mhurhangee/ep-ind-claims huggingface dataset:
A fixation device (300, 400, 700) comprising: a cannulated elongated body (304, 404, 704) having proximal and distal ends, the fixation device (300, 400, 700) further comprising a hollow shaft (314, 414) extending between said proximal and distal ends, and said elongated body including an outer surface adapted to penetrate and anchor within a bone; and a head (302, 402, 702) affixed to the distal end of the elongated body and adapted to mate with a drive component; wherein the outer surface of the elongated body comprises threads (312, 412, 712) extending from the outer surface in a first direction; wherein at least a portion of the outer surface of the elongated body comprises a reverse spiral cut (306, 406, 706) into the outer surface in a second direction opposite to the first direction; and further wherein a major diameter of the elongated body is operable to be reduced under insertion torque due to the reverse spiral cut, and to expand after the insertion torque is removed. a cannulated elongated body (304, 404, 704) having proximal and distal ends, the fixation device (300, 400, 700) further comprising a hollow shaft (314, 414) extending between said proximal and distal ends, and said elongated body including an outer surface adapted to penetrate and anchor within a bone; and a head (302, 402, 702) affixed to the distal end of the elongated body and adapted to mate with a drive component; wherein the outer surface of the elongated body comprises threads (312, 412, 712) extending from the outer surface in a first direction; wherein at least a portion of the outer surface of the elongated body comprises a reverse spiral cut (306, 406, 706) into the outer surface in a second direction opposite to the first direction; and further wherein a major diameter of the elongated body is operable to be reduced under insertion torque due to the reverse spiral cut, and to expand after the insertion torque is removed.
An airbag device for a flying object (1, 101, 101a, 205, 305), which protects at least one of a plurality of objects to be protected mounted on the flying object (10, 110) from collision with an obstacle, the airbag device (1, 101, 101a, 205, 305) comprising: an airbag which is configured to be provided adjacent to at least one of the objects to be protected mounted on the flying object (10, 110), is contracted or folded in an initial state, and is deployable so as to cover a portion or the entirety of a periphery of the object to be protected mounted on the flying object (10, 110) when the airbag is inflated; and a gas generator which is connected to the airbag (1, 101, 101a, 205, 305) and is capable of supplying gas into the airbag to inflate the airbag when the gas generator is activated; wherein the airbag and the gas generator are configured such that an internal pressure of the airbag after the deployment is from -69.8kPa to 48.6kPa; and, wherein the airbag has two vent holes having a total opening area with respect to the area of the airbag in a range of 0.086% to 0.27%; and, wherein when a weight of the obstacle is M [kg] and a relative speed with respect to the obstacle at which the airbag (1, 101, 101a, 205, 305) is capable of absorbing impact is W [m/s], a numerical value M 1/2 × W = x [kg 1/2 m/s] is 50 to 900. an airbag which is configured to be provided adjacent to at least one of the objects to be protected mounted on the flying object (10, 110), is contracted or folded in an initial state, and is deployable so as to cover a portion or the entirety of a periphery of the object to be protected mounted on the flying object (10, 110) when the airbag is inflated; and a gas generator which is connected to the airbag (1, 101, 101a, 205, 305) and is capable of supplying gas into the airbag to inflate the airbag when the gas generator is activated; wherein the airbag and the gas generator are configured such that an internal pressure of the airbag after the deployment is from -69.8kPa to 48.6kPa; and, wherein the airbag has two vent holes having a total opening area with respect to the area of the airbag in a range of 0.086% to 0.27%; and, wherein when a weight of the obstacle is M [kg] and a relative speed with respect to the obstacle at which the airbag (1, 101, 101a, 205, 305) is capable of absorbing impact is W [m/s], a numerical value M 1/2 × W = x [kg 1/2 m/s] is 50 to 900.
A seal pack of a sample manager of a liquid chromatography system, the seal pack having an upper body portion, a middle body portion, and a lower body portion, which forms a general body structure of the seal pack, the seal pack comprising: a central flow path extending vertically through the seal pack, the central flow path accommodating a sample needle; a wash inlet disposed in the upper body portion, configured to receive a wash solution, the wash inlet connecting to the central flow path by a wash inlet flow path; a first wash path disposed in the upper body portion and connected to the central flow path, the first wash path being vertically offset from the wash inlet; a connecting wash path extending through the upper body portion, the middle body portion, and the lower body portion, the connecting wash path connecting the first wash path to a second wash path disposed in the lower body portion, wherein the second wash path is connected to the central flow path; a third wash path disposed in the lower body portion and connected to the central flow path, the third wash path being vertically offset from the second wash path; and a wash outlet disposed in the middle body portion connected to the third wash path by an intermediate wash flow path, the wash outlet includes a wash outlet flow path and is fluidically connected to a suction pump for drawing the wash solution through the seal pack. a central flow path extending vertically through the seal pack, the central flow path accommodating a sample needle; a wash inlet disposed in the upper body portion, configured to receive a wash solution, the wash inlet connecting to the central flow path by a wash inlet flow path; a first wash path disposed in the upper body portion and connected to the central flow path, the first wash path being vertically offset from the wash inlet; a connecting wash path extending through the upper body portion, the middle body portion, and the lower body portion, the connecting wash path connecting the first wash path to a second wash path disposed in the lower body portion, wherein the second wash path is connected to the central flow path; a third wash path disposed in the lower body portion and connected to the central flow path, the third wash path being vertically offset from the second wash path; and a wash outlet disposed in the middle body portion connected to the third wash path by an intermediate wash flow path, the wash outlet includes a wash outlet flow path and is fluidically connected to a suction pump for drawing the wash solution through the seal pack.
Fatty acids comprising milk composition, preferably a fatty acids comprising cow milk composition, having a total content of saturated fatty acids of between 55.0 and 67.0 grams per 100 grams total fatty acids, wherein the weight ratio ω-6/ω-3 fatty acids is between 0.1 and 2.0, the content of C 18:3 -cis 9,12,15 is between 1.0 and 8.0 g/100 g total fatty acids, and wherein the weight ratio fat/protein is between 1.05 and 1.45.
A method of calculating a wind speed associated with a return period at a proposed wind turbine site, the method comprising: providing wind speed measurements measured at a proposed wind turbine site during a measurement period; selecting a first set of storms from the wind speed measurements; determining a characteristic wind speed for each storm of the first set of storms; the method being characterized by providing a first set of modelled wind speeds, wherein the first set of modelled wind speeds are estimates of wind speeds at the proposed wind turbine site during the measurement period from a mesoscale data set; selecting a second set of storms from the first set of modelled wind speeds; determining a characteristic wind speed for each storm of the second set of storms; comparing the characteristic wind speeds of the first set of storms to the characteristic wind speeds of the second set of storms to determine a correction factor; providing an extended set of modelled wind speeds, wherein the modelled wind speeds are estimates of wind speeds at the proposed wind turbine site during an extended period from an extended mesoscale data set, and the extended period has a greater duration than the measurement period; selecting a third set of storms from the extended set of modelled wind speeds; determining a characteristic wind speed for each storm of the third set of storms; applying the correction factor to the characteristic wind speeds of the third set of storms to provide corrected characteristic wind speeds; and calculating the wind speed associated with the return period from the corrected characteristic wind speeds. providing wind speed measurements measured at a proposed wind turbine site during a measurement period; selecting a first set of storms from the wind speed measurements; determining a characteristic wind speed for each storm of the first set of storms; the method being characterized by providing a first set of modelled wind speeds, wherein the first set of modelled wind speeds are estimates of wind speeds at the proposed wind turbine site during the measurement period from a mesoscale data set; selecting a second set of storms from the first set of modelled wind speeds; determining a characteristic wind speed for each storm of the second set of storms; comparing the characteristic wind speeds of the first set of storms to the characteristic wind speeds of the second set of storms to determine a correction factor; providing an extended set of modelled wind speeds, wherein the modelled wind speeds are estimates of wind speeds at the proposed wind turbine site during an extended period from an extended mesoscale data set, and the extended period has a greater duration than the measurement period; selecting a third set of storms from the extended set of modelled wind speeds; determining a characteristic wind speed for each storm of the third set of storms; applying the correction factor to the characteristic wind speeds of the third set of storms to provide corrected characteristic wind speeds; and calculating the wind speed associated with the return period from the corrected characteristic wind speeds.
A method of providing interface measurements in a wireless communications network, the method being implemented by a radio base station and comprising: determining whether a discrepancy relating to a non-scheduled load exists between the radio base station and a radio network controller; and if the discrepancy exists: modifying one or more interface measurements for an interface between the radio base station and the radio network controller; and transmitting the one or more modified interface measurements to the radio network controller. determining whether a discrepancy relating to a non-scheduled load exists between the radio base station and a radio network controller; and if the discrepancy exists: modifying one or more interface measurements for an interface between the radio base station and the radio network controller; and transmitting the one or more modified interface measurements to the radio network controller.
A method for reducing a work function of an electrically conductive polymer electrode, the method comprising: applying a solution comprising polyethylenimine or polyethylenimine ethoxylated (PEIE) to the surface of the electrically conductive polymer electrode to form an insulating layer having a thickness less than 25 nm thereon; wherein the insulating layer reduces the work function associated with the electrically conductive polymer electrode by greater than 0.5 eV. applying a solution comprising polyethylenimine or polyethylenimine ethoxylated (PEIE) to the surface of the electrically conductive polymer electrode to form an insulating layer having a thickness less than 25 nm thereon; wherein the insulating layer reduces the work function associated with the electrically conductive polymer electrode by greater than 0.5 eV.
A method of controlling a continuous inkjet printer configured to execute prints (A, E) with gaps (B, C, D) there-between and to undertake phase testing between said prints (A, E), said printer comprising an amplifier (21, 22) configured to amplify charges measured during phase testing, characterized in that the amplifier (21, 22) comprises a first stage amplifier and a second stage amplifier configured to run as ac coupled differentiators, and said method comprises switching out at least one of said amplifiers (21, 22) when said printer is not undertaking phase testing.
Method in a node (202, 204) of a Radio Access Network (142, 144) comprising a number of Radio Base Station nodes being connected to a Backhaul Network (122, 124) or a node (162, 164) of a Backhaul Network (122, 124) connected to a Radio Access Network (142, 144) comprising a number of Radio Base Station nodes (202, 204) being connected to the Backhaul Network (122, 124) comprising data communication paths for transferring data packets, the method comprises: - identifying congestion in a data communications path of the Backhaul Network; - notifying an handover control management functionality based on the congestion identification; wherein identifying congestion in a data communications path of the Backhaul Network implies detecting data packets comprising Explicit Congestion Notifications, ECN, indicating congestion in the data communications path, and wherein identifying congestion in a data communications path of the Backhaul Network implies detecting a continuous sequence of data packets comprising Explicit Congestion Notifications indicating congestion in the data communications path. - identifying congestion in a data communications path of the Backhaul Network; - notifying an handover control management functionality based on the congestion identification;
An ink set for inkjet recording, comprising a white ink and colour inks including a cyan ink, a magenta ink and a yellow ink, wherein: each ink independently comprises a pigment, a pigment-dispersing resin, an organic solvent and water; the pigment-dispersing resin of each colour ink is, independently, a pigment-dispersing resin A having an alkyl chain with a carbon number of 10 or greater; the pigment-dispersing resin of the white ink is a pigment-dispersing resin B having a polyoxyalkylene chain; and the pigment-dispersing resin A and the pigment-dispersing resin B are different resins. each ink independently comprises a pigment, a pigment-dispersing resin, an organic solvent and water; the pigment-dispersing resin of each colour ink is, independently, a pigment-dispersing resin A having an alkyl chain with a carbon number of 10 or greater; the pigment-dispersing resin of the white ink is a pigment-dispersing resin B having a polyoxyalkylene chain; and the pigment-dispersing resin A and the pigment-dispersing resin B are different resins.
An optical output device for receiving incident light and providing output light, comprising: a plate having a first main surface for receiving the incident light and a second opposing surface for providing the output light, wherein at least one of the first and second surfaces comprises a tessellated surface of tessellated lenses, wherein the tessellated lenses comprise at least five different regions (40a, 40b) of hexagonal lenses wherein within each region all hexagons are regular hexagons of the same size and the same angular orientation with respect to each other, wherein the at least five different regions have a relative rotation angle (θ) between them, of the lenses about a normal to the tessellated surface, with 0 < θ < 30 degrees, said relative rotation angle is a smallest angle between a side of one hexagonal pattern and a most aligned side of the other hexagonal pattern, characterized in that the at least five different regions have random relative angles between said different regions and in that each region comprises at least seven tessellated lenses of a central hexagon and six surrounding hexagons. a plate having a first main surface for receiving the incident light and a second opposing surface for providing the output light, wherein at least one of the first and second surfaces comprises a tessellated surface of tessellated lenses, wherein the tessellated lenses comprise at least five different regions (40a, 40b) of hexagonal lenses wherein within each region all hexagons are regular hexagons of the same size and the same angular orientation with respect to each other, wherein the at least five different regions have a relative rotation angle (θ) between them, of the lenses about a normal to the tessellated surface, with 0 < θ < 30 degrees, said relative rotation angle is a smallest angle between a side of one hexagonal pattern and a most aligned side of the other hexagonal pattern, characterized in that the at least five different regions have random relative angles between said different regions and in that each region comprises at least seven tessellated lenses of a central hexagon and six surrounding hexagons.
Device for tensioning a workpiece for processing in a grinding machine, having a C-shaped yoke which has a back and a first limb and a second limb, which protrude from the yoke rear angled in the same direction, having a ram received rotatably in the first limb and a counter ram received rotatably in the second limb, wherein the ram and the counter ram align coaxially with each other, wherein the ram is able to be driven rotatably in a controlled manner and wherein the ram and the counter ram are moveable relative to each other axially by means of a power source in order to tension the workpiece between the ram and the counter ram using an axial tensioning force, characterised in that the yoke is able to be assembled to be positioned on the grinding machine, such that the axles of the ram and the counter ram align with an axle of the grinding machine which is able to be driven rotatably; the ram is able to be coupled axially to the axle which is able to be driven rotatably; a first clamp is arranged on the yoke and supports the ram axially against the tensioning force using an arm; a second clamp is arranged to be pivotable on the yoke and moves the counter ram axially in a force-loaded manner using an arm; the bearing points (46, 48) of the first clamp and of the second clamp are arranged on the ends of the yoke which are opposite each other in the region of the yoke rear; and the tensioning force is guided via the clamps (42, 44) into the ram and the counter ram.
A bone screw (10;30) for drawing first and second bone fragments (40,42) together, comprising: a shaft (12;32) having a distal section (12a;32a) and a proximal section (12b;32b), the distal section (12a;32a) having a first external male screw thread(14;34) and a minor diameter, the proximal section (12b;32b) having a second external male screw thread (16;36), a major diameter of the distal section (12a;32a) being larger than a major diameter of the proximal section (12b;32b); and a sleeve (18;38) having an open proximal end (18b;38b) and an open distal end (18a;38a) and an internal female screw thread (20;38e) configured to mate with the second male screw thread (16;36), a distal portion (18a;38a) of the sleeve being tapered and having an outer diameter that tapers from being larger than a major diameter of the distal section of the shaft to being smaller than the major diameter of the distal section (12a;32a) of the shaft (12;32), wherein the tapered distal portion (18;38a) of the sleeve is configured to contact a surface of the first bone fragment when the shaft is engaged with the second bone fragment, and wherein the tapered distal portion of the sleeve is smooth. a shaft (12;32) having a distal section (12a;32a) and a proximal section (12b;32b), the distal section (12a;32a) having a first external male screw thread(14;34) and a minor diameter, the proximal section (12b;32b) having a second external male screw thread (16;36), a major diameter of the distal section (12a;32a) being larger than a major diameter of the proximal section (12b;32b); and a sleeve (18;38) having an open proximal end (18b;38b) and an open distal end (18a;38a) and an internal female screw thread (20;38e) configured to mate with the second male screw thread (16;36), a distal portion (18a;38a) of the sleeve being tapered and having an outer diameter that tapers from being larger than a major diameter of the distal section of the shaft to being smaller than the major diameter of the distal section (12a;32a) of the shaft (12;32), wherein the tapered distal portion (18;38a) of the sleeve is configured to contact a surface of the first bone fragment when the shaft is engaged with the second bone fragment, and wherein the tapered distal portion of the sleeve is smooth.
A chocolate-like food product for baking, having a water content of less than 5 wt%, containing 1 to 30 wt% of at least one saccharide selected from the group consisting of glucose, trehalose and palatinose, and having viscosity of 2000 cp or less at 45°C, wherein the chocolate-like food product contains, as the saccharides, anhydrous glucose and/or glucose monohydrate as an essential component, wherein a content of anhydrous glucose or glucose monohydrate or a mixture of both is 1 to 30 wt%.
A mold for making a prophylactic device (100, 600, 800), the mold comprising: a first area shaped to form material into at least a portion of a distal tip of a prophylactic device (100, 600, 800); a second area continuous with the first area shaped to form the material into at least a portion of a tubular body continuous with the distal tip, the tubular body comprising a textured pattern (108, 608, 808) along the tubular body with lines running in at least three directions forming a plurality of shapes with portions of the lines forming edges of the shapes, the textured pattern (108, 608, 808) forming a reinforcing mesh on or in the tubular body; and a third area continuous with the second area shaped to form the material into at least a portion of a proximal base continuous with the tubular body; and characterised in that the lines of the textured pattern form edges of a plurality of the shapes and wherein none of the edges are formed by a continuous line running in a single direction across more than one shape. a first area shaped to form material into at least a portion of a distal tip of a prophylactic device (100, 600, 800); a second area continuous with the first area shaped to form the material into at least a portion of a tubular body continuous with the distal tip, the tubular body comprising a textured pattern (108, 608, 808) along the tubular body with lines running in at least three directions forming a plurality of shapes with portions of the lines forming edges of the shapes, the textured pattern (108, 608, 808) forming a reinforcing mesh on or in the tubular body; and a third area continuous with the second area shaped to form the material into at least a portion of a proximal base continuous with the tubular body; and characterised in that the lines of the textured pattern form edges of a plurality of the shapes and