mhurhangee/ep-ind-claims huggingface dataset:
A connecting rod (115, 200) for coupling a piston to a crank pin, comprising: an elongate rod shank with opposite first and second axial ends; a small end (117; 230) at the first axial end of the rod shank and adapted to couple to the piston; and a big end (135; 210) comprising: a body part at the second axial end of the rod shank; and a cap part (137; 205) adapted to releasably couple to the body part, when the cap part is coupled to the body part, the cap part and body part cooperate to define a crank pin receiving bore (145; 220) and abut at first and second spaced apart interfaces (240, 235), the cap part (137; 205) defining at least an aperture proximate the first interface adapted to receive a threaded fastener that engages and clamps the cap part (137; 205) to the body part, the cap part (137; 205) comprising a side portion extending radially (Ro) beyond a largest radius (R 2) from a crank pin bore center to the first interface, characterised in that the side portion of the cap part (137; 205) extends radially beyond the body part about the first interface.
Pipette for actuating a syringe, with • a bar-shaped housing, • a fixture with an opening (21.1) at the lower end of the housing for putting in a syringe with a fastening portion on the upper edge of a cylinder, • a fixture body with a further fixture and a further opening (21.2) on the lower end of the housing, for putting in a further fastening portion of a piston of the syringe, • means for detachably holding (23, 26) the fastening portion in the fixture and the further fastening portion in the further fixture, • means for displacing (5, 8, 34, 37, 27) the fixture body within the housing in the longitudinal direction of the housing, • which have a draw-up lever activated from the outside of the housing, which is connected to the fixture body via a connection element which grips through a straight slit extending in the longitudinal direction of the housing, characterised in • that below the slit in the housing, a cover stripe covering the slit is held in the housing at two positions (48, 49) spaced apart from each other in the longitudinal direction of the slit, and • that the connection element has a channel through which the cover stripe extends. • a bar-shaped housing, • a fixture with an opening (21.1) at the lower end of the housing for putting in a syringe with a fastening portion on the upper edge of a cylinder, • a fixture body with a further fixture and a further opening (21.2) on the lower end of the housing, for putting in a further fastening portion of a piston of the syringe, • means for detachably holding (23, 26) the fastening portion in the fixture and the further fastening portion in the further fixture, • means for displacing (5, 8, 34, 37, 27) the fixture body within the housing in the longitudinal direction of the housing, • which have a draw-up lever activated from the outside of the housing, which is connected to the fixture body via a connection element which grips through a straight slit extending in the longitudinal direction of the housing, • that below the slit in the housing, a cover stripe covering the slit is held in the housing at two positions (48, 49) spaced apart from each other in the longitudinal direction of the slit, and • that the connection element has a channel through which the cover stripe extends.
A pump impeller for use in combination with a wear plate, the impeller comprising a single impeller vane defining an interior space through which fluid is displaced, the impeller vane having a leading edge, a trailing edge and an upper rim for location, in use, adjacent the wear plate; and a shroud from which the vane projects; wherein the leading edge is profiled to actively displace solid material entering the impeller in a direction away from the wear plate characterized in that the leading edge defines a tip at the upper rim and a root at the shroud, the leading edge curving rearwards from both the tip and the root.
A method for controlling a print system which is configured by connecting a client terminal, a print server, and a printing apparatus to a network (103, 107), which print server manages printing from the client terminal, the method comprising: in the client terminal, transmitting a request to the printing apparatus for a registration web page for registering, in the print server, the printing apparatus in a print service provided by the print server; in the printing apparatus, collecting configuration information of the printing apparatus in response to reception of the request from the client terminal, creating link information which contains the configuration information collected in the collecting step and is used to access the print server, and generating the registration web page containing the link information created in the creating step and transmitting the registration web page to the client terminal; and in the print server, receiving from the client terminal the configuration information of the printing apparatus, the configuration information of the printing apparatus being transmitted from the client terminal via the link information in the registration web page, creating printing apparatus information which associates the configuration information received by the reception means with user information of a user of the client terminal, and managing the printing apparatus information in a storage medium, and generating a print setting web page based on the printing apparatus information managed in the print server. in the client terminal, transmitting a request to the printing apparatus for a registration web page for registering, in the print server, the printing apparatus in a print service provided by the print server; in the printing apparatus, collecting configuration information of the printing apparatus in response to reception of the request from the client terminal, creating link information which contains the configuration information collected in the collecting step and is used to access the print server, and generating the registration web page containing the link information created in the creating step and transmitting the registration web page to the client terminal; and in the print server, receiving from the client terminal the configuration information of the printing apparatus, the configuration information of the printing apparatus being transmitted from the client terminal via the link information in the registration web page, creating printing apparatus information which associates the configuration information received by the reception means with user information of a user of the client terminal, and managing the printing apparatus information in a storage medium, and generating a print setting web page based on the printing apparatus information managed in the print server.
Examination system (10, 20, 30) having a magnetic resonance scanner with a cylindrical coil for generating a magnetic field, wherein the cylindrical coil surrounds an examination space, wherein a first X-ray source and a first X-ray detector are arranged in the examination space and wherein a radiofrequency coil (140, 240) is arranged in the examination space, characterized in that the radiofrequency coil is rigidly connected to the first X-ray source.
A hollow core composite assembly, comprising: - a hollow core base including at least one open core surface; - at least one solid bondable film applied to said at least one open core surface; - at least one adhesive layer positioned between said at least one solid bondable film and said at least one open core surface; and - a plurality of dry face plies laid up dry and placed on said at least one solid film; and - a cured liquid resin, which has been applied to said dry face plies; wherein the solid bondable film is affixed to said at least one open core surface and the adhesive layer is positioned between the open core surface and the solid bondable film to provide a barrier for subsequent liquid molding materials penetrating the hollow core base; characterized in that the solid bondable film is a PEKK (polyetherketoneketone) film. - a hollow core base including at least one open core surface; - at least one solid bondable film applied to said at least one open core surface; - at least one adhesive layer positioned between said at least one solid bondable film and said at least one open core surface; and - a plurality of dry face plies laid up dry and placed on said at least one solid film; and - a cured liquid resin, which has been applied to said dry face plies;
A depth information generating method for generating a depth map for an object, comprising: irradiating an optical electromagnetic wave onto the object; receiving a reflected wave reflected from the object through an optical receiver; generating a first depth map for the object based on an arrival direction of the received reflected wave; generating a second depth map for the object based on an arrival time of the received reflected wave; and generating a depth map by combining the first depth map and the second depth map. irradiating an optical electromagnetic wave onto the object; receiving a reflected wave reflected from the object through an optical receiver; generating a first depth map for the object based on an arrival direction of the received reflected wave; generating a second depth map for the object based on an arrival time of the received reflected wave; and generating a depth map by combining the first depth map and the second depth map.
Steam ironing appliance comprising a pressurized steam generator, comprising a vessel for producing steam at a pressure greater than 4 bar, and an iron comprising a flat sole plate provided with steam outlet holes, the steam outlet holes being supplied by at least one steam diffusion chamber (51, 52) arranged on lower face of a body mounted on the sole plate, the body comprising an upper face comprising a steam distribution circuit conveying a steam flow produced by the steam generator towards distribution orifices (50, 54) passing through the body and communicating with said steam diffusion chamber (51, 52), characterised in that the iron comprises a steam flow deflector interposed between the body and the sole plate, facing at least one of the steam distribution orifices (50, 54), said deflector comprising a deflector plate, which is mounted between the lower face of the body and the sole plate and which deflects the steam flow originating from said distribution orifice (50, 54) to direct it in a direction approaching the plane of the sole plate.
A docking station for a portable communication device, comprising: a body portion having a first side wall and a second side wall; a guide portion, detachably coupled to the body portion, for adoptively housing and detachably coupling to various exterior shapes of the portable communication device, wherein the body portion comprises a cradling portion which allows the guide portion to be mounted thereon or dismounted therefrom, characterized in that the first and the second side wall have a first and a second recess, respectively, at the location of the cradling portion so that when the guide portion is coupled to the body portion, parts of the guide portion can extend to the outside of the body portion through the first and second recesses. a body portion having a first side wall and a second side wall; a guide portion, detachably coupled to the body portion, for adoptively housing and detachably coupling to various exterior shapes of the portable communication device, wherein the body portion comprises a cradling portion which allows the guide portion to be mounted thereon or dismounted therefrom, characterized in that the first and the second side wall have a first and a second recess, respectively, at the location of the cradling portion so that when the guide portion is coupled to the body portion, parts of the guide portion can extend to the outside of the body portion through the first and second recesses.
A system comprising: a gas turbine system comprising an exhaust gas recirculation system receiving an exhaust gas flow from the gas turbine system and recycling the exhaust gas back to the gas turbine system, wherein the exhaust gas recirculation system comprises a blower comprising at least one blower vane (588, 590), characterized in that it further comprises at least one sensor configured to communicate a signal representative of blower vane pitch angle position; a controller communicatively coupled to the at least one sensor, wherein the controller is configured to execute a control logic to derive a reference value for the blower vane pitch angle position, and wherein the controller is configured to apply a direct limit and a model-based limit to the reference value to derive a limit-based value, wherein the model-based limit is derived by the controller by executing a model-based control logic comprising a physics-based model of the gas turbine system, wherein the direct limit comprises a temperature limit derived from temperatures tolerated by components of the gas turbine, and wherein the controller is configured to control the blower vane such that the blower vane pitch angle does not exceed the limit-based value. a gas turbine system comprising an exhaust gas recirculation system receiving an exhaust gas flow from the gas turbine system and recycling the exhaust gas back to the gas turbine system, wherein the exhaust gas recirculation system comprises a blower comprising at least one blower vane (588, 590), characterized in that it further comprises at least one sensor configured to communicate a signal representative of blower vane pitch angle position; a controller communicatively coupled to the at least one sensor, wherein the controller is configured to execute a control logic to derive a reference value for the blower vane pitch angle position, and wherein the controller is configured to apply a direct limit and a model-based limit to the reference value to derive a limit-based value, wherein the model-based limit is derived by the controller by executing a model-based control logic comprising a physics-based model of the gas turbine system, wherein the direct limit comprises a temperature limit derived from temperatures tolerated by components of the gas turbine, and wherein the controller is configured to control the blower vane such that the blower vane pitch angle does not exceed the limit-based value.
A method for manufacturing a lensed optical fiber, in which a GRIN lens formed in an elongated shape is coaxially fused at a tip of an optical fiber, and then the GRIN lens is cut in a rod shape with a predetermined length, comprising: a step of fusing together the optical fiber held in a fiber holder and the GRIN lens held in a lens holder with tips thereof abutting each other; characterized by further comprising: a step of moving the lens holder in a direction away from the fiber holder, while relaxing holding force of the lens holder, and reholding the GRIN lens, Δd being a movement distance of the lens holder, upon reholding the GRIN lens; and a step of cutting the GRIN lens with a length L equal to the movement distance Δd of the lens holder so that Δd = L is a length of the cut GRIN lens, while the lens holder continues to hold the GRIN lens. a step of fusing together the optical fiber held in a fiber holder and the GRIN lens held in a lens holder with tips thereof abutting each other; characterized by further comprising: a step of moving the lens holder in a direction away from the fiber holder, while relaxing holding force of the lens holder, and reholding the GRIN lens, Δd being a movement distance of the lens holder, upon reholding the GRIN lens; and a step of cutting the GRIN lens with a length L equal to the movement distance Δd of the lens holder so that Δd = L is a length of the cut GRIN lens, while the lens holder continues to hold the GRIN lens. a step of moving the lens holder in a direction away from the fiber holder, while relaxing holding force of the lens holder, and reholding the GRIN lens, Δd being a movement distance of the lens holder, upon reholding the GRIN lens; and a step of cutting the GRIN lens with a length L equal to the movement distance Δd of the lens holder so that Δd = L is a length of the cut GRIN lens, while the lens holder continues to hold the GRIN lens.
Hydrostatic drive, consisting at least of a variable displacement pump, a hydraulic motor, a feed pump, a feed pressure limiting valve, an adjusting unit, and a drive controller which actuates the adjusting unit, the adjusting unit being supplied with hydraulic energy by way of an electrohydraulic supply unit, characterized in that the supply unit consists at least of a hydraulic accumulator and a check valve and is connected to the feed pressure limiting valve which is configured as an electrically adjustable pressure limiting valve, the hydraulic accumulator also being connected to an electrohydraulic pressure sensor which outputs its electric signal to an electric auxiliary controller and the electric auxiliary controller actuating the feed pressure limiting valve.
A method for transmitting hierarchically modulated, HM, symbols in a wireless access system, characterized in that the method comprising the steps of: configuring first symbols from information bits to be transmitted to a receiver (1560, 1570) in a line of sight, LOS, environment by applying a beamforming scheme; and configuring second symbols from the information bits to be transmitted to the receiver (1560, 1570) in a non-LOS environment by applying a space time coding scheme; configuring the HM symbols by combining the first symbols and the second symbols; and transmitting the HM symbols to the receiver (1560, 1570), wherein the first symbols and the second symbols are combined by adding the second symbols to the first symbols, after performing a power scaling on the first symbols with a first euclidian distance 'r' and performing a power scaling on the second symbols with a second euclidian distance 'd', wherein r>d. configuring first symbols from information bits to be transmitted to a receiver (1560, 1570) in a line of sight, LOS, environment by applying a beamforming scheme; and configuring second symbols from the information bits to be transmitted to the receiver (1560, 1570) in a non-LOS environment by applying a space time coding scheme; configuring the HM symbols by combining the first symbols and the second symbols; and transmitting the HM symbols to the receiver (1560, 1570), wherein the first symbols and the second symbols are combined by adding the second symbols to the first symbols, after performing a power scaling on the first symbols with a first euclidian distance 'r' and performing a power scaling on the second symbols with a second euclidian distance 'd', wherein r>d.
A method for preparing a negative active material, comprising: A) mixing a carbon material, an organic polymer, and an aqueous solution of a Sn-containing compound to obtain a first mixture; B) adding a complexing agent to the first mixture with stirring to obtain a second mixture; C) adding a reducing agent to the second mixture to react and obtain a reaction product; and D) filtering, washing and then drying the reaction product to obtain the negative active material. A) mixing a carbon material, an organic polymer, and an aqueous solution of a Sn-containing compound to obtain a first mixture; B) adding a complexing agent to the first mixture with stirring to obtain a second mixture; C) adding a reducing agent to the second mixture to react and obtain a reaction product; and D) filtering, washing and then drying the reaction product to obtain the negative active material.
Air inlet nozzle for a gas heating device, comprising a hollow body with at least one air inflow opening, which is surrounded by a rim edge partially covering the hollow body, characterized in that the rim edge is configured as a disc which has an internal, closed edge for forming the air inflow opening, and is configured with a plurality of exposed flow-influencing elements (5, 6, 7, 16) which are arranged directly on a surface or directly along the circumference of the edge.
A method of reducing or eliminating formation of artifacts and non-specific amplification products in a DNA-dependent DNA polymerase amplification reaction, the method comprising: conducting a nucleic acid amplification reaction using at least one RNA/DNA chimeric oligonucleotide as a forward or as a reverse primer or as a probe and using a DNA-dependent DNA polymerase; wherein the chimeric oligonucleotide comprises at least one ribonucleotide which is not located at, but is located within ten nucleotides of the 3' end of the chimeric oligonucleotide; wherein the at least one ribonucleotide impedes DNA synthesis from primer-primer dimers or primer-probe dimers; and wherein no two ribonucleotides in the chimeric oligonucleotide are adjacent to one another. conducting a nucleic acid amplification reaction using at least one RNA/DNA chimeric oligonucleotide as a forward or as a reverse primer or as a probe and using a DNA-dependent DNA polymerase; wherein the chimeric oligonucleotide comprises at least one ribonucleotide which is not located at, but is located within ten nucleotides of the 3' end of the chimeric oligonucleotide; wherein the at least one ribonucleotide impedes DNA synthesis from primer-primer dimers or primer-probe dimers; and wherein no two ribonucleotides in the chimeric oligonucleotide are adjacent to one another.
A compound having the structure of the following formula: wherein: X is selected from the group consisting of NR 14 and O; R 1, R 2, R 3, R 4, R 7, R 8, R 9, R 10, and R 11 are independently selected from the group consisting of hydrogen, halogen, CN, hydroxyl, R 16, and OR 16; R 14 is hydrogen or R 16; R 5 and R 6 are independently selected from the group consisting of hydrogen, hydroxyl, OR 16, R 16, and C 3-6 cycloalkyl, or R 5 and R 6 combine to form an oxo (=O) group or a C 3-6 cycloalkyl; R 12 is -COR a; each R 16 is independently formyl, C 1-9 alkyl, C 2-9 alkenyl, or C 2-9 alkynyl; and, R a is selected from the group consisting of hydroxyl and OR 16; or a crystalline form, hydrate, or cosmetically or pharmaceutically acceptable salt thereof. X is selected from the group consisting of NR 14 and O; R 1, R 2, R 3, R 4, R 7, R 8, R 9, R 10, and R 11 are independently selected from the group consisting of hydrogen, halogen, CN, hydroxyl, R 16, and OR 16; R 14 is hydrogen or R 16; R 5 and R 6 are independently selected from the group consisting of hydrogen, hydroxyl, OR 16, R 16, and C 3-6 cycloalkyl, or R 5 and R 6 combine to form an oxo (=O) group or a C 3-6 cycloalkyl; R 12 is -COR a; each R 16 is independently formyl, C 1-9 alkyl, C 2-9 alkenyl, or C 2-9 alkynyl; and, R a is selected from the group consisting of hydroxyl and OR 16;