mhurhangee/ep-ind-claims huggingface dataset:
A male part of a tool, comprising: a radially and axially supporting and positioning portion (27, 127) disposed at a first location along an axis of the male part (23, 123) of the tool (21, 121) for radially and axially supporting and positioning the male part (23, 123) of the tool (21, 121) at a front end (41, 141) of a holder (25, 125), and an externally threaded portion (31, 131) disposed at a second location along the axis of the male part (23, 123) of the tool (21, 121) for engaging an internally threaded portion (33, 133) of the holder (25, 125), wherein a largest diameter of the externally threaded portion (31, 131) is smaller than a smallest diameter of the radially and axially supporting and positioning portion (27, 127), a transition portion (35, 135) being disposed along the axis of the male part (23, 123) of the tool (21, 121) between a radially largest portion (39, 139) of the radially and axially supporting and positioning portion (27, 127) and the externally threaded portion (31, 131), characterized in that the male part is formed of a cemented carbide, in that the male part includes a supplemental radially supporting portion disposed along the axis of the male part at an opposite end of the threaded portion than the transition portion, and in that the radially supporting portion includes an axially extending surface.
A composition comprising a therapeutically effective amount of dexpramipexole for use in the treatment of a B-cell disorder characterized by elevated levels of B-cells in a subject, wherein the B-cell disorder is selected from the group consisting of diffuse large B-cell lymphoma, follicular lymphoma, marginal zone lymphoma, small cell lymphocytic lymphoma, mantle cell lymphoma, Burkitt lymphoma, Waldenstrom's macroblobulinemia, B-cell chronic lymphocytic leukemia, B-cell acute lymphoblastic leukemia, B-cell prolymphocytic leukemia, precursor B-cell lymphoblastic leukemia, hairy cell leukemia.
A polyurethane based asphalt composition, comprising: an asphalt component; and a polyurethane resin system that is the reaction product of an isocyanate component that includes at least one polyisocyanate and an isocyanate-reactive component that includes a cardanol-modified epoxy polyol, the cardanol-modified epoxy polyol being a reaction product of an epoxy component and an epoxy-reactive component at a ratio of epoxy groups to epoxy reactive groups from 1:0.95 to 1:5, the epoxy-reactive component including a cardanol component. an asphalt component; and a polyurethane resin system that is the reaction product of an isocyanate component that includes at least one polyisocyanate and an isocyanate-reactive component that includes a cardanol-modified epoxy polyol, the cardanol-modified epoxy polyol being a reaction product of an epoxy component and an epoxy-reactive component at a ratio of epoxy groups to epoxy reactive groups from 1:0.95 to 1:5, the epoxy-reactive component including a cardanol component.
A wind turbine rotor blade, with a rotor blade shell (210, 220), which envelops an internal volume, and at least one vortex generator in the internal volume, wherein first vortex generators are arranged on an interior side (211, 221) of the rotor blade shell (210, 220), and protrude into the internal volume, further with at least one web (231, 232) in the internal volume along a longitudinal direction of the rotor blade, wherein second vortex generators are arranged on the at least one web (231, 232). a rotor blade shell (210, 220), which envelops an internal volume, and at least one vortex generator in the internal volume, wherein first vortex generators are arranged on an interior side (211, 221) of the rotor blade shell (210, 220), and protrude into the internal volume, further with at least one web (231, 232) in the internal volume along a longitudinal direction of the rotor blade, wherein second vortex generators are arranged on the at least one web (231, 232).
An optical system comprising: a fiber amplifier comprising an optically active doped fiber; a source of seed pulses; and a pump source, wherein the doped fiber is doped with one or more active elements selected such that the seed pulses are amplified in intensity; the doped fiber has a negative group velocity dispersion in the region from the wavelength of the seed pulses to a threshold wavelength at which the magnitude of the optical loss of the doped fiber is greater than a gain due to stimulated Raman scattering, so that in use due to stimulated Raman scattering, formation of a Raman soliton occurs, the Raman soliton is further shifted in the wavelength domain, and the shifting of the soliton in the wavelength domain is stopped at the threshold wavelength; the fiber is doped with thulium Tm, the fiber has a negative group velocity dispersion in the region of 1.8 to 2.6 μm; the pump source is arranged to pump at a wavelength from 0.77 to 0.82 μm; the source of seed pulses provides pulses having wavelengths from 1.8-2.1 μm; the duration of the seed optical pulses is limited to less than 100 ps; the threshold wavelength is longer than the wavelength of the seed pulses; and the optical system is operable to generate a series of spectrally separated soliton pulses in the region from the seed pulse wavelength to 2.6μm. a fiber amplifier comprising an optically active doped fiber; a source of seed pulses; and a pump source, wherein the doped fiber is doped with one or more active elements selected such that the seed pulses are amplified in intensity; the doped fiber has a negative group velocity dispersion in the region from the wavelength of the seed pulses to a threshold wavelength at which the magnitude of the optical loss of the doped fiber is greater than a gain due to stimulated Raman scattering, so that in use due to stimulated Raman scattering, formation of a Raman soliton occurs, the Raman soliton is further shifted in the wavelength domain, and the shifting of the soliton in the wavelength domain is stopped at the threshold wavelength; the fiber is doped with thulium Tm, the fiber has a negative group velocity dispersion in the region of 1.8 to 2.6 μm; the pump source is arranged to pump at a wavelength from 0.77 to 0.82 μm; the source of seed pulses provides pulses having wavelengths from 1.8-2.1 μm; the duration of the seed optical pulses is limited to less than 100 ps; the threshold wavelength is longer than the wavelength of the seed pulses; and the optical system is operable to generate a series of spectrally separated soliton pulses in the region from the seed pulse wavelength to 2.6μm.
A plate (1, 1') apt to be connected with a second identical plate, having a side wall, a peripheral rim and coupling means (131, 141) obtained on said peripheral rim, apt to connect the latter to a peripheral rim of the second identical plate, said peripheral rim comprising, at a free edge thereof, a stiffening peripheral volute having along a development thereof one or more recesses apt to allow vapour outletting, wherein said coupling means (131, 141) comprises at least two protrusions (131, 132) and at least two hollows (141, 142), each protrusion (131, 132) being configured so as to respectively fit into a complementary hollow (241, 242) obtained on the second identical plate, and each hollow (141, 142) being configured to receive a complementary protrusion (231, 232) obtained on the second identical plate, wherein said protrusions (131, 132) and hollows (141, 142) are alternately obtained along an inner concentric portion and an outer concentric portion of said peripheral rim, each protrusion and each hollow of said inner portion being side-by-side respectively to a hollow and a protrusion of said outer portion, each protrusion-hollow pair (131, 141; 132, 142) side-by-side to each other, making up an engagement sector.
The bulb with LED diodes with transparent glass, with air tight cooling air inlet and outlet channels, connected by an air tight arterial chamber located between an upper end of a radiator with blind internal part, an upper printed circuit board and parts of side printed circuit boards with LED diodes protruding above the upper radiator's end, the radiator has an arterial internal part with ribs outside alongside entire length, with a fan located in a cover with a base and a collar separating a part of the radiator with side printed circuit boards with LED diodes from a part of the radiator with boards directing the cooling air into inlet channels, with boards with inserts directing the cooling air from outlet channels into outlet holes, characterized in that the arterial internal part of the radiator comprises four areas of the same radius of curvature connected with one another alongside in corners with two arms with ends bent into the outside, and between corners alongside the arterial internal part there are located ribs with alternating grooves alongside their length, but the height of the ribs is identical that is such, that between their flat ends and bent flat ends of arms of the corners there are located movable sliding boards, accordingly: side printed circuit boards with LED diodes and boards directing the cooling air into the inlet channels and boards with inserts directing the cooling air from the cooling air outlet channels.
Blade made of layered material, which blade is configured for exposure to a fluid flow, comprising skins (1, 2) defined between a leading edge and a trailing edge, which skins in cross-section form a flow profile for the blade, wherein the layered material comprises several layers of material (5, 5', 5"), wherein layers of material each comprise a respective body portion (6, 6', 13, 13') between and transverse to the skins and on either side of the body portion in each case a respective skin portion (7, 7', 7") that forms part of the one skin and a respective skin portion (8, 8', 8") that forms part of the other skin while forming layers of material that are U-shaped and nested in each other such that at least two consecutive skin portions of the one skin and/or two consecutive skin portions of the other skin overlap each other; characterized in that said skin portions (7, 7', 7", 8, 8', 8") all extend from the related body portion (6, 6', 13, 13') in the direction of the trailing edge, and in that the flow profile formed by the skins is curved with a relatively large radius of curvature at the leading edge, and is curved with a relatively small radius of curvature at the trailing edge or is pointed at the trailing edge.
A method of producing an epiblast-like cell (EpiLC) from a pluripotent stem cell, which comprises culturing the pluripotent stem cell in the presence of activin A, basic fibroblast growth factor (bFGF) and Knockout Serum Replacement under serum- and feeder-free conditions for less than 3 days, wherein: (a) the EpiLC shows elevated gene expression of at least one selected from Fgf5, Wnt3 and Dnmt3b compared to the pluripotent stem cell before inducing differentiation; and/or (b) the EpiLC shows reduced gene expression of at least one selected from Gata4, Gata6, Sox17 and Blimp1 compared to the pluripotent stem cell before inducing differentiation. (a) the EpiLC shows elevated gene expression of at least one selected from Fgf5, Wnt3 and Dnmt3b compared to the pluripotent stem cell before inducing differentiation; and/or (b) the EpiLC shows reduced gene expression of at least one selected from Gata4, Gata6, Sox17 and Blimp1 compared to the pluripotent stem cell before inducing differentiation.
A body posture detection system, comprising: an inertial measurement unit, mounted on a first portion of a human body, configured to sense an orientation vector of the first portion; and an ultrasonic module, comprising a first ultrasonic transceiver mounted on the first portion and a second ultrasonic transceiver mounted on a second portion of the human body, wherein the first portion is a first limb portion of the human body; a processor, communicatively connected with the inertial measurement unit and the ultrasonic module (102a, 102b), wherein the processor is configured to generate a candidate gesture range of the first portion according to the orientation vector sensed by the inertial measurement unit, the candidate gesture range is generated by the processor according to the orientation vector and a body kinematic constraint of the first limb portion, and the candidate gesture range being a range of potential possible first limb portion positions; and measure a distance between the first portion and the second portion according to an ultrasound transmitted between the first ultrasonic transceiver and the second ultrasonic transceiver; characterized in that the processor is further configured to select a potential possible first limb portion position from the candidate gesture range according to the distance as a single current gesture. an inertial measurement unit, mounted on a first portion of a human body, configured to sense an orientation vector of the first portion; and an ultrasonic module, comprising a first ultrasonic transceiver mounted on the first portion and a second ultrasonic transceiver mounted on a second portion of the human body, wherein the first portion is a first limb portion of the human body; a processor, communicatively connected with the inertial measurement unit and the ultrasonic module (102a, 102b), wherein the processor is configured to generate a candidate gesture range of the first portion according to the orientation vector sensed by the inertial measurement unit, the candidate gesture range is generated by the processor according to the orientation vector and a body kinematic constraint of the first limb portion, and the candidate gesture range being a range of potential possible first limb portion positions; and measure a distance between the first portion and the second portion according to an ultrasound transmitted between the first ultrasonic transceiver and the second ultrasonic transceiver; characterized in that the processor is further configured to select a potential possible first limb portion position from the candidate gesture range according to the distance as a single current gesture.
A bearing for internal combustion engine, the bearing being provided with a ferrous base material onto which a primary layer of a bronze alloy and a deposited layer are sequentially applied, characterized in that a bonding layer is applied onto the primary layer, the bonding layer promoting the association between the primary layer and the deposited layer, the bonding layer comprising nickel and chrome and the deposited layer, the bonding layer comprising a metal alloy constituted by aluminum and tin, and onto the deposited layer one applies a sliding layer comprising a polymeric polyamide-imide matrix provided with a soft metal, chosen from aluminum, copper, silver, tungsten alloys and inox, a fluoropolymer and a silane-based material, the bearing being capable of standing a gripping load higher than 85 MPa.
A device for measuring electric potentials of a liquid sample, comprising at least one field effect transistor with source, drain and gate, wherein - the device has a substrate (408, 409; 1104, 1105) and at least two crossing nanowires (402, 404; 502, 507; 1502) of semi-conducting material arranged on this substrate for forming a cross-shaped structure with a respective source and drain contact (403, 406) as a field effect transistor and means for applying a voltage between the respective source and drain contact, wherein the two crossing nanowires are arranged such that only one crossing point (103; 405; 509) results, - the two nanowires, respectively in cross-section, have the shape of a triangle and their tip is located in the region facing away from the substrate, wherein the crossing nanowires (402, 404; 502, 507; 1502) are arranged in the same plane, - means for charging the substrate with a voltage are arranged on the substrate, - the nanowires (402, 404; 502, 507; 1502) are electrically isolated at least from the liquid sample by a dielectric layer along their surface with a layer thickness between 5 and 40 nm, and - at least one disruption point is arranged in this dielectric layer as an anchoring point at the crossing point (103; 405; 509) of the two nanowires (101, 102; 402, 404; 502, 507; 1502) which is able to capture load carriers from at least one of the two nanowires and inversely deliver them to this nanowire. - the device has a substrate (408, 409; 1104, 1105) and at least two crossing nanowires (402, 404; 502, 507; 1502) of semi-conducting material arranged on this substrate for forming a cross-shaped structure with a respective source and drain contact (403, 406) as a field effect transistor and means for applying a voltage between the respective source and drain contact, wherein the two crossing nanowires are arranged such that only one crossing point (103; 405; 509) results, - the two nanowires, respectively in cross-section, have the shape of a triangle and their tip is located in the region facing away from the substrate, wherein the crossing nanowires (402, 404; 502, 507; 1502) are arranged in the same plane, - means for charging the substrate with a voltage are arranged on the substrate, - the nanowires (402, 404; 502, 507; 1502) are electrically isolated at least from the liquid sample by a dielectric layer along their surface with a layer thickness between 5 and 40 nm, and - at least one disruption point is arranged in this dielectric layer as an anchoring point at the crossing point (103; 405; 509) of the two nanowires (101, 102; 402, 404; 502, 507; 1502) which is able to capture load carriers from at least one of the two nanowires and inversely deliver them to this nanowire.
A method comprising: monitoring a characteristic of a data transfer between a host and memory, the characteristic comprising at least one of a size of the data transfer, a write amplification, a write bandwidth, a reclamation bandwidth, and/or a read bandwidth; comparing at least one of a value of the monitored characteristic and/or a statistical value based at least in part on the monitored characteristic, with a target value; and increasing or decreasing the number of storage units of the memory that are allocated to service another data transfer based at least in part on the comparison, wherein a controller of the memory is configured to adjust the number of storage units allocated to service the other data transfer based on the size of requested data associated with the other data transfer, and a host-specified data transfer bandwidth and range of acceptable write amplifications; such that the controller increases the number of storage units allocated to service the other data transfer if the write bandwidth is less than an initial write bandwidth and if the write amplification is outside an acceptable range, and decreases the number of storage units allocated to service the other data transfer if the write bandwidth is greater than the initial write bandwidth and if the write amplification is outside the acceptable range. monitoring a characteristic of a data transfer between a host and memory, the characteristic comprising at least one of a size of the data transfer, a write amplification, a write bandwidth, a reclamation bandwidth, and/or a read bandwidth; comparing at least one of a value of the monitored characteristic and/or a statistical value based at least in part on the monitored characteristic, with a target value; and increasing or decreasing the number of storage units of the memory that are allocated to service another data transfer based at least in part on the comparison, wherein a controller of the memory is configured to adjust the number of storage units allocated to service the other data transfer based on the size of requested data associated with the other data transfer, and a host-specified data transfer bandwidth and range of acceptable write amplifications; such that the controller increases the number of storage units allocated to service the other data transfer if the write bandwidth is less than an initial write bandwidth and if the write amplification is outside an acceptable range, and decreases the number of storage units allocated to service the other data transfer if the write bandwidth is greater than the initial write bandwidth and if the write amplification is outside the acceptable range.
A rotatable electric machine comprising a rotatable shaft, a rotor, means for generating an electro-magnetic field, a housing, a pulling structure, and a pre-stressed spring, wherein the pulling structure comprises at least one weight installed on a pivot joint structure, the pivot joint structure having movable arms pivotally connected together, with one arm connected to a fixing seat fixed to the rotor, the arrangement being such that the or each weight and the arms are movable by the centrifugal force generated by rotation of the rotor whereby the movement of the arms pulls the rotor in the axial direction, and in that the pre-stressed spring is installed on the rotatable shaft between the fixing seats of the rotatable shaft and the rotor, whereby the spring pushes the rotor to its standstill position during deceleration of the rotor, such that, when the rotor functions as a generator or as a motor, the speed of the rotor controls the centrifugal pulling structure so that the centrifugal force varies according to the rotor speed, and further drives the rotor to produce axial displacement along a preset direction, so as to generate corresponding displacement, characterised in that the other arm of the pivot joint structure is connected to a circular washer, the washer being coupled through a bearing to a fixing seat (C100, C200) which is fixed to the housing.
A method for determining a bed temperature setpoint for use with a powder in a selective laser sintering machine, comprising the steps of: providing a powder comprising a polymer for use in a selective laser sintering machine; determining a melt curve for the powder in a temperature range corresponding to a thermal transition between a solid and a liquid of the powder, the melt curve representing the energy required to increase the temperature of the powder in the temperature range using differential scanning calorimetry; determining a second curve representing a ratio of a liquid portion of the powder to a solid portion of the powder as a function of temperature within the temperature range based on the melt curve determined using differential scanning calorimetry; identifying a desired ratio of the liquid portion of the powder to the solid portion of the powder for a build using the selective laser sintering machine; selecting a bed temperature setpoint in the temperature range by selecting the temperature that corresponds to the desired ratio in the second curve. providing a powder comprising a polymer for use in a selective laser sintering machine; determining a melt curve for the powder in a temperature range corresponding to a thermal transition between a solid and a liquid of the powder, the melt curve representing the energy required to increase the temperature of the powder in the temperature range using differential scanning calorimetry; determining a second curve representing a ratio of a liquid portion of the powder to a solid portion of the powder as a function of temperature within the temperature range based on the melt curve determined using differential scanning calorimetry; identifying a desired ratio of the liquid portion of the powder to the solid portion of the powder for a build using the selective laser sintering machine; selecting a bed temperature setpoint in the temperature range by selecting the temperature that corresponds to the desired ratio in the second curve.