mhurhangee/ep-ind-claims huggingface dataset:
A three-dimensional printing apparatus, comprising: a frame; a control module; a nozzle module, movably disposed in the frame and electrically connected to the control module, wherein the control module drives the nozzle module to move in the frame and define a printing space, and the control module drives the nozzle module to print a three-dimensional object in the printing space; and a feeding module, detachably assembled to the frame and electrically connected to the control module, wherein the control module is adapted to drive the feeding module to transfer a medium to the printing space or transfer the medium to pass by the printing space and drive the nozzle module to print a two-dimensional pattern on the medium, wherein the feeding module comprises a feed-in member, a printing member, a feed-out member, and a plurality of transfer rollers (R1∼R3) respectively disposed to the feed-in member and the feed-out member, and the medium is transferred from the feed-in member to the printing member before the two-dimensional pattern is printed, and the medium is transferred from the printing member to the feed-out member after the two-dimensional pattern is printed. a frame; a control module; a nozzle module, movably disposed in the frame and electrically connected to the control module, wherein the control module drives the nozzle module to move in the frame and define a printing space, and the control module drives the nozzle module to print a three-dimensional object in the printing space; and a feeding module, detachably assembled to the frame and electrically connected to the control module, wherein the control module is adapted to drive the feeding module to transfer a medium to the printing space or transfer the medium to pass by the printing space and drive the nozzle module to print a two-dimensional pattern on the medium, wherein the feeding module comprises a feed-in member, a printing member, a feed-out member, and a plurality of transfer rollers (R1∼R3) respectively disposed to the feed-in member and the feed-out member, and the medium is transferred from the feed-in member to the printing member before the two-dimensional pattern is printed, and the medium is transferred from the printing member to the feed-out member after the two-dimensional pattern is printed.
An interface connector for connecting to a rail vehicle, the rail vehicle comprising a coupling arrangement for coupling electrical power and data processing connections of the rail vehicle to the interface connector, the interface connector comprising: a controller; a coupling arrangement for coupling land-based electrical power and data processing connections to the rail vehicle; means for connecting the coupling arrangement of the interface connector to the coupling arrangement of the rail vehicle upon contact between the coupling arrangements; and a stowing arrangement that is arranged to be actuated by the controller to move the coupling arrangement of the interface connector between a stowed position and an in-use position, wherein, in the stowed position, a top surface of the coupling arrangement of the interface connector is positioned below a lowest bottom surface of the rail vehicle, and in the in-use position, the coupling arrangement of the interface connector is positioned such that it is substantially on the same horizontal axis as the coupling arrangement of the rail vehicle. a controller; a coupling arrangement for coupling land-based electrical power and data processing connections to the rail vehicle; means for connecting the coupling arrangement of the interface connector to the coupling arrangement of the rail vehicle upon contact between the coupling arrangements; and a stowing arrangement that is arranged to be actuated by the controller to move the coupling arrangement of the interface connector between a stowed position and an in-use position, wherein, in the stowed position, a top surface of the coupling arrangement of the interface connector is positioned below a lowest bottom surface of the rail vehicle, and in the in-use position, the coupling arrangement of the interface connector is positioned such that it is substantially on the same horizontal axis as the coupling arrangement of the rail vehicle.
Cleaning basket system for use in a cleaning device for cleaning items to be cleaned, comprising: - at least one cleaning basket, which is open towards the top, for receiving the items to be cleaned; and - at least one holding-down device, wherein the holding-down device is specified for acting on the items to be cleaned from above and to press the latter against the cleaning basket; wherein the holding-down device is connected to the cleaning basket and mounted so as to be pivotable about at least one pivot axis, characterized in that the holding-down device has a frame, wherein a plurality of flexible holding-down elements extend within the frame, wherein the holding-down elements are selected from the group consisting of: chains; cables; belts; straps. - at least one cleaning basket, which is open towards the top, for receiving the items to be cleaned; and - at least one holding-down device, wherein the holding-down device is specified for acting on the items to be cleaned from above and to press the latter against the cleaning basket;
A method for synthesizing an oligonucleotide, comprising: exposing a nucleic acid attached to a solid support to a nucleotide analog in the presence of a nucleotidyl transferase enzyme and in the absence of a nucleic acid template, thereby creating an oligonucleotide analog, wherein the nucleotide analog comprises an unmodified 3' hydroxyl and a cleavable terminating group comprising a biocompatible charged molecule, and wherein the oligonucleotide analog is not a substrate for said nucleotidyl transferase enzyme when the cleavable terminating group is attached, but the oligonucleotide analog is a substrate for said nucleotidyl transferase enzyme when the terminating group is not attached. exposing a nucleic acid attached to a solid support to a nucleotide analog in the presence of a nucleotidyl transferase enzyme and in the absence of a nucleic acid template, thereby creating an oligonucleotide analog, wherein the nucleotide analog comprises an unmodified 3' hydroxyl and a cleavable terminating group comprising a biocompatible charged molecule, and wherein the oligonucleotide analog is not a substrate for said nucleotidyl transferase enzyme when the cleavable terminating group is attached, but the oligonucleotide analog is a substrate for said nucleotidyl transferase enzyme when the terminating group is not attached.
A therapeutically effective amount of cannabidiolic acid (CBDA) for use in the treatment of epilepsy, wherein the CBDA is in the form of a botanical drug substance such that the CBDA is present at greater than 60% of the total extract (w/w).
A refrigeration device, comprising: a door, having a pair of rails (9a, 9b); a door shelf, moving along the rails (9a, 9b) in a vertical direction; a retaining mechanism, for stopping, in at least one direction, the door shelf at a join-up position on the rail (9a, 9b), a synchronization mechanism for making the door shelf move along the rails (9a, 9b) synchronously in the vertical direction, and an unblocking mechanism, for releasing the door shelf from a current join-up position, wherein the join-up position is disposed in the front surface of the rail (9a, 9b), and the retaining mechanism is elastically pivotable and designed in a manner that the door shelf can be adjusted upwards when the unblocking mechanism is not actuated, wherein the retaining mechanism automatically restores its initial state because of elasticity, when the door shelf is raised to a next join-up position, and wherein the synchronization mechanism is separated from the unblocking mechanism, characterized in that the synchronization mechanism comprises a gear shaft disposed on the door shelf and a rack disposed on the rail (9a, 9b), and a gear of the gear shaft is in meshing cooperation with the rack, and that the rack is disposed at the back surface of the rail (9a, 9b). a door, having a pair of rails (9a, 9b); a door shelf, moving along the rails (9a, 9b) in a vertical direction; a retaining mechanism, for stopping, in at least one direction, the door shelf at a join-up position on the rail (9a, 9b), a synchronization mechanism for making the door shelf move along the rails (9a, 9b) synchronously in the vertical direction, and an unblocking mechanism, for releasing the door shelf from a current join-up position, wherein the join-up position is disposed in the front surface of the rail (9a, 9b), and the retaining mechanism is elastically pivotable and designed in a manner that the door shelf can be adjusted upwards when the unblocking mechanism is not actuated, wherein the retaining mechanism automatically restores its initial state because of elasticity, when the door shelf is raised to a next join-up position, and wherein the synchronization mechanism is separated from the unblocking mechanism, characterized in that the synchronization mechanism comprises a gear shaft disposed on the door shelf and a rack disposed on the rail (9a, 9b), and a gear of the gear shaft is in meshing cooperation with the rack, and that the rack is disposed at the back surface of the rail (9a, 9b).
Metal heat exchanger tube comprising a tube wall and peripheral ribs on the outside of the tube, which have a rib foot, rib sides and a rib tip, the rib foot protruding substantially radially from the tube wall, and the rib sides being provided with additional structural elements which are arranged laterally on the rib side, first material projections, which extend substantially in the axial direction and radial direction and which extend beyond the rib foot in the axial direction, adjoining second material projections, which extend substantially in the axial direction and peripheral direction of the tube, the first and second material projections (41, 42) having a common boundary line, characterised in that the axial extension of the first material projections along the boundary line is shorter than the axial extension of the second material projections.
A chimeric antigen receptor comprising: (a) a first polypeptide comprising an antigen-binding domain; a transmembrane domain; cereblon or a functional portion thereof, wherein said cereblon or a functional portion thereof is capable of binding to a cereblon-binding compound; and a primary cell signaling domain, wherein said first polypeptide does not comprise a costimulatory domain; and (b) a second polypeptide comprising a transmembrane domain; Aiolos or a functional portion thereof or Ikaros or a functional portion thereof; and a costimulatory domain; wherein in the presence of said cereblon-binding compound, said first polypeptide and said second polypeptide form a heterodimer. (a) a first polypeptide comprising an antigen-binding domain; a transmembrane domain; cereblon or a functional portion thereof, wherein said cereblon or a functional portion thereof is capable of binding to a cereblon-binding compound; and a primary cell signaling domain, wherein said first polypeptide does not comprise a costimulatory domain; and (b) a second polypeptide comprising a transmembrane domain; Aiolos or a functional portion thereof or Ikaros or a functional portion thereof; and a costimulatory domain;
A method for a user equipment, UE, to transmit acknowledgement information together with data information to a base station during a transmission time interval, TTI, the acknowledgement information initially having a first set of acknowledgement information bits, AIBs, the method comprising the steps of: determining a number of nominal resources for transmission of the first set of AIBs; comparing (510, 650) the number of nominal resources for the transmission of the first set of AIBs to a number of resources available to the UE for transmission of the acknowledgement information; transmitting (520, 670) the first set of AIBs if the number of nominal resources is less than or equal to the number of available resources; selecting a second set of AIBs from the first set of AIBs and performing one or more bundling operations over respective one or more distinct subsets of AIBs in the second set of AIBs to obtain a third set of AIBs if the number of nominal resources is greater than the number of available resources, wherein at least one of the one or more bundling operations generates a smaller number of AIBs than a number of AIBs in the respective distinct subset of AIBs; transmitting the third set of AIBs and a fourth set of AIBs, wherein the fourth set of AIBs is obtained from AIBs that belong in the first set but not in the second set. determining a number of nominal resources for transmission of the first set of AIBs; comparing (510, 650) the number of nominal resources for the transmission of the first set of AIBs to a number of resources available to the UE for transmission of the acknowledgement information; transmitting (520, 670) the first set of AIBs if the number of nominal resources is less than or equal to the number of available resources; selecting a second set of AIBs from the first set of AIBs and performing one or more bundling operations over respective one or more distinct subsets of AIBs in the second set of AIBs to obtain a third set of AIBs if the number of nominal resources is greater than the number of available resources, wherein at least one of the one or more bundling operations generates a smaller number of AIBs than a number of AIBs in the respective distinct subset of AIBs; transmitting the third set of AIBs and a fourth set of AIBs, wherein the fourth set of AIBs is obtained from AIBs that belong in the first set but not in the second set.
A method of aiming a grenade launcher at a real target, comprising: determining distance to the real target; calculating a trajectory to hit the real target; displaying a representative target representing the real target through a weapon sight that is coupled to a barrel of the grenade launcher; and aiming the barrel toward the representative target thereby aiming the grenade launcher to launch a projectile to hit the real target; and characterized by the representative target being displayed on the display by aiming the sight at a drone in direct sight with the real target and positioned to serve as the representative target. determining distance to the real target; calculating a trajectory to hit the real target; displaying a representative target representing the real target through a weapon sight that is coupled to a barrel of the grenade launcher; and aiming the barrel toward the representative target thereby aiming the grenade launcher to launch a projectile to hit the real target; and characterized by the representative target being displayed on the display by aiming the sight at a drone in direct sight with the real target and positioned to serve as the representative target.
A device for melting polymeric material, comprising: a barrel having an upstream end and a downstream end; a first material source; a second material source; a screw having at least a first plasticizing zone extending along a first length of an exterior portion of the screw for plasticizing material from the first material source to convey a first melt toward the downstream end, and a second plasticizing zone extending along a second length of the exterior portion of the screw for plasticizing material from the second material source to convey a second melt toward the downstream end, such that the first length and the second length are non-overlapping portions of the screw; separation means for separating the first melt from the second melt; wherein the separation means comprises a conduit through which the first melt flows from the first plasticizing zone to an accumulation space in the barrel and wherein each of the first melt and the second melt flows through at least one non-return valve (36, 38) into the accumulation space in the barrel; and movement means for moving along a longitudinal axis of the barrel; wherein the screw further comprises an elongated tip having a shape complementary to, and smaller than, a portion of the shape of the exit orifice of the barrel; such that the movement means causes the elongated tip to be in close proximity with an exit orifice of the barrel so that material conveyed through the elongated tip displaces material in the accumulation space toward an upstream end of the accumulation space. a barrel having an upstream end and a downstream end; a first material source; a second material source; a screw having at least a first plasticizing zone extending along a first length of an exterior portion of the screw for plasticizing material from the first material source to convey a first melt toward the downstream end, and a second plasticizing zone extending along a second length of the exterior portion of the screw for plasticizing material from the second material source to convey a second melt toward the downstream end, such that the first length and the second length are non-overlapping portions of the screw; separation means for separating the first melt from the second melt; wherein the separation means comprises a conduit through which the first melt flows from the first plasticizing zone to an accumulation space in the barrel and wherein each of the first melt and the second melt flows through at least one non-return valve (36, 38) into the accumulation space in the barrel; and movement means for moving along a longitudinal axis of the barrel; wherein the screw further comprises an elongated tip having a shape complementary to, and smaller than, a portion of the shape of the exit orifice of the barrel; such that the movement means causes the elongated tip to be in close proximity with an exit orifice of the barrel so that material conveyed through the elongated tip displaces material in the accumulation space toward an upstream end of the accumulation space.
A method comprising: - optically tracking the position and orientation of a welding torch relative to a workpiece via an optical sensing device; the welding torch having a set of visual markers disposed thereon; - determining an orientation of a display of the welding torch relative to a welding joint of the workpiece; - displaying, on the display of the welding torch during a welding operation, a graphical representation of a welding parameter as a position of the welding torch changes, the orientation of the welding torch changes, a movement of the welding torch changes, or some combination thereof, wherein the graphical representation of the welding parameter is associated with the position of the welding torch relative to the joint, the orientation of the welding torch relative to the joint, the movement of the welding torch relative to the joint, or some combination thereof; - determining a change of orientation of the display relative to the joint; - rotating the graphical representation of the welding parameter on the display based at least in part on the determined change of orientation of the display of the welding torch relative to the joint, wherein determining the change of orientation of the display of the welding torch comprises - detecting, via the sensing device, a signal of said set of visual markers such that said signal is suitable to determine a corresponding rigid body model of said set of visual markers; and - using the rigid body model for determining the change of orientation of the display of the welding torch with regard to the joint. - optically tracking the position and orientation of a welding torch relative to a workpiece via an optical sensing device; the welding torch having a set of visual markers disposed thereon; - determining an orientation of a display of the welding torch relative to a welding joint of the workpiece; - displaying, on the display of the welding torch during a welding operation, a graphical representation of a welding parameter as a position of the welding torch changes, the orientation of the welding torch changes, a movement of the welding torch changes, or some combination thereof, wherein the graphical representation of the welding parameter is associated with the position of the welding torch relative to the joint, the orientation of the welding torch relative to the joint, the movement of the welding torch relative to the joint, or some combination thereof; - determining a change of orientation of the display relative to the joint; - rotating the graphical representation of the welding parameter on the display based at least in part on the determined change of orientation of the display of the welding torch relative to the joint, wherein determining the change of orientation of the display of the welding torch comprises - detecting, via the sensing device, a signal of said set of visual markers such that said signal is suitable to determine a corresponding rigid body model of said set of visual markers; and - using the rigid body model for determining the change of orientation of the display of the welding torch with regard to the joint.
Method for slicing a monocrystalline semiconductor layer from a semiconductor single crystal comprising: - providing a semiconductor single crystal having a uniform crystal structure; - locally modifying the crystal structure within a separating plane in the semiconductor single crystal into an altered microstructure state by means of irradiation using a laser, wherein the laser radiation is focused into a punctiform region in the separating plane; - removing the modified separating plane by means of selective etching. - providing a semiconductor single crystal having a uniform crystal structure; - locally modifying the crystal structure within a separating plane in the semiconductor single crystal into an altered microstructure state by means of irradiation using a laser, wherein the laser radiation is focused into a punctiform region in the separating plane; - removing the modified separating plane by means of selective etching.
An integrated spectral sensing device, comprising: a first substrate comprising an attenuated total internal reflection ATR, element, a microfluidic channel, and a channel interface corresponding to a boundary between the ATR element and the microfluidic channel formed therein, the ATR element configured to receive input light and to produce output light based on total internal reflection of the input light at the channel interface, the output light being attenuated by an evanescent wave produced by a sample contained within the microfluidic channel based on the total internal reflection of the input light; a spectrometer configured to produce an interference beam, the interference beam corresponding to the input light or being produced based on the output light; and a detector configured to detect a spectrum of the interference beam or the output light; characterized in that the channel interface is formed at sidewalls (1708a, 1708b) of the ATR element. a first substrate comprising an attenuated total internal reflection ATR, element, a microfluidic channel, and a channel interface corresponding to a boundary between the ATR element and the microfluidic channel formed therein, the ATR element configured to receive input light and to produce output light based on total internal reflection of the input light at the channel interface, the output light being attenuated by an evanescent wave produced by a sample contained within the microfluidic channel based on the total internal reflection of the input light; a spectrometer configured to produce an interference beam, the interference beam corresponding to the input light or being produced based on the output light; and a detector configured to detect a spectrum of the interference beam or the output light;