mhurhangee/ep-ind-claims huggingface dataset:
A modular control device for a vehicle gearbox, comprising: - a support casing, - a control lever pivotally mounted about an oscillation axis within said support casing and having an upper portion projecting from the support casing and carrying a lever handle, - a pivoting body rotatably mounted within said support casing about said oscillation axis and connected in rotation with said control lever about said oscillation axis, a connecting member for connection of one end of a gearbox control cable, said connecting member being connected to said pivoting body, wherein said connecting member is connected to said pivoting body by means of at least one adapter element, wherein said adapter element and said pivoting body are configured so that they can be coupled with each other in different relative positions, so as to create different positions and/or different orientations of the control cable with respect to the pivoting body, and wherein said control device further comprises a supporting container arranged on the outside of said casing and rigidly connected thereto by connecting means (10, 210) configured to enable selective mounting of said casing in different angular positions about said articulation axis with respect to said supporting container, said modular gearbox control device being characterized in that it is provided both with a first mounting member configured to be rigidly connected to said outer container and to be further connected to a longitudinal central tunnel-like portion of a vehicle floor panel, and with a second mounting member configured to be rigidly connected to said outer container and to be further connected to a supporting structure for a vehicle dashboard. - a support casing, - a control lever pivotally mounted about an oscillation axis within said support casing and having an upper portion projecting from the support casing and carrying a lever handle, - a pivoting body rotatably mounted within said support casing about said oscillation axis and connected in rotation with said control lever about said oscillation axis,
An apparatus comprising a medicament container having a neck, a fluid communication path being established between the inside of said container and the environment through said neck, a cup-shaped collar having a base, a circular sleeve rising from said base with the lip of said sleeve pointing toward the distal end of said neck, the inner wall of said sleeve being threaded to receive a luer end of a needle assembly when said needle assembly is mated to said neck, a housing connected to said base and pivotable to a position in alignment along the longitudinal axis of said container, said housing having an integral hook for grasping said needle when said housing is pivoted to the alignment position, characterized in that the neck of the medicament container having a circumferential notch formed at a proximal end thereof, and the base of the cup-shaped collar being formed by a plurality of converging but not touching planar extensions each having a front edge that together define an aperture, a plurality of spaces each separating an adjacent pair of the extensions to enable the front edges of the extensions to be slidable over the neck when the aperture at the base of the collar is slidably fitted about the neck until the extensions reach the notch and snap fitted thereto.
A fuselage structure for an aircraft, comprising: a frame structure extending in a circumferential direction, said frame structure being formed as an annular beam or frame having a first connection portion and a second connection portion spaced apart from said first connection portion along said circumferential direction, wherein the frame structure has a gap between the first connection portion and the second connection portion, said gap being limited by the connection portions (21; 22); a stiffening structure extending between the first and second connection portions (21; 22) of the frame structure along the circumferential direction, which is inserted into the gap of the frame structure and is connected to the first and second connection portions (21; 22) of the frame structure respectively, an outer shell fixed to an outer side of the stiffening structure; and an inner shell attached to an inner side of the stiffening structure opposite to the outer side, wherein the stiffening structure has a profiled cross-section as seen in a longitudinal direction transverse to the circumferential direction and forms, together with the inner shell and the outer shell, a plurality of channels arranged side by side in the circumferential direction and each extending in the longitudinal direction. a frame structure extending in a circumferential direction, said frame structure being formed as an annular beam or frame having a first connection portion and a second connection portion spaced apart from said first connection portion along said circumferential direction, wherein the frame structure has a gap between the first connection portion and the second connection portion, said gap being limited by the connection portions (21; 22); a stiffening structure extending between the first and second connection portions (21; 22) of the frame structure along the circumferential direction, which is inserted into the gap of the frame structure and is connected to the first and second connection portions (21; 22) of the frame structure respectively, an outer shell fixed to an outer side of the stiffening structure; and an inner shell attached to an inner side of the stiffening structure opposite to the outer side, wherein the stiffening structure has a profiled cross-section as seen in a longitudinal direction transverse to the circumferential direction and forms, together with the inner shell and the outer shell, a plurality of channels arranged side by side in the circumferential direction and each extending in the longitudinal direction.
Fluid-mixing device, wherein the fluid-mixing device has at least one pre-region, one addition region and one mixing region, wherein the pre-region is arranged before the addition region, wherein the addition region is arranged before the mixing region, wherein a first fluid can be guided in a primary fluid flow from the pre-region to the mixing region via the addition region, wherein the addition region has a smaller cross-sectional area than the pre-region, wherein the addition region has a smaller cross-sectional area than the mixing region, wherein the addition region has at least one first cross-sectional region and one second cross-sectional region, wherein the first cross-sectional region may have a first addition flow, wherein the second cross-sectional region may have a second addition flow, wherein the first cross-sectional region and the second cross-sectional region are connected to one another and are arranged next to one another, wherein the mixing region has at least one first first fluid supply for a second fluid to the first cross-sectional region and has at least one second first fluid supply for a second fluid to the second cross-sectional region, characterized in that the first cross-sectional region and the second cross-sectional region each have a rounded shape and are formed in such a way that a first partial fluid flow can form in the first cross-sectional region and a second partial fluid flow can form in the second cross-sectional region, wherein the first partial fluid flow and the second partial fluid flow are rotating flows.
A sensor, wherein the sensor comprises: a radio frequency identification tag which performs a digital communication with a telemeter and judges whether a preset address code matches with a target address code of the telemeter according to a digital communication signal received from the telemeter in a digital communication mode; and if not matched, the sensor maintains the digital communication mode, and if matched, the sensor is a target sensor, and the radio frequency identification tag of the target sensor turns on a first switch so that the target sensor enters an analog sensing mode; in the analog sensing mode, input of the radio frequency identification tag of the target sensor is in a high impedance state, and the radio frequency identification tag of the target sensor turns off the first switch after an analog sensing module has reflected an analog sensing signal so that the target sensor switches back to the digital communication mode; the first switch which turns on or turns off an analog communication between the analog sensing module and the telemeter; and the analog sensing module which reflects the analog sensing signal to the telemeter in the analog sensing mode. a radio frequency identification tag which performs a digital communication with a telemeter and judges whether a preset address code matches with a target address code of the telemeter according to a digital communication signal received from the telemeter in a digital communication mode; and if not matched, the sensor maintains the digital communication mode, and if matched, the sensor is a target sensor, and the radio frequency identification tag of the target sensor turns on a first switch so that the target sensor enters an analog sensing mode; in the analog sensing mode, input of the radio frequency identification tag of the target sensor is in a high impedance state, and the radio frequency identification tag of the target sensor turns off the first switch after an analog sensing module has reflected an analog sensing signal so that the target sensor switches back to the digital communication mode; the first switch which turns on or turns off an analog communication between the analog sensing module and the telemeter; and the analog sensing module which reflects the analog sensing signal to the telemeter in the analog sensing mode.
A method for processing a reference signal, comprising: obtaining, by a user equipment, UE, a first reference signal resource set, wherein the first signal resource set comprises at least two first reference signal resources; executing, by the UE, an operation of performing a co-location assumption process for at least one antenna port indicated by each first reference signal resource; wherein before the executing, by the UE, the operation of performing the co-location assumption process for the at least one antenna port indicated by each first reference signal resource, the method further comprising: obtaining, by the UE, an antenna port group corresponding to the at least one antenna port indicated by each first reference signal resource, and port number or a port serial number of an antenna port comprised in the antenna port group; determining, by the UE, the at least one antenna port indicated by each first reference signal resource according to the antenna port group, and the port number or the port serial number of the antenna port comprised in the antenna port group; wherein the co-location assumption process comprises assuming that at least one following item is the same: a geographical position of an antenna port; a reference signal power corresponding to an antenna port received by a terminal; a transmitting power of reference signal corresponding to an antenna port; an antenna gain experienced by a reference signal corresponding to an antenna port; a large scale fading experienced by a reference signal corresponding to an antenna port; a channel statistic characteristic experienced by a reference signal corresponding to an antenna port; time that a reference signal corresponding to an antenna port arrives at a terminal; transmitting time of a reference signal corresponding to an antenna port; and a transmitting frequency of a reference signal corresponding to an antenna port. obtaining, by a user equipment, UE, a first reference signal resource set, wherein the first signal resource set comprises at least two first reference signal resources; executing, by the UE, an operation of performing a co-location assumption process for at least one antenna port indicated by each first reference signal resource; obtaining, by the UE, an antenna port group corresponding to the at least one antenna port indicated by each first reference signal resource, and port number or a port serial number of an antenna port comprised in the antenna port group; determining, by the UE, the at least one antenna port indicated by each first reference signal resource according to the antenna port group, and the port number or the port serial number of the antenna port comprised in the antenna port group;
Thrust member for a pedestrian protection device for a motor vehicle, comprising: - a fixed body, which is arranged to be fixed to the vehicle, - a piston, which is movable relative to the fixed body between a rest position and a deployed position, - a pyrotechnic actuator, which is arranged to cause the piston to move from the rest position to the deployed position, characterized in that the piston is crimped to the fixed body in order to be held in the rest position, wherein the fixed body comprises: - a crimping interface (11, 21), which is arranged to allow crimping in order to hold the piston in its rest position, - a stop interface, which is arranged to form an end-of-travel stop for the piston to define the deployed position, and wherein the end-of-travel stop has a passage dimension for the piston which is greater than a passage dimension of the crimping interface. - a fixed body, which is arranged to be fixed to the vehicle, - a piston, which is movable relative to the fixed body between a rest position and a deployed position, - a pyrotechnic actuator, which is arranged to cause the piston to move from the rest position to the deployed position, - a crimping interface (11, 21), which is arranged to allow crimping in order to hold the piston in its rest position, - a stop interface, which is arranged to form an end-of-travel stop for the piston to define the deployed position, and wherein the end-of-travel stop has a passage dimension for the piston which is greater than a passage dimension of the crimping interface.
A device for machining rod-shaped workpieces, for example window profiles or door profiles, which can be moved by means of a transporter in a horizontal plane in the Z-direction, and wherein a machining device with tools is provided in a plane arranged essentially perpendicular to the direction of movement of the workpieces, and spatially aligned in the perpendicular plane in relation to the workpiece, wherein the machining device (3.1) consists of an open circular arc arranged in the perpendicular plane to the workpiece, which as an open flat ring with an open section is rotatably mounted around the workpiece, characterized in that the open flat ring has arranged on it at least one movable carriage, on which a carriage-driving motor as well as a tool are arranged.
A three-dimensional printer, comprising: a roller, configured to perform a planarization process of a 3D printing object; and a sensing device for sensing a cross-sectional layer of the three dimensional printing object, comprising: a ring shaped equipment, having the same axis as the roller and rotating with the roller; a sensor, configured to detect a rotational speed of the ring shape equipment; and a processor, coupled to the sensor, wherein the processor is adapted to determine whether the roller is in contact with the 3D printing object according to the rotational speed of the ring shape equipment, the three-dimensional printer being characterized in that the processor is adapted to detect whether a rotational period of the ring shaped equipment is greater than a predetermined revolutions per minute, RPM, when the rotational period is greater than the predetermined RPM, the processor is adapted to determine that the roller is in contact with the 3D printing object and is adapted to control the roller to have a distance relative to the 3D printing object as to perform the planarization process to the 3D printing object. a roller, configured to perform a planarization process of a 3D printing object; and a sensing device for sensing a cross-sectional layer of the three dimensional printing object, comprising: a ring shaped equipment, having the same axis as the roller and rotating with the roller; a sensor, configured to detect a rotational speed of the ring shape equipment; and a processor, coupled to the sensor, wherein the processor is adapted to determine whether the roller is in contact with the 3D printing object according to the rotational speed of the ring shape equipment, the three-dimensional printer being characterized in that the processor is adapted to detect whether a rotational period of the ring shaped equipment is greater than a predetermined revolutions per minute, RPM, when the rotational period is greater than the predetermined RPM, the processor is adapted to determine that the roller is in contact with the 3D printing object and is adapted to control the roller to have a distance relative to the 3D printing object as to perform the planarization process to the 3D printing object. a ring shaped equipment, having the same axis as the roller and rotating with the roller; a sensor, configured to detect a rotational speed of the ring shape equipment; and a processor, coupled to the sensor, wherein the processor is adapted to determine whether the roller is in contact with the 3D printing object according to the rotational speed of the ring shape equipment, the three-dimensional printer being characterized in that the processor is adapted to detect whether a rotational period of the ring shaped equipment is greater than a predetermined revolutions per minute, RPM, when the rotational period is greater than the predetermined RPM, the processor is adapted to determine that the roller is in contact with the 3D printing object and is adapted to control the roller to have a distance relative to the 3D printing object as to perform the planarization process to the 3D printing object.
A container for a catheter simulator comprising: an accommodating unit for accommodating a liquid, the accommodating unit being defined by side walls (11 to 14) and a bottom surface, a connection unit (11a, 11c) capable of retaining any one of the heart model selected from a four-chamber heart model, a coronary artery model, and a TAVI model (40, 80, 100), the heart model being installed in the accommodating unit in a state of having the accommodating unit filled with a liquid; and an installation part (11d, 12a, 13a) for inserting a catheter from the outside of the container into simulated blood vessels formed integrally with the heart model, wherein the connection unit includes a holding protrusion (11f, 11g) provided on the side wall, the holding protrusion protruding toward the accommodating unit, the heart model is detachable from and reattachable to the holding protrusion provided on the sidewall by inserting and extracting a terminal (21a, 21b) of the heart model, and the holding protrusion retains the heart model that is filled with a liquid in a state of floating in a liquid. an accommodating unit for accommodating a liquid, the accommodating unit being defined by side walls (11 to 14) and a bottom surface, a connection unit (11a, 11c) capable of retaining any one of the heart model selected from a four-chamber heart model, a coronary artery model, and a TAVI model (40, 80, 100), the heart model being installed in the accommodating unit in a state of having the accommodating unit filled with a liquid; and an installation part (11d, 12a, 13a) for inserting a catheter from the outside of the container into simulated blood vessels formed integrally with the heart model, wherein the connection unit includes a holding protrusion (11f, 11g) provided on the side wall, the holding protrusion protruding toward the accommodating unit, the heart model is detachable from and reattachable to the holding protrusion provided on the sidewall by inserting and extracting a terminal (21a, 21b) of the heart model, and the holding protrusion retains the heart model that is filled with a liquid in a state of floating in a liquid.
A method of controlling an over-pressure detection and limitation device (504, 506) configured to prevent an over-pressure condition of pressurized gas being delivered by a respiratory treatment apparatus, the method comprising: setting a pressure limit of the pressure limitation device (504, 506) to a first maximum pressure threshold; and setting the pressure limit of the pressure limitation device (504, 506) to a second maximum pressure threshold in response to a detection of a condition based on a third pressure threshold. setting a pressure limit of the pressure limitation device (504, 506) to a first maximum pressure threshold; and setting the pressure limit of the pressure limitation device (504, 506) to a second maximum pressure threshold in response to a detection of a condition based on a third pressure threshold.
A preparation method of hyperbranched polycarboxylic acid type copolymer cement dispersant, characterized in that Monomer A, B and C undergo the free radical copolymerization in the aqueous medium, wherein the molar ratio of Monomer A, Monomer B and Monomer C shall conform to: B/A=2∼10, C/ (A+B+C) =0.02∼0.08, where Monomer A is expressed by General Formula: where R 1 is hydrogen atom or methyl; X 1 =O, CH 2 O, CH 2 CH 2 O; m is the average addition mole number of epoxy ethane, which is an integer from 5 to 200. Monomer B is expressed by General Formula: where R 2 represents H or COOM; R 3 represents H or CH 3; M represents H, Na, K or NH 4; Monomer C is expressed by General Formula: where R 4 is hydrogen atom or methyl; X 2 =O, CH 2 O, CH 2 CH 2 O; Y=CH 2, CH 2 CH 2, CH(CH 3), CH 2 CH 2 CH 2, CH(CH 3)CH 2, C(CH 3) 2; n is the average addition mole number of epoxy ethane, which is an integer from 5 to 200.
A use of a treatment liquid formed by an aqueous solution of an acid to which a metallic salt is added in such a manner that a conductivity of at least 30 mS/cm results, to remove a biofilm from a component, in particular a bone or dental implant.
A pharmaceutical dosage form which comprises an ester capped lactide, an ester capped glycolide, an ester capped lactide-glycolide polymer, an ester capped block polymer of polyglycolide, an ester capped trimethylene carbonate or an ester capped block polymer of poly-caprolactone and trimethylene carbonate or polyethylene oxide, and is combined with a peptide or protein therapeutic agent in the form of microparticles which are compressed using a pressure of 50,000 to 350,000 psi, wherein 1 psi relates to 6.89476 kPa.
An antibody which binds specifically to a region containing a cleavage site between Arg 41 and Ser 42 in PAR1 (protease activated receptor 1) cleaved by MMP1 (matrix metalloprotease 1) as an epitope, and which inhibits the migration activity and invasion activity of cancer cells, or a fragment of the antibody which has a migration inhibitory activity and an invasion inhibitory activity against cancer cells similar thereto, wherein said antibody specifically recognizes an amino acid sequence of SEQ ID NO: 12.