mhurhangee/ep-ind-claims huggingface dataset:
An ejector (100, 200) for generating a vacuum comprising: a drive nozzle (120, 220) for generating a drive jet of drive fluid from a pressurized fluid source and directing said drive jet of drive fluid into an outlet flow passage (132, 232) at the outlet of a drive stage (100A, 200A) of the ejector in order to entrain air or other medium in a volume surrounding said jet of drive fluid into the jet flow to generate a vacuum across said drive stage, wherein said drive nozzle substantially consists of an inlet flow section and an outlet flow section aligned in a direction of fluid flow through the nozzle, the outlet flow section diverging in the direction of fluid flow, from an outlet end of the inlet flow section substantially to an exit of the nozzle, the outlet flow section having a shape which is more divergent near the outlet of the inlet flow section and less divergent near the exit of the nozzle, wherein, excepting that the inlet to the inlet flow section may be provided with a chamfered, rounded or radiused edge, the inlet flow section is of constant cross-sectional area as viewed in the direction of fluid flow through the drive nozzle, and wherein the cross-sectional shape of the outlet flow section, when viewed perpendicular to the direction of fluid flow though the nozzle, includes a smooth curve progressing from a most divergent angle at the outlet end of the inlet section to a least divergent angle substantially at the exit of the drive nozzle. a drive nozzle (120, 220) for generating a drive jet of drive fluid from a pressurized fluid source and directing said drive jet of drive fluid into an outlet flow passage (132, 232) at the outlet of a drive stage (100A, 200A) of the ejector in order to entrain air or other medium in a volume surrounding said jet of drive fluid into the jet flow to generate a vacuum across said drive stage, wherein said drive nozzle substantially consists of an inlet flow section and an outlet flow section aligned in a direction of fluid flow through the nozzle, the outlet flow section diverging in the direction of fluid flow, from an outlet end of the inlet flow section substantially to an exit of the nozzle, the outlet flow section having a shape which is more divergent near the outlet of the inlet flow section and less divergent near the exit of the nozzle, wherein, excepting that the inlet to the inlet flow section may be provided with a chamfered, rounded or radiused edge, the inlet flow section is of constant cross-sectional area as viewed in the direction of fluid flow through the drive nozzle, and wherein the cross-sectional shape of the outlet flow section, when viewed perpendicular to the direction of fluid flow though the nozzle, includes a smooth curve progressing from a most divergent angle at the outlet end of the inlet section to a least divergent angle substantially at the exit of the drive nozzle.
A method for manufacturing carbonized particles or agglomerates, wherein said method is continuous or semi-continuous, and wherein said carbonized particles or agglomerates preferably are in the form of a carbon powder, most preferred also electrically conductive, comprising the following steps: a) providing a dried raw material in powder form emanating from a ligno-cellulosic material, preferably lignin, and suspending and/or diluting said raw material in a fluidic medium, wherein the fluidic medium is an inert gas or an inert gas mixture, and b) carbonization of the raw material in said fluidic medium, wherein the carbonization comprises conveying the raw material in the fluidic medium into and through a hot chamber, preferably a furnace system, and continuously thermally treating said raw material in the fluidic medium, at a temperature range of from 900 to 1800 °C, during a time period of from one millisecond up to a quarter of an hour thus providing one or more carbonized particles or agglomerates, preferably in the form of a carbon powder. a) providing a dried raw material in powder form emanating from a ligno-cellulosic material, preferably lignin, and suspending and/or diluting said raw material in a fluidic medium, wherein the fluidic medium is an inert gas or an inert gas mixture, and b) carbonization of the raw material in said fluidic medium, wherein the carbonization comprises conveying the raw material in the fluidic medium into and through a hot chamber, preferably a furnace system, and continuously thermally treating said raw material in the fluidic medium, at a temperature range of from 900 to 1800 °C, during a time period of from one millisecond up to a quarter of an hour thus providing one or more carbonized particles or agglomerates, preferably in the form of a carbon powder.
A work vehicle, comprising: a vehicle body that includes an opening portion communicating between inside and outside; and a movable portion that is rotatably supported to the vehicle body between a closed position at which the opening portion is closed and an open position at which the opening portion is open, characterized by a position adjustment portion (200, 300) that is configured to adjust a vertical position of the movable portion when the movable portion is at the closed position, wherein the position adjustment portion (200, 300) includes a first plate (210, 310) that is provided on the vehicle body and includes a first through portion (214, 314) which vertically penetrates, a second plate (230, 330) that is provided on the movable portion and includes a second through portion (234, 334) which vertically penetrates the second plate (230, 330) and communicates with the first through portion (214, 314) from below when the movable portion is at the closed position, and an adjustment bolt that includes a shaft portion inserted into the first through portion (214, 314) and the second through portion (234, 334). a vehicle body that includes an opening portion communicating between inside and outside; and a movable portion that is rotatably supported to the vehicle body between a closed position at which the opening portion is closed and an open position at which the opening portion is open, characterized by a position adjustment portion (200, 300) that is configured to adjust a vertical position of the movable portion when the movable portion is at the closed position, wherein the position adjustment portion (200, 300) includes a first plate (210, 310) that is provided on the vehicle body and includes a first through portion (214, 314) which vertically penetrates, a second plate (230, 330) that is provided on the movable portion and includes a second through portion (234, 334) which vertically penetrates the second plate (230, 330) and communicates with the first through portion (214, 314) from below when the movable portion is at the closed position, and an adjustment bolt that includes a shaft portion inserted into the first through portion (214, 314) and the second through portion (234, 334).
A module for forming a barrage across a body of water for generating electricity from tidal or current flow comprising: - a base structure defining a manifold, - an inlet in the manifold housing an impeller that is connected to drive a generator or a hydraulic pump; - a number of substantially vertical pipe structure in a spaced, side-by-side arrangement mounted on the manifold so as to connect thereto, each pipe having a series of holes formed along its side facing its neighbouring pipe such that flow between adjacent pipes causes a venturi effect such that water is drawn from the manifold through the holes causing water to be drawn into the manifold through the inlet to drive the impeller, and - a deck structure that extends across the top of the pipe structures and is supported by at least two pipe structures. - a base structure defining a manifold, - an inlet in the manifold housing an impeller that is connected to drive a generator or a hydraulic pump; - a number of substantially vertical pipe structure in a spaced, side-by-side arrangement mounted on the manifold so as to connect thereto, each pipe having a series of holes formed along its side facing its neighbouring pipe such that flow between adjacent pipes causes a venturi effect such that water is drawn from the manifold through the holes causing water to be drawn into the manifold through the inlet to drive the impeller, and - a deck structure that extends across the top of the pipe structures and is supported by at least two pipe structures.
A method for preparing a stable iron nitrosylated hemoglobin, comprising reacting deoxygenated hemoglobin and inorganic nitrite at mole ratios of nitrite to deoxygenated hemoglobin ranging from 1:10 to 1:1000 to form iron nitrosyl hemoglobin.
A cold plasma system for cosmetic treatment of a region of a biological surface, comprising: a cold plasma generator comprising: an electrode (114, 114i,j, 116, 142), and a dielectric barrier (16, 116) having a first side that faces the electrode (114, 114i,j, 116, 142) and a second side that faces away from the electrode (114, 114i,j, 116, 142); and an auxiliary treatment device configured to enhance effects of the cold plasma on the region, characterized in that the auxiliary treatment device includes actuating members configured to move in opposite directions to each other and parallel to the biological surface for compressing or stretching the biological surface during application of the cold plasma. an electrode (114, 114i,j, 116, 142), and a dielectric barrier (16, 116) having a first side that faces the electrode (114, 114i,j, 116, 142) and a second side that faces away from the electrode (114, 114i,j, 116, 142); and an auxiliary treatment device configured to enhance effects of the cold plasma on the region, characterized in that the auxiliary treatment device includes actuating members configured to move in opposite directions to each other and parallel to the biological surface for compressing or stretching the biological surface during application of the cold plasma.
A method for determining a location of a device using trilateration, the method performed by the device, the method comprising: receiving a respective signal from each of a plurality of transmitters via a respective Line Of Sight path; and estimating a receive antenna location and attitude, wherein the location and attitude may be estimated from previous locations and attitudes of the antenna or the device, or wherein the device may include an inertial unit to sense location and attitude; characterized in that the method further comprises: predicting a link margin of each Line Of Sight path; filtering out the signals received via the respective Line Of Sight paths with a respective predicted link margin below a predetermined threshold value; and performing trilateration using the respective signals received via the respective Line Of Sight paths which remain after the filtering out, to substantially determine the location of the device. receiving a respective signal from each of a plurality of transmitters via a respective Line Of Sight path; and estimating a receive antenna location and attitude, wherein the location and attitude may be estimated from previous locations and attitudes of the antenna or the device, or wherein the device may include an inertial unit to sense location and attitude; characterized in that the method further comprises: predicting a link margin of each Line Of Sight path; filtering out the signals received via the respective Line Of Sight paths with a respective predicted link margin below a predetermined threshold value; and performing trilateration using the respective signals received via the respective Line Of Sight paths which remain after the filtering out, to substantially determine the location of the device. predicting a link margin of each Line Of Sight path; filtering out the signals received via the respective Line Of Sight paths with a respective predicted link margin below a predetermined threshold value; and performing trilateration using the respective signals received via the respective Line Of Sight paths which remain after the filtering out, to substantially determine the location of the device.
A downsized, wide-angle, large aperture optical imaging system comprising a first lens group having a positive or negative optical power, an aperture diaphragm, and a second lens group having a positive optical power arranged in order from an object side, wherein the first lens group is comprised of a first front lens group including at least two negative lenses (L1, L2) and a first rear lens group having at least one positive lens with an airspace in-between the first front and rear lens groups (III, IV), the airspace being largest among airspaces in the first lens group; the second lens group is comprised of a second front lens group including a first positive lens, a first negative lens, a second negative lens, and a second positive lens arranged in order from the object side, and a second rear lens group wherein: the second rear lens group includes at least one aspherical lens; and in that when focusing on an object in a close range from infinity, the second lens group is configured to move to the object side while an interval between the second front and rear lens groups (V, VI) is shortened. the second rear lens group includes at least one aspherical lens; and in that when focusing on an object in a close range from infinity, the second lens group is configured to move to the object side while an interval between the second front and rear lens groups (V, VI) is shortened.
Powder-coating process of a brake caliper comprising in sequence the steps of: (a) preparation of the brake caliper; (b) application of at least one masking element to at least one seat and / or duct of said brake caliper; (c) distribution of the powder-coating on at least one portion of said brake caliper; (d) removal of the at least one masking element by automated de-masking means; (e) cooking inside a cooking oven. (a) preparation of the brake caliper; (b) application of at least one masking element to at least one seat and / or duct of said brake caliper; (c) distribution of the powder-coating on at least one portion of said brake caliper; (d) removal of the at least one masking element by automated de-masking means; (e) cooking inside a cooking oven.
A sheath configured for being replaceably mounted to at least a part of a tip of an intraoral scanning device, thereby being configured to be used in combination with the intraoral scanning device to scan an intraoral cavity, the sheath comprising: - a hollow body comprising a distal sheath-end, a proximal sheath-end, and a sheath-side wall located between the distal sheath-end and the proximal sheath-end, wherein the proximal sheath-end forms a sheath-opening that is dimensioned with respect to at least the part of the tip; and - an optical window mounted to or located in the sheath-side wall near the distal sheath-end such that when the sheath is replaceably mounted to at least the part of the tip via the sheath-opening, the optical window covers at least a part of an optical aperture of the tip, wherein the optical window has a thickness of more than 400 microns and a birefringence of 100.000 nm/cm or less. - a hollow body comprising a distal sheath-end, a proximal sheath-end, and a sheath-side wall located between the distal sheath-end and the proximal sheath-end, wherein the proximal sheath-end forms a sheath-opening that is dimensioned with respect to at least the part of the tip; and - an optical window mounted to or located in the sheath-side wall near the distal sheath-end such that when the sheath is replaceably mounted to at least the part of the tip via the sheath-opening, the optical window covers at least a part of an optical aperture of the tip, wherein the optical window has a thickness of more than 400 microns and a birefringence of 100.000 nm/cm or less.
A heat generation point detection method for detecting a depth of a heat generation point in an integrated circuit, comprising: a first step of supplying a periodic electric signal fluctuating at a first frequency, to the integrated circuit and acquiring a first detection signal indicative of a change of an amount of heat generation detected from the integrated circuit in response thereto; a second step of supplying a periodic electric signal fluctuating at a second frequency different from the first frequency, to the integrated circuit and acquiring a second detection signal indicative of a change of an amount of heat generation detected from the integrated circuit in response thereto; a third step of detecting (S06, S07) a first phase shift between the periodic electric signal at the first frequency and the first detection signal and a second phase shift between the periodic electric signal at the second frequency and the second detection signal; and a fourth step of calculating a change rate of the phase shift between the periodic electric signal and the detection signal against a variable calculated from the frequency of the periodic electric signal, based on the first and second phase shifts, and acquiring depth information of the heat generation point from the change rate, wherein the fourth step comprises calculating the change rate of the phase shift against the variable which is a square root of the frequency. a first step of supplying a periodic electric signal fluctuating at a first frequency, to the integrated circuit and acquiring a first detection signal indicative of a change of an amount of heat generation detected from the integrated circuit in response thereto; a second step of supplying a periodic electric signal fluctuating at a second frequency different from the first frequency, to the integrated circuit and acquiring a second detection signal indicative of a change of an amount of heat generation detected from the integrated circuit in response thereto; a third step of detecting (S06, S07) a first phase shift between the periodic electric signal at the first frequency and the first detection signal and a second phase shift between the periodic electric signal at the second frequency and the second detection signal; and a fourth step of calculating a change rate of the phase shift between the periodic electric signal and the detection signal against a variable calculated from the frequency of the periodic electric signal, based on the first and second phase shifts, and acquiring depth information of the heat generation point from the change rate, wherein the fourth step comprises calculating the change rate of the phase shift against the variable which is a square root of the frequency.
A network application function, NAF, for establishing secure communication between the NAF and a machine to machine, M2M, device, the NAF being configured to: receive a push information response comprising a first data object from a bootstrapping server function; tunnel the push information response to the M2M device through a Ub interface or through a Upa interface, by carrying the push information response data via Ua commands of a Ua interface between the NAF and the M2M device, for enabling the M2M device to derive first information to establish said secure communication; receive a second data object; and derive second information for use in establishing said secure communication with the M2M device. receive a push information response comprising a first data object from a bootstrapping server function; tunnel the push information response to the M2M device through a Ub interface or through a Upa interface, by carrying the push information response data via Ua commands of a Ua interface between the NAF and the M2M device, for enabling the M2M device to derive first information to establish said secure communication; receive a second data object; and derive second information for use in establishing said secure communication with the M2M device.
A shading device for a vehicle, in particular of a water vehicle, comprising a roller blind web, a winding unit, onto which the roller blind web can be wound up or from which the roller blind web can be unwound and which, in relation to a longitudinal center plane of the roller blind web, is borne on both sides so as to be rotatable, and comprising, in relation to the longitudinal center plane of the roller blind web on each of its two sides, a telescopic tube arrangement (26A, 26B, 26') having a bearing tube that is fixed relative to the vehicle and having at least one first pull-out tube and one second pull-out tube, which are displaceable between a slid-in position, the roller blind web having been wound up onto the winding unit when being in said position, and a pulled-out position, the roller blind web having been unwound from the winding unit when being in said position, and further comprising a rope arrangement, wherein at least one of the telescopic tube arrangements (26A, 26B, 26') is provided with a drive unit, characterized in that the drive unit is arranged to directly drive the first pull-out tube, the rope arrangement converting a relative movement of the first pull-out tube vis-à-vis the bearing tube into a relative movement of the second pull-out tube vis-à-vis the first pull-out tube.
A solid pharmaceutical composition consisting essentially of a) 1 % to 30 % weight: weight Teriflunomide, or a pharmaceutically acceptable basic addition salt thereof, b) 5 % to 20 % weight: weight disintegrant, c) 0 % to 40 % weight: weight binder, d) 0.1 % to 2 % weight: weight lubricant and e) the remaining percentage comprising diluents, provided that said solid pharmaceutical composition does not contain colloidal silicon dioxide. a) 1 % to 30 % weight: weight Teriflunomide, or a pharmaceutically acceptable basic addition salt thereof, b) 5 % to 20 % weight: weight disintegrant, c) 0 % to 40 % weight: weight binder, d) 0.1 % to 2 % weight: weight lubricant and e) the remaining percentage comprising diluents,
A method for thermally working a workpiece consisting of a ferromagnetic material by means of a thermal working tool, which is moveable along a workpiece surface, characterized in that an alternating magnetic field is produced for controlling a working distance between said working tool and said workpiece surface, said alternating magnetic field acting both in the area of said workpiece surface and in a sensor body with ferromagnetic properties above said workpiece surface, said magnetic field or changes thereof being sensed by means of a measuring device (9; 10), and measurement signals of said measuring device (9; 10) being evaluated for controlling said working distance, wherein said torch head and at least one of the cutting or welding tools (3, 4; 5) are used as sensor body (2; 3; 4; 5).