mhurhangee/ep-ind-claims huggingface dataset:
Heavy load vehicle, which has a vehicle module having a transport frame and a transport platform, whereby the vehicle module has got coupling means for coupling at least one further vehicle module, characterized in that a lifting device can be releasable coupled with the vehicle module, that the lifting device has got a lift mast with a lifting unit as well as a coupling unit, and that by means of these coupling units (8, 20) the releasable coupling of the lifting device with the vehicle module is made.
Robotic drive module for an elongate flexible medical device comprising: - a base, - a pair of drive members (24, 24') each having a drive surface (34, 34'), the pair of drive members (24, 24') being placeable in a drive configuration in which the drive surfaces (34, 34') of the drive members (24, 24') of the pair of drive members (24, 24') engage with the elongate flexible medical device to be driven, and are arranged on either side thereof, the pair of drive members (24, 24') being movably mounted relative to the base along one degree of freedom between a first and second position, - a control member (18, 11) suitable for controlling a movement relative to the base of the drive members (24, 24') of the pair of drive members (24, 24') in the drive configuration from the first to the second position, thus driving the elongate flexible medical device relative to the base, - a disposable consumable sterile barrier comprising an attachment bracket for each drive member (24, 24'), and flexible portions between two adjacent attachment brackets, the flexible portions being connected to the attachment brackets, each drive member (24, 24') being attached to an attachment bracket, characterised in that the drive surfaces of the attachment brackets are intended to come into contact with the elongate flexible medical device. - a base, - a pair of drive members (24, 24') each having a drive surface (34, 34'), the pair of drive members (24, 24') being placeable in a drive configuration in which the drive surfaces (34, 34') of the drive members (24, 24') of the pair of drive members (24, 24') engage with the elongate flexible medical device to be driven, and are arranged on either side thereof, - a control member (18, 11) suitable for controlling a movement relative to the base of the drive members (24, 24') of the pair of drive members (24, 24') in the drive configuration from the first to the second position, thus driving the elongate flexible medical device relative to the base, - a disposable consumable sterile barrier comprising an attachment bracket for each drive member (24, 24'), and flexible portions between two adjacent attachment brackets, the flexible portions being connected to the attachment brackets, each drive member (24, 24') being attached to an attachment bracket, characterised in that the drive surfaces of the attachment brackets are intended to come into contact with the elongate flexible medical device.
A linear compressor for a cryocooler comprising: a piston that extends in an axial direction; a linear actuator that drives the piston in the axial direction; and a housing that accommodates the piston and the linear actuator and supports the piston to be oscillatable in the axial direction, wherein the linear actuator includes an outer yoke that is fixed to the housing, an inner yoke that is disposed on a radially inner side of the outer yoke and is fixed to the housing, a magnet holder that includes a magnet receiving recessed part positioned between the inner yoke and the outer yoke in a radial direction and is fixed to the piston, and a permanent magnet that is housed in the magnet receiving recessed part, characterized in that the permanent magnet is fixed to the magnet holder without using an adhesive, and the magnet holder includes a pressing mechanism that presses the permanent magnet against a holder lower end of the magnet holder. a piston that extends in an axial direction; a linear actuator that drives the piston in the axial direction; and a housing that accommodates the piston and the linear actuator and supports the piston to be oscillatable in the axial direction, wherein the linear actuator includes an outer yoke that is fixed to the housing, an inner yoke that is disposed on a radially inner side of the outer yoke and is fixed to the housing, a magnet holder that includes a magnet receiving recessed part positioned between the inner yoke and the outer yoke in a radial direction and is fixed to the piston, and a permanent magnet that is housed in the magnet receiving recessed part, an outer yoke that is fixed to the housing, an inner yoke that is disposed on a radially inner side of the outer yoke and is fixed to the housing, a magnet holder that includes a magnet receiving recessed part positioned between the inner yoke and the outer yoke in a radial direction and is fixed to the piston, and a permanent magnet that is housed in the magnet receiving recessed part, characterized in that the permanent magnet is fixed to the magnet holder without using an adhesive, and the magnet holder includes a pressing mechanism that presses the permanent magnet against a holder lower end of the magnet holder.
A solar tile comprising a solar panel, a fixing substrate configured to support the solar panel, and a circuit module disposed on the fixing substrate, the fixing substrate comprises a metal frame and a rubber layer cladding the metal frame, the solar panel is fixedly stacked on the fixing substrate, the metal frame comprises a plurality of beams which are spaced and parallel and a plurality of stringers which are connected to the beams and are spaced and parallel, characterized in that each of the beams comprises a first arc portion and two first horizontal portions extending horizontally from two edges of the first arc portion respectively, the two first horizontal portions are symmetrically arranged about a center line which is the central axis of the first arc portion; the stringer comprise a second arc portion and two second horizontal portions extending horizontally from two edges of the second arc portion respectively, the two second horizontal portions are symmetrically arranged about a center line which is the central axis of the second arc portion, the two first horizontal portions of the beam and the two second horizontal portions of the stringer are oppositely disposed and connected with each other.
Method for controlling a supercharged internal combustion engine, said engine comprising combustion cylinders, an intake circuit opening into an intake manifold connected to the cylinders and comprising a compressor, and an exhaust circuit opening onto the outlet of an exhaust manifold connected to the cylinders and comprising a turbine, rotationally coupled to the compressor, and one or more post-treatment systems for the post-treatment of the exhaust gases, said engine being equipped with at least one exhaust gas recirculation circuit, said at least one recirculation circuit starting at the outlet from the post-treatment system or systems and opening into the intake circuit upstream of the compressor, comprising a recirculation valve for controlling the flow rate of the recirculated exhaust gases in said recirculation circuit, while a throttling butterfly valve is positioned in an intake pipe, the method being of the type wherein, under engine operating conditions that require exhaust gas recirculation, when it is determined that an indicator of the engine load is below a threshold value (MEP surge), said throttling butterfly valve is operated according to a first control mode so as to increase the flow rate of recirculated exhaust gases admitted to the engine, said method being characterized in that, under engine operating conditions that require little or no exhaust gas recirculation, when it is determined that an indicator of the load on the engine is above said threshold value (MEP surge)said throttling butterfly valve is operated according to a second control mode to generate a helical swirling movement of the gases admitted to the inlet of said compressor to improve the operational stability of said compressor, the method being characterized in that the throttling butterfly valve is positioned upstream of the inlet to the compressor and downstream of the outlet of said recirculation circuit.
A shaped abrasive particle having a body comprising an arrowhead shape, wherein the body comprises a tortuous contour, wherein the body comprises a first major surface, a second major surface, and a first side surface, wherein a fractured region is formed at a center of the first side surface defining an arcuate surface giving the body the arrowhead shape.
A weapon aiming system, comprising: a riflescope having at least one turret (18, 20) for adjusting the position of an aimpoint of an internal reticle; at least one encoder (22, 24) that senses a relative position change of at least one of the turret (18, 20) and the reticle; a laser rangefinder associated with at least one pair of Risley prisms (42, 44) operable to adjustably position a LRF aimpoint to coincide with the aimpoint of the riflescope reticle; a controller; a motor (46, 48) associated with each Risley prism (42, 44) and controlled by the controller to position the associated prisms (42, 44); wherein the system is configured such that adjusting the aimpoint of the riflescope reticle causes the encoder (22, 24) to send a position change signal to the controller programmed to, in response, direct the motors (46, 48) to reposition the prisms (42, 44) so that the LRF aimpoint continues to coincide with the reticle aimpoint. a riflescope having at least one turret (18, 20) for adjusting the position of an aimpoint of an internal reticle; at least one encoder (22, 24) that senses a relative position change of at least one of the turret (18, 20) and the reticle; a laser rangefinder associated with at least one pair of Risley prisms (42, 44) operable to adjustably position a LRF aimpoint to coincide with the aimpoint of the riflescope reticle; a controller; a motor (46, 48) associated with each Risley prism (42, 44) and controlled by the controller to position the associated prisms (42, 44); wherein the system is configured such that adjusting the aimpoint of the riflescope reticle causes the encoder (22, 24) to send a position change signal to the controller programmed to, in response, direct the motors (46, 48) to reposition the prisms (42, 44) so that the LRF aimpoint continues to coincide with the reticle aimpoint.
An atherectomy device (100; 608) comprising: a first drive shaft (110; 502; 610) extending distally from a handle assembly and having a cutting member (118; 218; 318; 418; 508; 612) mounted on a distal end region of the first drive shaft (110; 502; 610); a second drive shaft extending distally from the handle assembly to a distal end of the second drive shaft; wherein the first drive shaft (110; 502; 610) is rotatable relative to the handle assembly; wherein the second drive shaft is rotatable relative to the handle assembly; wherein the first drive shaft (110; 502; 610) is rotatable independent of the second drive shaft; and wherein the second drive shaft includes an eccentric weight such that rotation of the second drive shaft above a threshold rotational rate causes the cutting member (118; 218; 318; 418; 508; 612) mounted on the first drive shaft (110; 502; 610) to vibrate. a first drive shaft (110; 502; 610) extending distally from a handle assembly and having a cutting member (118; 218; 318; 418; 508; 612) mounted on a distal end region of the first drive shaft (110; 502; 610); a second drive shaft extending distally from the handle assembly to a distal end of the second drive shaft; wherein the first drive shaft (110; 502; 610) is rotatable relative to the handle assembly; wherein the second drive shaft is rotatable relative to the handle assembly; wherein the first drive shaft (110; 502; 610) is rotatable independent of the second drive shaft; and wherein the second drive shaft includes an eccentric weight such that rotation of the second drive shaft above a threshold rotational rate causes the cutting member (118; 218; 318; 418; 508; 612) mounted on the first drive shaft (110; 502; 610) to vibrate.
Method for changing mobile network, comprising the following steps: - detecting that it becomes necessary to hand over a communication in which a terminal participates from a first mobile network connected to an IP, Internet Protocol, network, to a second mobile network connected to the same IP network, - a first management centre belonging to said first mobile network transmitting, to a second management centre belonging to said second mobile network, the IMSI, International Mobile Subscriber Identity, identifier of said terminal, - said second management centre sending said IMSI identifier to the IP network, and - an access transfer control entity of the IP network receiving a request to change mobile network relating to said terminal and containing said IMSI identifier, the method further comprising a step of said access transfer control entity identifying the contact address of the terminal by means of the IMSI identifier, the method being characterized in that, during the registration of said terminal with said IP network, a registration server in charge of executing the session control services for the terminal obtained said IMSI identifier and forwarded it to said access transfer control entity. - detecting that it becomes necessary to hand over a communication in which a terminal participates from a first mobile network connected to an IP, Internet Protocol, network, to a second mobile network connected to the same IP network, - a first management centre belonging to said first mobile network transmitting, to a second management centre belonging to said second mobile network, the IMSI, International Mobile Subscriber Identity, identifier of said terminal, - said second management centre sending said IMSI identifier to the IP network, and - an access transfer control entity of the IP network receiving a request to change mobile network relating to said terminal and containing said IMSI identifier, the method further comprising a step of said access transfer control entity identifying the contact address of the terminal by means of the IMSI identifier, the method being characterized in that, during the registration of said terminal with said IP network, a registration server in charge of executing the session control services for the terminal obtained said IMSI identifier and forwarded it to said access transfer control entity.
A coupling-initiator compound having the formula: S-X- n, wherein n is an integer having a value of 2; S is a silicon-containing coupling moiety through which the coupling-initiator compound bonds to a substrate surface comprising a fiberglass surface, the silicon-containing coupling moiety comprises: wherein R 3, R 4 and R 5 are the same or different, and are selected from the group consisting of an alkyl group, an aryl group, an alkoxy group, a halogen group, and an alkylcyclic group; X is a linking moiety to link the S moiety with the one or more I moieties, said linking moiety being an alkyl-, aryl- and alkyl-aryl-group; and n is one or more polymerization initiator moieties, wherein each of the initiator moieties is capable of initiating a polymerization of a monomer under polymerization conditions, said polymerization initiator moiety being a ring-opening polymerization initiator moiety that participates in anionic ring-opening polymerization, cationic ring-opening polymerization and ring-opening metathesis polymerization, and wherein each of the initiator moieties may be the same or different, said polymerization initiators I are organo-cyclic rings that may be the same or different, wherein the organo-cyclic rings comprise: wherein R 6 comprises a covalent bond, an alkyl group, an amine group, or an aromatic group. S is a silicon-containing coupling moiety through which the coupling-initiator compound bonds to a substrate surface comprising a fiberglass surface, the silicon-containing coupling moiety comprises: wherein R 3, R 4 and R 5 are the same or different, and are selected from the group consisting of an alkyl group, an aryl group, an alkoxy group, a halogen group, and an alkylcyclic group; X is a linking moiety to link the S moiety with the one or more I moieties, said linking moiety being an alkyl-, aryl- and alkyl-aryl-group; and n is one or more polymerization initiator moieties, wherein each of the initiator moieties is capable of initiating a polymerization of a monomer under polymerization conditions, said polymerization initiator moiety being a ring-opening polymerization initiator moiety that participates in anionic ring-opening polymerization, cationic ring-opening polymerization and ring-opening metathesis polymerization, and wherein each of the initiator moieties may be the same or different, said polymerization initiators I are organo-cyclic rings that may be the same or different, wherein the organo-cyclic rings comprise: wherein R 6 comprises a covalent bond, an alkyl group, an amine group, or an aromatic group.
A method of analyzing magnesium content in soil, the method comprising: a) obtaining a soil sample; b) adding a liquid comprising a surfactant to the soil sample to form a soil slurry; c) flowing the soil slurry through a filter to form a filtrate; d) blending a reagent composition with the filtrate to form a soil mixture; and e) flowing the soil mixture through an analysis tool along a flow direction that is substantially orthogonal to the direction of gravity, whereby a magnesium absorbance of the soil mixture is measured. a) obtaining a soil sample; b) adding a liquid comprising a surfactant to the soil sample to form a soil slurry; c) flowing the soil slurry through a filter to form a filtrate; d) blending a reagent composition with the filtrate to form a soil mixture; and e) flowing the soil mixture through an analysis tool along a flow direction that is substantially orthogonal to the direction of gravity, whereby a magnesium absorbance of the soil mixture is measured.
A mechanical filter element for forming a static filter pack to perform mechanical filtration of a liquid, the mechanical filter element comprising a plurality of filter cells; the filter cells each having a cross-sectional area less than or equal to 3mm 2 and an internal volume less than 30mm 3; wherein the mechanical filter element comprises a cylindrical wall and an internal frame, the cylindrical wall defines a filter area, the internal frame being formed inside said cylindrical wall to sub-divide the filter area to form said filter cells, the internal frame being formed integrally with the cylindrical wall during moulding of the mechanical filter element and forming a separation wall between the filter cells; the cylindrical wall and the internal frame being nonporous. the filter cells each having a cross-sectional area less than or equal to 3mm 2 and an internal volume less than 30mm 3; wherein the mechanical filter element comprises a cylindrical wall and an internal frame, the cylindrical wall defines a filter area, the internal frame being formed inside said cylindrical wall to sub-divide the filter area to form said filter cells, the internal frame being formed integrally with the cylindrical wall during moulding of the mechanical filter element and forming a separation wall between the filter cells; the cylindrical wall and the internal frame being nonporous.
A radiation image acquisition system for acquiring a radiation image of an object, comprising: a radiation source for outputting radiation toward the object; a scintillator having an input surface to which the radiation transmitted through the object is input and for converting the input radiation into scintillation light, the scintillator exhibiting a light transmittance of 80% or less at the wavelength of scintillation light by scattering or absorbing the scintillation light inside the scintillator; image capturing means including a lens portion focused on the input surface and for imaging the scintillation light output from the input surface and an image capturing unit for capturing an image of the scintillation light imaged by the lens portion and outputting radiation image data of the object; an image generating unit (10, 10a) for generating a radiation image of the object based on the radiation image data, and a conveyance apparatus configured to convey the object in a predetermined conveying direction at a constant speed, wherein the image capturing means is a line scan camera configured to perform image capturing in accordance with a movement of the object, a conveying timing and a conveying speed are set in advance for the object in the conveyance apparatus, and the scintillator is disposed such that the input surface is inclined at a predetermined angle with respect to an optical axis of the lens portion of the image capturing means. a radiation source for outputting radiation toward the object; a scintillator having an input surface to which the radiation transmitted through the object is input and for converting the input radiation into scintillation light, the scintillator exhibiting a light transmittance of 80% or less at the wavelength of scintillation light by scattering or absorbing the scintillation light inside the scintillator; image capturing means including a lens portion focused on the input surface and for imaging the scintillation light output from the input surface and an image capturing unit for capturing an image of the scintillation light imaged by the lens portion and outputting radiation image data of the object; an image generating unit (10, 10a) for generating a radiation image of the object based on the radiation image data, and a conveyance apparatus configured to convey the object in a predetermined conveying direction at a constant speed, wherein the image capturing means is a line scan camera configured to perform image capturing in accordance with a movement of the object, a conveying timing and a conveying speed are set in advance for the object in the conveyance apparatus, and the scintillator is disposed such that the input surface is inclined at a predetermined angle with respect to an optical axis of the lens portion of the image capturing means.
Method for producing a Fe-tCDTA contrast agent, comprising the steps of: a) preparing an aqueous solution composed of tCDTA and FeO, wherein tCDTA and FeO are present in a molar ratio of from 1:1 to 1:1.4; b) b.1) adjusting a pH of the aqueous solution to pH 2.5 to pH 4.5 by addition of a base, preferably meglumine, and removing the precipitate; or b.2) precipitating Fe-tCDTA from the aqueous solution by addition of an organic solvent that is miscible with water, removing the precipitate and preparing an aqueous solution from the precipitate; and c) adjusting a pH of the aqueous solution to pH 6.5 to pH 8.0 by addition of a base, preferably meglumine, and removing the precipitated FeO. a) preparing an aqueous solution composed of tCDTA and FeO, wherein tCDTA and FeO are present in a molar ratio of from 1:1 to 1:1.4; b) b.1) adjusting a pH of the aqueous solution to pH 2.5 to pH 4.5 by addition of a base, preferably meglumine, and removing the precipitate; or b.2) precipitating Fe-tCDTA from the aqueous solution by addition of an organic solvent that is miscible with water, removing the precipitate and preparing an aqueous solution from the precipitate; and c) adjusting a pH of the aqueous solution to pH 6.5 to pH 8.0 by addition of a base, preferably meglumine, and removing the precipitated FeO.