate hair growth. culturing fibroblast cells under hypoxic conditions for at least 2 weeks in a suitable growth medium on a support, wherein the support is mesh or beads, containing basic FGF (bFGF), under 1-5% oxygen, thereby producing pluripotent stem cells, wherein the stem cells produce and secrete into the medium and on the cell culture or surfaces, a soluble and a non-soluble fraction comprising one or more embryonic proteins for use in medicine to stimulate hair growth.
A computer implemented method performed by a mobile computing device for controlling a behavior of the mobile computing device based on a location of the mobile computing device, comprising the steps of receiving two or more defined geographic zones (132,134); creating first and second location handlers for controlling the behavior of the mobile computing device and associating the first and second location handlers with respective two of the two or more defined geographic zones (132,134), determining when the mobile computing device crosses a boundary of a geographic zone (132,134) of the two or more defined geographic zones and executing the one or more location handlers associated with a new geographic zone (132,134) when the new geographic zone (132,134) has been entered and terminating the one or more location handlers associated with an exited geographic zone when the mobile computing device has exited the exited geographic zone (132,134); and the location handlers, when executed to interact with an operating system of the mobile computer device upon crossing the boundary of the geographic zone altering at least one of a plurality of system settings of the mobile computing device.
Method for the production of a separator (1.2.2) for an electrochemical storage device, which separator (1.2.2) can be located between an anode (1.2.1) and a cathode (1.2.3) of the electrochemical storage device, the separator (1.2.2) being made from a semi-permeable carrier material, characterised by the following steps: a) the superficial homogenous wetting of the glass fibre matting (1.2.2.1) with concentrated nitric acid on at least one surface, b) the thermal pressing of the glass fibre matting (1.2.2.1) wetted with nitric acid, c) the drying of the pressed glass fibre matting (1.2.2.1) under the action of a preset temperature, d) the cleaning of the dries glass fibre matting (1.2.2.1) with demineralised water, e) the drying of the cleaned glass fibre matting (1.2.2.1) under the action of a vacuum, f) the pressing of the dried glass fibre matting (1.2.2.1) and the final cooling of the pressed glass fibre matting (1.2.2.1). a) the superficial homogenous wetting of the glass fibre matting (1.2.2.1) with concentrated nitric acid on at least one surface, b) the thermal pressing of the glass fibre matting (1.2.2.1) wetted with nitric acid, c) the drying of the pressed glass fibre matting (1.2.2.1) under the action of a preset temperature, d) the cleaning of the dries glass fibre matting (1.2.2.1) with demineralised water, e) the drying of the cleaned glass fibre matting (1.2.2.1) under the action of a vacuum, f) the pressing of the dried glass fibre matting (1.2.2.1) and the final cooling of the pressed glass fibre matting (1.2.2.1).
A method of applying a hardfacing composition (10A, 10B) to a surface of an earth-boring tool, comprising: embedding grains of hard material in a molten cobalt-based metal alloy including between 20.0 wt.% and 45.0 wt% ruthenium on a surface of an earth-boring tool; and cooling and solidifying the molten cobalt-based metal alloy with the grains of hard material embedded therein; wherein the grains of hard material comprise at least one of a transition metal carbide, a transition metal nitride, and a transition metal oxide. embedding grains of hard material in a molten cobalt-based metal alloy including between 20.0 wt.% and 45.0 wt% ruthenium on a surface of an earth-boring tool; and cooling and solidifying the molten cobalt-based metal alloy with the grains of hard material embedded therein; wherein the grains of hard material comprise at least one of a transition metal carbide, a transition metal nitride, and a transition metal oxide.
A liquid crystal display device comprising a first transparent insulating substrate and a second transparent insulating substrate disposed so as to face each other; a liquid crystal layer containing a liquid crystal composition and sandwiched between the first substrate and the second substrate; a common electrode composed of a transparent conductive material and disposed on the first substrate; a plurality of gate bus lines and a plurality of data bus lines disposed on the first substrate so as to form a matrix; a thin film transistor disposed at each of intersections of the gate bus lines and the data bus lines; a pixel electrode composed of a transparent conductive material and driven by the transistor, the thin film transistor and the pixel electrode being included in each pixel; and alignment films that induce homogeneous alignment and are disposed between the liquid crystal layer and the first substrate and between the liquid crystal layer and the second substrate, alignment directions of the alignment films being parallel to each other, wherein an interelectrode distance R between the pixel electrode and the common electrode is smaller than a distance G between the first substrate and the second substrate so that a fringing field is formed between the pixel electrode and the common electrode, the common electrode is disposed on substantially an entire surface of the first substrate so as to be closer to the first substrate than the pixel electrode, and the liquid crystal composition has a negative dielectric anisotropy, a nematic phase-isotropic liquid phase transition temperature of 60°C or higher, and an absolute value of dielectric anisotropy of 2 or more and contains at least one compound selected from the group of compounds represented by general formula below, in the formula, R 1 and R 2 each independently represent an alkyl group having 1 to 8 carbon atoms, an alkenyl group having 2 to 8 carbon atoms, an alkoxy group having 1 to 8 carbon atoms, or an alkenyloxy group having 2 to 8 carbon atoms; A represents a 1,4-phenylene group or a trans-1,4-cyclohexylene group; k represents 1 or 2; and when k represents 2, two A may be the same or different at least one compound selected from the group of compounds represented by general formula below, in the formula, R 3 represents an alkyl group having 1 to 8 carbon atoms, an alkenyl group having 2 to 8 carbon atoms, an alkoxy group having 1 to 8 carbon atoms, or an alkenyloxy group having 2 to 8 carbon atoms; R 4 represents an alkyl group having 1 to 8 carbon atoms, an alkenyl group having 4 to 8 carbon atoms, an alkoxy group having 1 to 8 carbon atoms, or an alkenyloxy group having 3 to 8 carbon atoms; B represents a 1,4-phenylene group or a trans-1,4-cyclohexylene group; m represents 0, 1, or 2; and when m represents 2, two B may be the same or different, the compound represented by formula (IVa1-1) and the compound represented by formula (IVa1-3) below,
Device for damping vibrations, comprising: - a hollow damper tube, - a piston rod with a piston fastened thereto, - at least one spring plate, and - at least one securing element, - wherein the piston is arranged within the damper tube, - wherein the spring plate is arranged outside the damper tube, - wherein the spring plate is connected to the damper tube both frictionally and in a form-fitting manner, and - wherein the spring plate is connected to the damper tube in a form-fitting manner by the securing element, characterized in that the spring plate is connected to the damper tube frictionally by a press connection and the damper tube comprises a groove for receiving the securing element. - a hollow damper tube, - a piston rod with a piston fastened thereto, - at least one spring plate, and - at least one securing element, - wherein the piston is arranged within the damper tube, - wherein the spring plate is arranged outside the damper tube, - wherein the spring plate is connected to the damper tube both frictionally and in a form-fitting manner, and - wherein the spring plate is connected to the damper tube in a form-fitting manner by the securing element,
A method for a computing device (504,506,508), the method comprising: receiving a set of voice recordings comprising at least first and second voice recordings, wherein each voice recording in the set was detected via a respective networked microphone device, NMD, (512,514,516,600); identifying, from among the set of voice recordings, a subset of voice recordings from which to determine a given voice command; and causing the identified subset of voice recordings to be analyzed to determine the given voice command; characterised in that the first voice recording that is detected via a first NMD represents at least a first portion of the given voice command; and the method further comprises: determining that the first NMD and a second NMD are arranged as one of: a bonded zone to play back respective channels of a multi-channel media content; and a zone group to play back media content in synchrony; and based on the determining, causing the second NMD to record a second voice recording, wherein the second voice recording represents at least a second portion of the given voice command. receiving a set of voice recordings comprising at least first and second voice recordings, wherein each voice recording in the set was detected via a respective networked microphone device, NMD, (512,514,516,600); identifying, from among the set of voice recordings, a subset of voice recordings from which to determine a given voice command; and causing the identified subset of voice recordings to be analyzed to determine the given voice command; characterised in that the first voice recording that is detected via a first NMD represents at least a first portion of the given voice command; and the method further comprises: determining that the first NMD and a second NMD are arranged as one of: a bonded zone to play back respective channels of a multi-channel media content; and a zone group to play back media content in synchrony; and based on the determining, causing the second NMD to record a second voice recording, wherein the second voice recording represents at least a second portion of the given voice command. determining that the first NMD and a second NMD are arranged as one of: a bonded zone to play back respective channels of a multi-channel media content; and a zone group to play back media content in synchrony; and a bonded zone to play back respective channels of a multi-channel media content; and a zone group to play back media content in synchrony; and based on the determining, causing the second NMD to record a second voice recording, wherein the second voice recording represents at least a second portion of the given voice command.
A turbocompressor comprising: a case; a centrifugal first stage compressing unit disposed on the case; a centrifugal second stage compressing unit disposed on the case; and a driver unit configured to drive the first stage compressing unit and the second stage compressing unit, wherein the case is partitioned into a first cooling area which houses a first cooling device and to which external air compressed by the first stage compressing unit is fed, and a second cooling area which houses a second cooling device and to which air that passes through the first cooling area and is further compressed by the second stage compressing unit is fed, characterized in that the case is further partitioned into an oil tank which houses lubricant oil to be fed to the driver unit, and a blowoff silencer chamber to which the air that passes through the second cooling area and is to be discharged to atmosphere is fed, and the blowoff silencer chamber houses a blowoff silencer, and is located between the oil tank and the first cooling area as well as the second cooling area in an interior of the case. a case; a centrifugal first stage compressing unit disposed on the case; a centrifugal second stage compressing unit disposed on the case; and a driver unit configured to drive the first stage compressing unit and the second stage compressing unit, wherein the case is partitioned into a first cooling area which houses a first cooling device and to which external air compressed by the first stage compressing unit is fed, and a second cooling area which houses a second cooling device and to which air that passes through the first cooling area and is further compressed by the second stage compressing unit is fed, the case is further partitioned into an oil tank which houses lubricant oil to be fed to the driver unit, and a blowoff silencer chamber to which the air that passes through the second cooling area and is to be discharged to atmosphere is fed, and the blowoff silencer chamber houses a blowoff silencer, and is located between the oil tank and the first cooling area as well as the second cooling area in an interior of the case.
A cutting tip for a swing-type saw comprising a plurality of abrasive particles for cutting a workpiece while swinging, wherein: at least some of the abrasive particles are arranged in the form of abrasive particle groups; each abrasive particle group is constituted by at least two abrasive particles; the abrasive particles of each abrasive particle group at least overlap in a first direction corresponding in use to a direction of cutting; ones of the abrasive particle groups are adjacent and the distance between the adjacent ones of the abrasive particle groups in the first direction is 5 times or more than the size of the abrasive particles 2; the abrasive particles of each abrasive particle group are not in contact with each other; and the distance between adjacent ones of the abrasive particles constituting each abrasive particle group in a second direction, perpendicular to the first direction and parallel to the through-thickness direction, an offset in a width direction, is 50% or less of the size of the abrasive particles, characterized in that: the distance between adjacent ones of the abrasive particles constituting each abrasive particle group is 3 times or less than the size of the abrasive particles. at least some of the abrasive particles are arranged in the form of abrasive particle groups; each abrasive particle group is constituted by at least two abrasive particles; the abrasive particles of each abrasive particle group at least overlap in a first direction corresponding in use to a direction of cutting; ones of the abrasive particle groups are adjacent and the distance between the adjacent ones of the abrasive particle groups in the first direction is 5 times or more than the size of the abrasive particles 2; the abrasive particles of each abrasive particle group are not in contact with each other; and the distance between adjacent ones of the abrasive particles constituting each abrasive particle group in a second direction, perpendicular to the first direction and parallel to the through-thickness direction, an offset in a width direction, is 50% or less of the size of the abrasive particles,
Drum for producing a tyre casing blank, which comprises a support and sectors (6v, 6c) forming a circumferential face of the drum, each sector having a circumferential outer face having a contour of general trapezoidal form and being mounted so as to be movable relative to the support in a non-radial predetermined direction relative to an axis of rotation of the drum and intercepting this axis.
A flowable material source switch-over device (20; 20.1) comprising: a valve chamber (22; 22.1) having first and second inlets (24, 24.1; 26, 26.1) configured to be in communication with first and second sources (31; 33) of flowable material and having an outlet (28; 28.1); a valve member (60; 60.1) disposed within the valve chamber and being moveable from a first position in which communication between the first inlet and the outlet is promoted and communication between the second inlet and the outlet is inhibited, to a second position in communication between the second inlet and the outlet is promoted and communication between the first inlet and the outlet is inhibited; and characterized in that the device further comprises a catch apparatus (88; 88.1) shaped to inhibit displacement of the valve member when the catch apparatus is in fluid communication with one of the sources of flowable material. a valve chamber (22; 22.1) having first and second inlets (24, 24.1; 26, 26.1) configured to be in communication with first and second sources (31; 33) of flowable material and having an outlet (28; 28.1); a valve member (60; 60.1) disposed within the valve chamber and being moveable from a first position in which communication between the first inlet and the outlet is promoted and communication between the second inlet and the outlet is inhibited, to a second position in communication between the second inlet and the outlet is promoted and communication between the first inlet and the outlet is inhibited; and characterized in that the device further comprises a catch apparatus (88; 88.1) shaped to inhibit displacement of the valve member when the catch apparatus is in fluid communication with one of the sources of flowable material.
Compound selected from: sodium salt of α-hydroxy- cis -Δ9-octadecenoic acid (Na-OHOD), sodium salt of α-acetyl- cis -Δ9-octadecenoic acid (Na-ACOD), sodium salt of α-methoxy- cis -Δ9-octadecenoic acid (Na-MOOD), sodium salt of α-diethyl-phosphatidyl- cis -Δ9-octadecenoic acid (Na-DEPOD), methyl ester of α-hydroxy- cis -Δ9-octadecenoic acid (OMe-OHOD), methyl ester of α-acetyl- cis- Δ9-octadecenoic acid (OMe-ACOD), methyl ester of α-methoxy- cis -Δ9-octadecenoic acid (OMe-MOOD), methyl ester of α-diethyl-phosphatidyl- cis -Δ9-octadecenoic acid (OMe-DEPOD), ethyl ester of α-hydroxy- cis -Δ9-octadecenoic acid (EE-OHOD), ethyl ester of α-acetyl- cis -Δ9-octadecenoic acid (EE-ACOD), ethyl ester of α-methoxy- cis -Δ9-octadecenoic acid (EE-MOOD), ethyl ester of a-diethyl-phosphatidyl- cis -Δ9-octadecenoic acid (EE-DEPOD), ammonium salt of α-hydroxy- cis -Δ9-octadecenoic acid (NH3-OHOD), α-methoxy- cis -Δ9-octadecenoic acid (MOOD), α-acetyl- cis -Δ9-octadecenoic acid (ACOD), α-diethyl-phosphatidyl- cis -Δ9-octadecenoic acid (DEPOD), α-fluoro- cis -Δ9-octadecenoic acid, α-trifluoromethyl- cis -Δ9-octadecenoic acid (TFMOD), α-mercapto- cis -Δ9-octadecenoic acid (SHOD), α-methyl- cis -Δ11-octadecenoic acid, α-hydroxy- cis -Δ11-octadecenoic acid (OHOD11), α-hydroxy- cis- Δ11-eicosenoic acid (OHEE), α-hydroxy- cis -Δ13-docosenoic acid (OHDE) and α-hydroxy- cis -Δ9-hexadecenoic acid (OHHD), or salts thereof, for use in the prevention and/or treatment of a disease.
A method of monitoring performance of at least one task in controlled equipment, comprising: identifying a cycle associated with the equipment, the cycle defined by a sequence of a plurality of tasks; collecting, over a plurality of repetitions of the sequence, a series of signals for each of the plurality of tasks in the cycle from a controller configured to control the equipment; associating, for one of the plurality of repetitions, one or more signals in the series to define a duration time for each of the plurality of tasks; comparing, for each of the plurality of tasks, each of the duration times to a reference value (104, 106) indicative of an expected duration time of a given task using a processor, wherein the reference value (104, 106) is based on data other than the series of signals; and generating an indication for each of the plurality of tasks, based on the comparison; wherein the indication is at least one of a cautionary indicator, a warning indicator or a normal operation indicator. identifying a cycle associated with the equipment, the cycle defined by a sequence of a plurality of tasks; collecting, over a plurality of repetitions of the sequence, a series of signals for each of the plurality of tasks in the cycle from a controller configured to control the equipment; associating, for one of the plurality of repetitions, one or more signals in the series to define a duration time for each of the plurality of tasks; comparing, for each of the plurality of tasks, each of the duration times to a reference value (104, 106) indicative of an expected duration time of a given task using a processor, wherein the reference value (104, 106) is based on data other than the series of signals; and generating an indication for each of the plurality of tasks, based on the comparison; wherein the indication is at least one of a cautionary indicator, a warning indicator or a normal operation indicator.