mhurhangee/ep-ind-claims huggingface dataset:
A surgical access device comprising: a longitudinal axis defining an access channel through the access device from a proximal end to a distal end thereof; an elongate cannula comprising a proximal end and a distal end; and a sealing assembly disposed at the proximal end of the cannula, comprising: a zero seal sealing the access channel in the absence of an instrument extending therethrough; an instrument seal sealing the access channel in the presence of an instrument extending therethrough; and a trocar shield disposed proximally of the zero seal and the instrument seal (1240, 1250) in the sealing assembly, wherein the trocar shield comprises a open proximal end, and a convergent distal end comprising a plurality of longitudinal pleats, terminating in an opening, and further comprising a cap securing the zero seal, the instrument seal, and the trocar shield in a seal housing, wherein the access channel extends through the cap, characterized in that the trocar shield comprises a non-elastomeric material and in that a distal end of the cap extends into and contacts the trocar shield. a longitudinal axis defining an access channel through the access device from a proximal end to a distal end thereof; an elongate cannula comprising a proximal end and a distal end; and a sealing assembly disposed at the proximal end of the cannula, comprising: a zero seal sealing the access channel in the absence of an instrument extending therethrough; an instrument seal sealing the access channel in the presence of an instrument extending therethrough; and a trocar shield disposed proximally of the zero seal and the instrument seal (1240, 1250) in the sealing assembly, wherein the trocar shield comprises a open proximal end, and a convergent distal end comprising a plurality of longitudinal pleats, terminating in an opening, and a zero seal sealing the access channel in the absence of an instrument extending therethrough; an instrument seal sealing the access channel in the presence of an instrument extending therethrough; and a trocar shield disposed proximally of the zero seal and the instrument seal (1240, 1250) in the sealing assembly, wherein the trocar shield comprises a open proximal end, and a convergent distal end comprising a plurality of longitudinal pleats, terminating in an opening, and
A cell observation apparatus comprising a camera imaging cells contained in a culture vessel and a lighting irradiating the cells with inspection light, characterized by comprising: a sterile chamber, an inside of which is maintained in a sterile condition and which contains the culture vessel; and a transparent observation window provided in a bottom portion of the sterile chamber and having the culture vessel placed thereabove, wherein the camera and the lighting are provided below the observation window, and the cells in the culture vessel are imaged through the observation window by setting the focus of the camera to a bottom surface of the culture vessel, the lighting emits the inspection light as spot light to the bottom surface of the culture vessel by emitting light in a shape of a spot where the light is not diffused, wherein an imaging range of the camera is positioned inside an irradiation range of the inspection light on the bottom surface of the culture vessel, and the cell observation apparatus is provided with an angle adjustment mechanism such that an imaging direction of the camera and an irradiation direction of the lighting are set so as not to be at the same angle relative to an axis orthogonal to the bottom surface of the culture vessel. a sterile chamber, an inside of which is maintained in a sterile condition and which contains the culture vessel; and a transparent observation window provided in a bottom portion of the sterile chamber and having the culture vessel placed thereabove, wherein the camera and the lighting are provided below the observation window, and the cells in the culture vessel are imaged through the observation window by setting the focus of the camera to a bottom surface of the culture vessel, the lighting emits the inspection light as spot light to the bottom surface of the culture vessel by emitting light in a shape of a spot where the light is not diffused, wherein an imaging range of the camera is positioned inside an irradiation range of the inspection light on the bottom surface of the culture vessel, and the cell observation apparatus is provided with an angle adjustment mechanism such that an imaging direction of the camera and an irradiation direction of the lighting are set so as not to be at the same angle relative to an axis orthogonal to the bottom surface of the culture vessel.
A perforated metal substrate for exhaust gas purification in which a corrugated foil having holes and a flat foil having holes are laminated and made into a cylindrical form, characterized in that the corrugated foil and/or the flat foil comprises an axially extending perforated portion (11, 21) having holes throughout the axial direction of the cylindrical form and an axially extending non-perforated portion (12, 22) having no holes throughout the axial direction of the cylindrical form.
A method of equipping a vehicle to determine and use at least one vehicle driving characteristic, the method comprising: providing one or more accelerometers in the vehicle, at least one of the one or more accelerometers configured to output accelerometer signals; providing a memory for storing a plurality of accelerometer signals representing vehicle acceleration at different times; providing a processor coupled to said memory and configured to process the plurality of stored accelerometer signals to determine as an output signal a mass of the vehicle based on a difference between at least a portion of the plurality of stored accelerometer signals and a difference between values for the vehicle's drive force that correspond in time with the portion of the plurality of stored accelerometer signals; configuring the processor to determine the mass of the vehicle during vehicle operation by: plotting the portion of the plurality of stored accelerometer signals against the corresponding values for the vehicle's drive force; and determining a line that best fits the plotted signals, the vehicle's mass being a slope of the determined line; and coupling the processor with a vehicle control system to improve vehicle drivetrain performance based on the output signal. providing one or more accelerometers in the vehicle, at least one of the one or more accelerometers configured to output accelerometer signals; providing a memory for storing a plurality of accelerometer signals representing vehicle acceleration at different times; providing a processor coupled to said memory and configured to process the plurality of stored accelerometer signals to determine as an output signal a mass of the vehicle based on a difference between at least a portion of the plurality of stored accelerometer signals and a difference between values for the vehicle's drive force that correspond in time with the portion of the plurality of stored accelerometer signals; configuring the processor to determine the mass of the vehicle during vehicle operation by: plotting the portion of the plurality of stored accelerometer signals against the corresponding values for the vehicle's drive force; and determining a line that best fits the plotted signals, the vehicle's mass being a slope of the determined line; and plotting the portion of the plurality of stored accelerometer signals against the corresponding values for the vehicle's drive force; and determining a line that best fits the plotted signals, the vehicle's mass being a slope of the determined line; and coupling the processor with a vehicle control system to improve vehicle drivetrain performance based on the output signal.
Cooking appliance comprising: - a vessel having a bottom, an upper opening facing the bottom and a side wall extending from the bottom to the upper opening, - a stirring obstacle mounted on the side wall, - a movable stirring blade intended to stir food disposed in the vessel, the cooking appliance being characterised by: - a fixed guiding element extending substantially over the perimeter of the upper opening along a closed route, - an engagement element secured to the stirring blade and connecting the stirring blade to the guiding element, the engagement element being configured to be guided along the closed route, the closed route being shaped to enable the movement of the stirring blade facing and in the proximity of a first part of the side wall, and to enable the movement of the stirring blade facing and at a distance from a second part of the side wall, so as to avoid the stirring obstacle, the stirring obstacle being disposed on the second part of the side wall. - a vessel having a bottom, an upper opening facing the bottom and a side wall extending from the bottom to the upper opening, - a stirring obstacle mounted on the side wall, - a movable stirring blade intended to stir food disposed in the vessel, the cooking appliance being characterised by: - a fixed guiding element extending substantially over the perimeter of the upper opening along a closed route, - an engagement element secured to the stirring blade and connecting the stirring blade to the guiding element, the engagement element being configured to be guided along the closed route, the closed route being shaped to enable the movement of the stirring blade facing and in the proximity of a first part of the side wall, and to enable the movement of the stirring blade facing and at a distance from a second part of the side wall, so as to avoid the stirring obstacle, the stirring obstacle being disposed on the second part of the side wall. - a fixed guiding element extending substantially over the perimeter of the upper opening along a closed route, - an engagement element secured to the stirring blade and connecting the stirring blade to the guiding element, the engagement element being configured to be guided along the closed route, the closed route being shaped to enable the movement of the stirring blade facing and in the proximity of a first part of the side wall, and to enable the movement of the stirring blade facing and at a distance from a second part of the side wall, so as to avoid the stirring obstacle, the stirring obstacle being disposed on the second part of the side wall.
A method, comprising: capturing, by at least one computing device, an image of a textile sheet, the image including a textile panel on the textile sheet; instructing, by the at least one computing device, a textile cutter to cut the textile panel out from the textile sheet; identifying, by the at least one computing device, the textile panel on a tabletop of the textile cutter; estimating, by the at least one computing device, at least one of a weight or a size of the textile panel based at least in part on a panel cutout boundary of the textile panel; determining, by the at least one computing device, a pickup location for automated picking of the textile panel based at least in part on a characteristic of the textile panel; calculating, by the at least one computing device, a level of evacuation to pull the textile panel through a flexible pneumatic transport tube and into a textile hopper based at least in part on the characteristic of the textile panel; and directing, by the at least one computing device, the flexible pneumatic transport tube to the pickup location, the flexible pneumatic transport tube configured to pick the textile panel off the tabletop using suction; wherein the characteristic of the textile panel comprises at least one of a weight or a size of the textile panel. capturing, by at least one computing device, an image of a textile sheet, the image including a textile panel on the textile sheet; instructing, by the at least one computing device, a textile cutter to cut the textile panel out from the textile sheet; identifying, by the at least one computing device, the textile panel on a tabletop of the textile cutter; estimating, by the at least one computing device, at least one of a weight or a size of the textile panel based at least in part on a panel cutout boundary of the textile panel; determining, by the at least one computing device, a pickup location for automated picking of the textile panel based at least in part on a characteristic of the textile panel; calculating, by the at least one computing device, a level of evacuation to pull the textile panel through a flexible pneumatic transport tube and into a textile hopper based at least in part on the characteristic of the textile panel; and directing, by the at least one computing device, the flexible pneumatic transport tube to the pickup location, the flexible pneumatic transport tube configured to pick the textile panel off the tabletop using suction; wherein the characteristic of the textile panel comprises at least one of a weight or a size of the textile panel.
Infiltration and transport sewer, comprising at least one horizontal conduit part provided with perforations and at least one vertical conduit part, wherein the vertical conduit part is provided with an inlet part placed on the upper outer end of it, which inlet part is formed by a vertically extending elongate sleeve which can be coupled at its lower end to the vertical conduit part, characterized in that said vertically extending elongate sleeve is as least partially provided with perforations.
A chemical mechanical polishing slurry composition comprising: abrasive particles; a dispersant; an ionic polymer additive; and a non-ionic polymer additive comprising a polyolefin-polyethylene glycol copolymer including at least two polyethylene glycol repeat units where at least one of the repeat units is a side chain. abrasive particles; a dispersant; an ionic polymer additive; and a non-ionic polymer additive comprising a polyolefin-polyethylene glycol copolymer including at least two polyethylene glycol repeat units where at least one of the repeat units is a side chain.
A forged steel for components for nuclear power plants, comprising: C in a content of from 0.15% to 0.24%; Si in a content of from 0.15% to 0.30%; Mn in a content of from 1.0% to 1.6%; P in a content of from greater than 0% to 0.015%; S in a content of from greater than 0% to 0.0015%; Cu in a content of from 0% to 0.10%; Ni in a content of from 0.70% to 1.10%; Cr in a content of from 0.05% to 0.30%; Mo in a content of from 0.40% to 0.60%; V in a content of from 0% to 0.05%; Al in a content of from 0.015% to 0.030%; O in a content of from greater than 0% to 0.0030%; N in a content of from 0.0050% to 0.0150%, optionally further comprising at least one element selected from the group consisting of Nb in a content of from 0.005% to 0.050%; Ti in a content of from 0.005% to 0.030%; B in a content of from 0.0005% to 0.0050%; and Ca in a content of from 0.0005% to 0.0050%, in mass percent, wherein: the forged steel further comprises iron and inevitable impurities; and a metal structure of the forged steel has a grain size in terms of ASTM grain size number of from 4.5 to 7.0. C in a content of from 0.15% to 0.24%; Si in a content of from 0.15% to 0.30%; Mn in a content of from 1.0% to 1.6%; P in a content of from greater than 0% to 0.015%; S in a content of from greater than 0% to 0.0015%; Cu in a content of from 0% to 0.10%; Ni in a content of from 0.70% to 1.10%; Cr in a content of from 0.05% to 0.30%; Mo in a content of from 0.40% to 0.60%; V in a content of from 0% to 0.05%; Al in a content of from 0.015% to 0.030%; O in a content of from greater than 0% to 0.0030%; N in a content of from 0.0050% to 0.0150%, Nb in a content of from 0.005% to 0.050%; Ti in a content of from 0.005% to 0.030%; B in a content of from 0.0005% to 0.0050%; and Ca in a content of from 0.0005% to 0.0050%, the forged steel further comprises iron and inevitable impurities; and a metal structure of the forged steel has a grain size in terms of ASTM grain size number of from 4.5 to 7.0.
A universal adapter for receiving and supporting fittings, such as kitchen fittings or bathroom fittings, for controlling the inflow of water, which include a threaded connector for fastening to objects, the universal adapter including a first cylindrical section in the form of an outer sleeve with an outwardly projecting collar on one end region for fastening to the passage hole in a mounting plate for the fitting, such as a kitchen worktop, further having a second cylindrical section in the form of an inner sleeve with a second outwardly projecting collar on one end region, wherein the outer diameter of the inner sleeve is slightly smaller than the inner diameter of the outer sleeve and the inner sleeve is insertable into the outer sleeve until the collar on the inner sleeve engages the collar on the outer sleeve, wherein the region of the outer sleeve engaging through the passage hole in the mounting plate for the fitting has an external screw thread for a first fastening means and the fitting is fastenable to the inner sleeve by means of screwing its threaded connector into an internal screw thread formed on the inner sleeve, characterised in that the inner diameter of the collar on the outer sleeve is slightly larger than the outer diameter of the collar on the inner sleeve so that the collar on the inner sleeve may be inserted precisely into the collar on the outer sleeve.
Gripping or clamping device having a main housing, and having two main jaws which can be moved toward and away from each other, wherein the main jaws are movement-coupled to two working pistons that each delimit a working pressure chamber (50, 52), wherein the working pistons each have a coupling portion, and wherein a coupling member is provided which is movement-coupled to the coupling portions and arranged to rotate about a rotation axis, wherein the coupling member realizes a synchronous movement of the two main jaws, wherein the coupling member has a connecting portion for connection to a functional mechanism, wherein the free end of the coupling member forms the connecting portion for the movement-coupling of the coupling member to the functional mechanism, wherein the main housing has an opening such that the connecting portion is accessible from outside the main housing and wherein the main housing has a receptacle for the coupling member such that the coupling member is arranged replaceably on or in the main housing.
A drive shaft comprising: a telescopic shaft comprising: an axis (A-A); an outer tubular shaft, comprising a first end and a second end; an inner tubular shaft inserted slidable into the outer shaft and comprising a first end and a second end; wherein the outer shaft and the inner shaft are torsionally coupled through grooved profiles; a lubrication system comprising: a lubricant receiving chamber housed in the inner shaft; a lubricant distribution block housed in the inner shaft; lubricant supply ports (11.9) for supplying lubricant from the lubricant distribution block, through a tubular wall of the inner shaft, towards a gap between the inner shaft and the outer shaft; at least a lubricant transferring duct (47.1; 47.2) from the receiving chamber to the distribution block; characterized in that: the supplying ports (11.9) are distributed in at least two positions offset in direction of the axis (A-A) of the telescopic shaft; the tubular wall of the inner shaft is so shaped as to form a plurality of outer longitudinal projections (11.1) extending parallel to the axis (A-A) of the telescopic shaft and slidably engaged in corresponding grooves on the inner surface of the outer shaft; and the distribution block comprises a plurality of lubricating ducts (41.5, 41.6), directed along the longitudinal extension of the telescopic shaft, wherein each lubricating duct (41.5, 41.6) is fluidly connected to at least two supply ports (11.9) offset in the direction of the axis of the telescopic shaft. a telescopic shaft comprising: an axis (A-A); an outer tubular shaft, comprising a first end and a second end; an inner tubular shaft inserted slidable into the outer shaft and comprising a first end and a second end; wherein the outer shaft and the inner shaft are torsionally coupled through grooved profiles; a lubrication system comprising: a lubricant receiving chamber housed in the inner shaft; a lubricant distribution block housed in the inner shaft; lubricant supply ports (11.9) for supplying lubricant from the lubricant distribution block, through a tubular wall of the inner shaft, towards a gap between the inner shaft and the outer shaft; at least a lubricant transferring duct (47.1; 47.2) from the receiving chamber to the distribution block; characterized in that: the supplying ports (11.9) are distributed in at least two positions offset in direction of the axis (A-A) of the telescopic shaft; the tubular wall of the inner shaft is so shaped as to form a plurality of outer longitudinal projections (11.1) extending parallel to the axis (A-A) of the telescopic shaft and slidably engaged in corresponding grooves on the inner surface of the outer shaft; and the distribution block comprises a plurality of lubricating ducts (41.5, 41.6), directed along the longitudinal extension of the telescopic shaft, wherein each lubricating duct (41.5, 41.6) is fluidly connected to at least two supply ports (11.9) offset in the direction of the axis of the telescopic shaft.
A method of wireless communications by a user equipment LTE, comprising: obtaining, via a physical broadcast channel, PBCH, a signal comprising configuration information for a plurality of windows for transmission of one or more system information, SI, grant transmissions, wherein: each SI grant transmission of the one or more SI grant transmissions corresponds to a different synchronization signal, SS, block of a plurality of SS blocks; each different SS block of the plurality of SS blocks corresponds to a different window of the plurality of windows; and the one or more SI grant transmissions comprise remaining minimum system information, RMSI, block grant transmissions; and monitoring for one or more SI grant transmissions within one or more of the plurality of windows in accordance with the configuration information. each SI grant transmission of the one or more SI grant transmissions corresponds to a different synchronization signal, SS, block of a plurality of SS blocks; each different SS block of the plurality of SS blocks corresponds to a different window of the plurality of windows; and the one or more SI grant transmissions comprise remaining minimum system information, RMSI, block grant transmissions; and
A stage for cutting process, comprising: a support substrate; a driving unit disposed on the support substrate, wherein the driving unit is configured to drive the support substrate to rotate around a first direction in a board surface of the support substrate so as to remove foreign matters on the support substrate, characterized by a carrier plate disposed on the support substrate; and a conveyor belt disposed on the support substrate, wherein the conveyor belt is configured to convey the carrier plate. a support substrate; a driving unit disposed on the support substrate, wherein the driving unit is configured to drive the support substrate to rotate around a first direction in a board surface of the support substrate so as to remove foreign matters on the support substrate, characterized by a carrier plate disposed on the support substrate; and a conveyor belt disposed on the support substrate, wherein the conveyor belt is configured to convey the carrier plate.