mhurhangee/ep-ind-claims huggingface dataset:
A method of feeding back channel information to coordinated cells, comprising: measuring channel quality of downlink channels between the coordinated cells and a user equipment; classifying the coordinated cells into different coordinated cell classes based on a measurement result of the channel quality; selecting, based on different channel quality intervals corresponding to the different coordinated cell classes, channel information feedback modes with different levels of feedback enhancement for the different coordinated cell classes, respectively and selecting a channel information feedback mode with a higher level of feedback enhancement for a coordinated cell class corresponding to a channel quality interval with higher channel quality, while selecting a channel information feedback mode with a lower level of feedback enhancement for a coordinated cell class corresponding to a channel quality interval with lower channel quality; and determining channel information to be fed back to coordinated cells in respective coordinated cell classes in a predetermined order with use of the selected channel information feedback modes with different levels of feedback enhancement, and transmitting the determined channel information to the coordinated cells. measuring channel quality of downlink channels between the coordinated cells and a user equipment; classifying the coordinated cells into different coordinated cell classes based on a measurement result of the channel quality; selecting, based on different channel quality intervals corresponding to the different coordinated cell classes, channel information feedback modes with different levels of feedback enhancement for the different coordinated cell classes, respectively and selecting a channel information feedback mode with a higher level of feedback enhancement for a coordinated cell class corresponding to a channel quality interval with higher channel quality, while selecting a channel information feedback mode with a lower level of feedback enhancement for a coordinated cell class corresponding to a channel quality interval with lower channel quality; and determining channel information to be fed back to coordinated cells in respective coordinated cell classes in a predetermined order with use of the selected channel information feedback modes with different levels of feedback enhancement, and transmitting the determined channel information to the coordinated cells.
A rotor for an electric machine, wherein the rotor comprises: a central shaft; a rotor drum arranged radially outward of the central shaft, wherein the rotor drum comprises a hollow cylinder for carrying permanent magnets on an inner and/or outer surface of the hollow cylinder, and wherein the rotor drum is coaxial with both the central shaft and a rotational axis of the rotor; a first cap (30, 37) arranged to couple the central shaft to the rotor drum to enable the rotor drum and central shaft to rotate together about the rotational axis; and a second cap (30, 38) arranged to couple the central shaft to the rotor drum, and wherein the second cap (30, 38) is offset from the first cap (30, 37) along the rotational axis of the rotor; wherein the inner portion of the first cap (30, 37) is coupled to the central shaft at a first position along the length of the rotational axis, and the outer portion of the first cap (30, 37) is coupled to the rotor drum at a second position along the length of the rotational axis; wherein the first position is at a different length along the rotational axis to the second position; wherein the outer diameter of the central shaft varies along the length of the central shaft; and wherein the inner diameter of the first cap (30, 37) is different to the inner diameter of the second cap (30, 38). a central shaft; a rotor drum arranged radially outward of the central shaft, wherein the rotor drum comprises a hollow cylinder for carrying permanent magnets on an inner and/or outer surface of the hollow cylinder, and wherein the rotor drum is coaxial with both the central shaft and a rotational axis of the rotor; a first cap (30, 37) arranged to couple the central shaft to the rotor drum to enable the rotor drum and central shaft to rotate together about the rotational axis; and a second cap (30, 38) arranged to couple the central shaft to the rotor drum, and wherein the second cap (30, 38) is offset from the first cap (30, 37) along the rotational axis of the rotor; wherein the inner portion of the first cap (30, 37) is coupled to the central shaft at a first position along the length of the rotational axis, and the outer portion of the first cap (30, 37) is coupled to the rotor drum at a second position along the length of the rotational axis; wherein the first position is at a different length along the rotational axis to the second position; wherein the outer diameter of the central shaft varies along the length of the central shaft; and wherein the inner diameter of the first cap (30, 37) is different to the inner diameter of the second cap (30, 38).
A stent for placement in a bifurcated body lumen, said stent comprising: a main tubular body comprised of serpentine rings (112; 208) of joined struts and hinges, the body having a first end, a second end, and a side opening (102; 202) between said ends, wherein the struts and hinges of the serpentine rings (112; 208) of a first portion (110; 204) of the main tubular body between the first end and the side opening define a repeating geometric pattern, the struts and hinges of the serpentine rings (122; 210) of a second portion (120; 206) of the main tubular body between the side opening (102; 202) and the second end define a repeating geometric pattern, characterized in that the repeating geometric pattern of the first portion (110; 204) is different than the repeating geometric pattern of the second portion (120; 206), and the first portion (110; 204) has a first axial spine (130; 220) and the second portion (120; 206) has a second axial spine (132; 230), wherein the first axial spine (130; 220) opens circumfcrcntially to a first force and the second axial spine (132; 230) opens circumferentially in response to a second force, wherein the first force is less than the second force. a main tubular body comprised of serpentine rings (112; 208) of joined struts and hinges, the body having a first end, a second end, and a side opening (102; 202) between said ends, wherein the struts and hinges of the serpentine rings (112; 208) of a first portion (110; 204) of the main tubular body between the first end and the side opening define a repeating geometric pattern, the struts and hinges of the serpentine rings (122; 210) of a second portion (120; 206) of the main tubular body between the side opening (102; 202) and the second end define a repeating geometric pattern, characterized in that the repeating geometric pattern of the first portion (110; 204) is different than the repeating geometric pattern of the second portion (120; 206), and the first portion (110; 204) has a first axial spine (130; 220) and the second portion (120; 206) has a second axial spine (132; 230), wherein the first axial spine (130; 220) opens circumfcrcntially to a first force and the second axial spine (132; 230) opens circumferentially in response to a second force, wherein the first force is less than the second force.
A curable composition comprising: (i) a cyanoacrylate component; and, (ii) a thermoplastic polyurethane component, wherein the TPU component (ii) has a mass average molar mass Mw from 5000 to 250000, such as from 6000 to 200000, suitably from 10000 to 150000; wherein said TPU component (ii) is soluble at a temperature of 65°C in the cyanoacrylate component up to at least 40% by weight based on the total weight of the cyanoacrylate component; wherein said TPU component (ii) is based on a polyol that is based on at least one of a diol or a dicarboxylic acid characterised in that at least one of said diol or dicarboxylic acid has greater than 10 carbon atoms (>C 10) in the main chain; wherein the TPU component (ii) has a glass transition temperature of from -60°C to 0°C, and a melting point of from 30°C to 100°C as measured by differential scanning calorimetry in accordance with IS011357; wherein the TPU component (ii) is present in the curable composition in an amount from 1 wt% to 60 wt%, wherein the weight percentages are based on the total weight of the composition; wherein the curable cyanoacrylate component (i) is selected from the group comprising ethyl cyanoacrylate, butyl cyanoacrylate, β-methoxy cyanoacrylate and combinations thereof; and wherein the curable composition is solidified in a desired geometric form, for example stick-form, particularly a cylindrically shaped stick. (i) a cyanoacrylate component; and, (ii) a thermoplastic polyurethane component,
A pharmaceutical dosage form having a first and second active drug, said dosage form comprising: (a) a controlled release core comprising metformin hydrochloride as an antihyperglycemic drug and at least one pharmaceutically acceptable excipient; and (b) an immediate release pioglitazone containing component which is applied in the form of a layer to the core, wherein not less than 90%, of the pioglitazone is released from the dosage form within 30 minutes when tested according to the United States Pharmacopeia 26, with Apparatus 1 at 100 rpm, 37 °C and 900 ml of 0.3 M KCl-HCl Buffer, pH 2.0, wherein the core comprises 50-98% metformin hydrochloride, 0.1-40% binder, 0-20% absorption enhancer and 0-5% lubricant; a coating comprising 50-99% polymer 0-40% flux enhancer 0-25% plasticizer wherein the immediate release pioglitazone containing component comprises 0.1-20% pioglitazone, 0.1-30% binder, 0% surfactant, 0-25% pore former, 0-30% polymer, wherein the total pioglitazone related compounds or impurities in the final dosage form are not more than 0.6 % as determined by high performance liquid chromatography; wherein each individual pioglitazone related compound or impurity in the final dosage form is not more than 0.25%, wherein the pioglitazone related compounds and impurities are (i) (+/-)-5-[p-[2-(5-ethyl-2-pyridyl)ethoxy]benzyl]-5-hydroxy-2,4-thiazolidinedione; (ii) (z)-5-[p-[2-(5-ethyl-2-pyridyl)ethoxy]benzylidene]-2,4-thiazolidinedione; (iii) (+/-)-5-[p-[2-(5-ethyl-2-pyridyl)ethoxy]benzyl]-3-[2-(5-ethyl-2-pyridyl)ethyl]-2, 4-thiazolidinedione; (iv) (+/-)-ethyl-2-carbamoyltio-3-[4-[2-(5-ethyl-2-pyridyl)ethoxy]phenyl-]propionate; (v) ethyl-3-p-[2-(5-ethyl-2-pyridyl)ethoxy]phenyl-propionate. (a) a controlled release core comprising metformin hydrochloride as an antihyperglycemic drug and at least one pharmaceutically acceptable excipient; and (b) an immediate release pioglitazone containing component which is applied in the form of a layer to the core, (i) (+/-)-5-[p-[2-(5-ethyl-2-pyridyl)ethoxy]benzyl]-5-hydroxy-2,4-thiazolidinedione; (ii) (z)-5-[p-[2-(5-ethyl-2-pyridyl)ethoxy]benzylidene]-2,4-thiazolidinedione; (iii) (+/-)-5-[p-[2-(5-ethyl-2-pyridyl)ethoxy]benzyl]-3-[2-(5-ethyl-2-pyridyl)ethyl]-2, 4-thiazolidinedione; (iv) (+/-)-ethyl-2-carbamoyltio-3-[4-[2-(5-ethyl-2-pyridyl)ethoxy]phenyl-]propionate; (v) ethyl-3-p-[2-(5-ethyl-2-pyridyl)ethoxy]phenyl-propionate.
Household refrigerator having a thermally insulated inner container, which has two opposing side walls (3a, 3b), which laterally delimit a storage compartment for refrigerated goods, and at least one lower shelf arranged in the storage compartment between the two opposing sides walls (3a, 3b), which forms a storage area for the refrigerated goods, which is delimited by at least one edge section (14, 14a-14d) of the lower shelf and having a holding device surrounding the at least one edge section (14, 14a-14d) for the suspended storage of further refrigerated goods below the lower shelf, wherein the holding device is embodied to store, in a pull-out manner, below the lower shelf on the holding device, a refrigerated goods carrier which can be removed from the storage compartment and is embodied to receive the further refrigerated goods, wherein the holding device has at least one pair of rails (17.1, 17.2) arranged at a distance from one another and aligned parallel to one another, which, for the purpose of storage, in a pull-out manner, of the refrigerated goods carrier on the rails (17.1, 17.2) below the lower shelf extends parallel to the side walls (3a, 3b) of the inner container, wherein the holding device has a rear holding strip surrounding the lower shelf on its rear edge section facing the rear wall of the inner container and a front holding strip surrounding the lower shelf on its front edge section facing the door leaf of the household refrigerator, and the two rails (17.1, 17.2) are each held in a form-fit manner with their rear ends on the rear holding strip and with their front ends on the front holding strip, and wherein the rail (17.1, 17.2) has a hook section on its front end, which in a latching position of the rail (17.1, 17.2) surrounds the front holding strip in a form-fit manner, characterised in that in the region of the hook section the rail (17.1, 17.2) has a catch spring, which is embodied to engage behind a latching projection of the front holding strip in a latching position of the rail (17.1, 17.2), wherein the catch spring is connected to a handle section, which is embodied to manually detach the catch spring from the latching projection.
Method for producing a coated pull-out guide, in particular for baking ovens, comprising a rail on which at least one further rail (3, 4) is displaceably supported by means of rolling elements, wherein the rolling elements are guided along tracks (8, 9) on the rails (2, 3, 4), characterized by the following steps: i) at first assembling the pull-out guide into a unit; ii) subsequently cleaning a metal surface of at least one rail (2, 3, 4) of the pull-out guide by a mechanical and/or chemical cleaning method; and iii) subsequently applying a coating to the cleaned metal surface. i) at first assembling the pull-out guide into a unit; ii) subsequently cleaning a metal surface of at least one rail (2, 3, 4) of the pull-out guide by a mechanical and/or chemical cleaning method; and iii) subsequently applying a coating to the cleaned metal surface.
A protective case for a handheld mobile electronic device comprising: a first portion creating an exterior hard shell, including a fitted cavity formed therein for mounting the handheld mobile electronic device to the protective case; a second portion, permanently affixed to the fitted cavity formed therein of the first portion; said first portion comprising a protective outer layer composed of a hardened plastic; and said second portion comprising an elastomeric liner formed and permanently affixed on the interior of the exterior hard shell first portion, characterized in that the second portion further comprises a detent for mounting the handheld mobile electronic device to the protective case. a first portion creating an exterior hard shell, including a fitted cavity formed therein for mounting the handheld mobile electronic device to the protective case; a second portion, permanently affixed to the fitted cavity formed therein of the first portion; said first portion comprising a protective outer layer composed of a hardened plastic; and said second portion comprising an elastomeric liner formed and permanently affixed on the interior of the exterior hard shell first portion, characterized in that the second portion further comprises a detent for mounting the handheld mobile electronic device to the protective case.
A self-calibrating sensor system, comprising: one or more sensors supportively disposed on or proximate to a wall defining one or more apertures, each of the one or more sensors being configured to track individuals proximate to at least one of the one or more apertures; characterized by a processor configured to: create trajectories for the tracked individuals; recognize choke points proximate to any of the one or more apertures using the created trajectories; generate by using the recognized choke points geometrical parameters of the one or more apertures to derive a center-point of each of the one or more apertures; and determine one or more of a location and an orientation of each of the one or more sensors relative to the center-point of the at least one of the one or more apertures. one or more sensors supportively disposed on or proximate to a wall defining one or more apertures, each of the one or more sensors being configured to track individuals proximate to at least one of the one or more apertures; characterized by a processor configured to: create trajectories for the tracked individuals; recognize choke points proximate to any of the one or more apertures using the created trajectories; generate by using the recognized choke points geometrical parameters of the one or more apertures to derive a center-point of each of the one or more apertures; and determine one or more of a location and an orientation of each of the one or more sensors relative to the center-point of the at least one of the one or more apertures. create trajectories for the tracked individuals; recognize choke points proximate to any of the one or more apertures using the created trajectories; generate by using the recognized choke points geometrical parameters of the one or more apertures to derive a center-point of each of the one or more apertures; and determine one or more of a location and an orientation of each of the one or more sensors relative to the center-point of the at least one of the one or more apertures.
A method for detecting a yarn end on a rotating bobbin in a textile machine producing or processing yarn after the interruption of winding of the yarn onto the bobbin due to a yarn breakage, wherein after the yarn breakage the rotating bobbin is approached by a suction nozzle, into which the yarn end is sucked from the rotating bobbin, the method is characterized in that • a bar and a movable means having a carrier surface approach the surface of the package on the bobbin, wherein the carrier surface is moving in a direction opposite to the direction of the movement of the surface of the package on the bobbin; • whereupon the yarn end is captured and withdrawn from the bobbin by the movement of the movable means, wherein the yarn is drawn within a space between the movable means and the bar; and • the yarn end is carried to the suction nozzle, into which it is subsequently sucked by the stream of the sucked-in air in the direction away from the movable means to a defined position in the suction nozzle for further operation; and • the movable means is perforated and air is sucked through the movable means to capture the yarn end and withdraw it from the bobbin. • a bar and a movable means having a carrier surface approach the surface of the package on the bobbin, wherein the carrier surface is moving in a direction opposite to the direction of the movement of the surface of the package on the bobbin; • whereupon the yarn end is captured and withdrawn from the bobbin by the movement of the movable means, wherein the yarn is drawn within a space between the movable means and the bar; and • the yarn end is carried to the suction nozzle, into which it is subsequently sucked by the stream of the sucked-in air in the direction away from the movable means to a defined position in the suction nozzle for further operation; and • the movable means is perforated and air is sucked through the movable means to capture the yarn end and withdraw it from the bobbin.
A camera assembly, comprising: a lens holder, defining a light transmission channel; a lens, disposed in the lens holder; a circuit board; a camera sensor, disposed on the circuit board and corresponding to the lens via the light transmission channel; and an ambient light sensor, electrically connected to the circuit board and disposed on the lens holder; wherein ambient light is transmitted through the lens and the light transmission channel, and further incident into the camera sensor and the ambient light sensor; characterized in that, the lens holder comprises an inner wall forming the light transmission channel; a chamfer is formed at one end of the inner wall that is adjacent to the lens, and the ambient light sensor is attached to the chamfer. a lens holder, defining a light transmission channel; a lens, disposed in the lens holder; a circuit board; a camera sensor, disposed on the circuit board and corresponding to the lens via the light transmission channel; and an ambient light sensor, electrically connected to the circuit board and disposed on the lens holder; wherein ambient light is transmitted through the lens and the light transmission channel, and further incident into the camera sensor and the ambient light sensor; characterized in that, the lens holder comprises an inner wall forming the light transmission channel; a chamfer is formed at one end of the inner wall that is adjacent to the lens, and the ambient light sensor is attached to the chamfer.
An impact tool comprising: a shaft adapted to rotate about an axis, the shaft having a first helical groove; a hammer having a second helical groove and a hammer jaw with an obtuse impact surface; a ball received in the first and second helical grooves (50, 52), wherein the ball rotationally couples the hammer to the shaft and permits axial travel of the hammer relative to the shaft; and an anvil having an anvil jaw with an acute impact surface, wherein the obtuse impact surface of the hammer jaw is adapted to impact the acute impact surface of the anvil jaw when the shaft rotates in a first direction; characterized in that: the hammer jaw includes a forward impact face having a hammer lug extending outwardly from the forward impact face; the anvil jaw includes a central section and an anvil lug extending outwardly from the central section that form a rearward impact face, the acute impact surface being disposed at an acute angle with respect to the rearward impact face; and the obtuse impact surface forms an edge of the hammer lug and the obtuse impact surface is disposed at an obtuse angle with respect to the forward impact face. a shaft adapted to rotate about an axis, the shaft having a first helical groove; a hammer having a second helical groove and a hammer jaw with an obtuse impact surface; a ball received in the first and second helical grooves (50, 52), wherein the ball rotationally couples the hammer to the shaft and permits axial travel of the hammer relative to the shaft; and an anvil having an anvil jaw with an acute impact surface, wherein the obtuse impact surface of the hammer jaw is adapted to impact the acute impact surface of the anvil jaw when the shaft rotates in a first direction; characterized in that: the hammer jaw includes a forward impact face having a hammer lug extending outwardly from the forward impact face; the anvil jaw includes a central section and an anvil lug extending outwardly from the central section that form a rearward impact face, the acute impact surface being disposed at an acute angle with respect to the rearward impact face; and the obtuse impact surface forms an edge of the hammer lug and the obtuse impact surface is disposed at an obtuse angle with respect to the forward impact face. the hammer jaw includes a forward impact face having a hammer lug extending outwardly from the forward impact face; the anvil jaw includes a central section and an anvil lug extending outwardly from the central section that form a rearward impact face, the acute impact surface being disposed at an acute angle with respect to the rearward impact face; and the obtuse impact surface forms an edge of the hammer lug and the obtuse impact surface is disposed at an obtuse angle with respect to the forward impact face.