mhurhangee/ep-ind-claims huggingface dataset:
Screen device comprising: - a screen roller; - a screen which can be rolled onto and unrolled from the screen roller; - a screen guide profile on each lateral side of the screen into which the corresponding lateral side of the screen can be fitted in order to guide said lateral side during the rolling/unrolling movement; and - a securing rail on each lateral side of the screen, comprising: - a bottom; - two upright sides (7a, 7b) which delimit a slot, in which the corresponding screen guide profile is fitted in the mounted position; and - a shoulder (9a, 9b) on both sides of the slot; in which the screen guide profile comprises two flanges (14a, 14b) each of which, in the mounted position, extends at least partly behind a corresponding shoulder (9a, 9b) of the securing rail; whereby the screen device comprises intermediate elements (16a, 16b) which, in the mounted position, extend at least partly between the shoulders (9a, 9b) of at least one securing rail and the corresponding flanges (14a, 14b) of at least one screen guide profile, characterized in that the intermediate elements (16a, 16b) are configured such that their size, in the mounted position measured in the direction from the shoulders (9a, 9b) towards the flanges (14a, 14b), is smaller closer to the screen roller than further away from the screen roller and varies in such a manner that this size increases in the unrolling direction of the screen. - a screen roller; - a screen which can be rolled onto and unrolled from the screen roller; - a screen guide profile on each lateral side of the screen into which the corresponding lateral side of the screen can be fitted in order to guide said lateral side during the rolling/unrolling movement; and - a securing rail on each lateral side of the screen, comprising: - a bottom; - two upright sides (7a, 7b) which delimit a slot, in which the corresponding screen guide profile is fitted in the mounted position; and - a shoulder (9a, 9b) on both sides of the slot;
Method for server-side characterization of a rechargeable battery, which comprises: - obtaining operating values for a capacity of the battery and an impedance of the battery, - based on the operating values: performing at least one state prediction for the battery, wherein a simulation of an electrical state of the battery and a thermal state of the battery is performed and an aging estimate for the capacity and the impedance is determined based on the results, characterized in that: each of the at least one state prediction comprises a plurality of iterations, wherein in each iteration the simulation is performed and the aging estimate for the capacity and the impedance is determined based on the results, wherein the aging estimate from a first iteration of the respective state prediction is used for the simulation in a subsequent second iteration of the respective state prediction. - obtaining operating values for a capacity of the battery and an impedance of the battery, - based on the operating values: performing at least one state prediction for the battery, wherein a simulation of an electrical state of the battery and a thermal state of the battery is performed and an aging estimate for the capacity and the impedance is determined based on the results, characterized in that: each of the at least one state prediction comprises a plurality of iterations, wherein in each iteration the simulation is performed and the aging estimate for the capacity and the impedance is determined based on the results, wherein the aging estimate from a first iteration of the respective state prediction is used for the simulation in a subsequent second iteration of the respective state prediction.
A self-propelled ground milling machine, comprising - a machine frame, an operator platform, a primary drive unit, a ground milling device with a milling drum arranged within a milling drum box and rotatable about a rotation axis, front and rear travel units, wherein at least one of the front and/or rear travel units (5, 6) is connected to the machine frame via a vertically adjustable lifting device; - wherein at least one hydraulic drive circuit is provided for driving at least one of the travel units (5, 6) and/or for driving a milled material conveyor, with at least one main hydraulic pump driven by the primary drive unit and at least one hydraulic motor (13, 13') driven by the main hydraulic pump in a closed hydraulic circuit,; characterized in that - the at least one hydraulic drive circuit has a separation and/or connection point (21A, 21B) upstream and downstream of the at least one hydraulic motor (13, 13'); and - the ground milling machine has an emergency hydraulic pump which is part of a hydraulic emergency supply system; wherein the emergency supply system can be connected to the separation and/or connection point (21A, 21B) for emergency operation of the hydraulic motor (13, 13') such that hydraulic fluid can be conveyed by the emergency hydraulic pump in an open emergency hydraulic circuit to drive the at least one hydraulic motor (13, 13') while bypassing the main hydraulic pump. - a machine frame, an operator platform, a primary drive unit, a ground milling device with a milling drum arranged within a milling drum box and rotatable about a rotation axis, front and rear travel units, wherein at least one of the front and/or rear travel units (5, 6) is connected to the machine frame via a vertically adjustable lifting device; - wherein at least one hydraulic drive circuit is provided for driving at least one of the travel units (5, 6) and/or for driving a milled material conveyor, with at least one main hydraulic pump driven by the primary drive unit and at least one hydraulic motor (13, 13') driven by the main hydraulic pump in a closed hydraulic circuit,; characterized in that - the at least one hydraulic drive circuit has a separation and/or connection point (21A, 21B) upstream and downstream of the at least one hydraulic motor (13, 13'); and - the ground milling machine has an emergency hydraulic pump which is part of a hydraulic emergency supply system;
An echo cancellation apparatus which generates and provides an echo-cancelled signal in which an echo signal is cancelled, the echo signal being (i) generated when an amplified sound of a first speech signal is received and (ii) included in a second speech signal, and the echo-cancelled signal being generated of the second speech signal with the echo signal cancelled, the echo cancellation apparatus comprising: a first echo replica generating unit configured to generate a first echo replica by processing the first speech signal through a filter whose characteristic is equalized with an acoustic transfer function, of the amplified sound, found until the amplified sound is received; a first echo cancelling unit configured to generate a first echo-cancelled signal by subtracting from the second speech signal the first echo replica generated by the first echo replica generating unit, and provide the first echo-cancelled signal; and a filter updating unit configured to (i) generate a nonlinear-converted echo-cancelled signal by performing nonlinear conversion on the first echo-cancelled signal generated by the first echo cancelling unit, and (ii) update the filter characteristic thereby equalizing the filter characteristic with the acoustic transfer function, using the nonlinear-converted echo-cancelled signal, the first speech signal, and a norm of the first speech signal, the norm being obtained by accumulating levels of the first speech signal for a length of the filter. a first echo replica generating unit configured to generate a first echo replica by processing the first speech signal through a filter whose characteristic is equalized with an acoustic transfer function, of the amplified sound, found until the amplified sound is received; a first echo cancelling unit configured to generate a first echo-cancelled signal by subtracting from the second speech signal the first echo replica generated by the first echo replica generating unit, and provide the first echo-cancelled signal; and a filter updating unit configured to (i) generate a nonlinear-converted echo-cancelled signal by performing nonlinear conversion on the first echo-cancelled signal generated by the first echo cancelling unit, and (ii) update the filter characteristic thereby equalizing the filter characteristic with the acoustic transfer function, using the nonlinear-converted echo-cancelled signal, the first speech signal, and a norm of the first speech signal, the norm being obtained by accumulating levels of the first speech signal for a length of the filter.
An eye protector having a center portion defining a center of gaze of a wearer, the eye protector comprising: - a lens configured to protect the wearer from projectiles, the lens having a lens refractive index; - an optically clear stack attached to the lens, the stack comprising at least one removable layer, each removable layer having a removable layer refractive index; and - an optically clear dry mount adhesive layer attaching the stack to the lens, the dry mount adhesive layer forming a continuous and uninterrupted adhesive surface over at least the center portion, the dry mount adhesive layer having a dry mount adhesive refractive index, the dry mount adhesive layer being self-wetting and attaching the stack to the lens so that air between the stack and the lens can be removed after the stack is attached to the lens, and wherein the lens refractive index, the dry mount adhesive refractive index, and each removable layer refractive index are matched to within 0.2. - a lens configured to protect the wearer from projectiles, the lens having a lens refractive index; - an optically clear stack attached to the lens, the stack comprising at least one removable layer, each removable layer having a removable layer refractive index; and - an optically clear dry mount adhesive layer attaching the stack to the lens, the dry mount adhesive layer forming a continuous and uninterrupted adhesive surface over at least the center portion, the dry mount adhesive layer having a dry mount adhesive refractive index, the dry mount adhesive layer being self-wetting and attaching the stack to the lens so that air between the stack and the lens can be removed after the stack is attached to the lens, and
A copolymer for use in the prophylactic or curative treatment of a parenteral viral infection in a subject comprising an acrolein-derived segment and a polyalkylene glycol oligomer segment, the copolymer having a molecular weight of no more than 1000 Daltons, wherein the copolymer is administered systemically.
A method comprising: receiving, at a computing device, sensor data depicting a forward path for an autonomous vehicle, wherein the computing device is positioned remotely from the autonomous vehicle; displaying, by the computing device, a representation of the forward path based on the sensor data; augmenting the representation of the forward path to further depict one or more proposed trajectories available for the autonomous vehicle to perform, wherein each proposed trajectory conveys one or more maneuvers positioned relative to road boundaries in the forward path and is determined by the computing device; receiving a plurality of behavior predictions for one or more objects positioned relative to the forward path; augmenting the representation of the forward path to further convey respective behavior prediction trajectories for the one or more objects; receiving, at the computing device, a selection of a proposed trajectory from the one or more proposed trajectories available for the autonomous vehicle to perform; and providing, by the computing device and to the autonomous vehicle, navigation instructions based on the proposed trajectory. receiving, at a computing device, sensor data depicting a forward path for an autonomous vehicle, wherein the computing device is positioned remotely from the autonomous vehicle; displaying, by the computing device, a representation of the forward path based on the sensor data; augmenting the representation of the forward path to further depict one or more proposed trajectories available for the autonomous vehicle to perform, wherein each proposed trajectory conveys one or more maneuvers positioned relative to road boundaries in the forward path and is determined by the computing device; receiving a plurality of behavior predictions for one or more objects positioned relative to the forward path; augmenting the representation of the forward path to further convey respective behavior prediction trajectories for the one or more objects; receiving, at the computing device, a selection of a proposed trajectory from the one or more proposed trajectories available for the autonomous vehicle to perform; and providing, by the computing device and to the autonomous vehicle, navigation instructions based on the proposed trajectory.
A handheld printer, comprising: a housing body; a feed channel formed through the housing body, the feed channel having an inlet for inserting an object to be imprinted into the feed channel and an outlet for retrieving the imprinted object from the feed channel; at least one first printing device arranged within a first inner wall of the feed channel in the housing body and having a printhead configured to print onto an object to be imprinted fed through the feed channel; a user input device provided at the housing body and having a user interface configured to receive user input commands via the user interface; and a printer controller arranged within the housing body coupled to the user input device and the at least one first printing device, the printer controller being configured to output printing control signals to the at least one first printing device on the basis of the user input commands input to the user input device, characterized in that, the feed channel is formed through the housing body as a hollow passageway, wherein the feed channel has the inner shape of a cuboid and has a rectangular and congruently shaped inlet and outlet opening (3a, 3b) being connected by a tunnel of substantially constant cross-section over the extension of the feed channel through the housing body. a housing body; a feed channel formed through the housing body, the feed channel having an inlet for inserting an object to be imprinted into the feed channel and an outlet for retrieving the imprinted object from the feed channel; at least one first printing device arranged within a first inner wall of the feed channel in the housing body and having a printhead configured to print onto an object to be imprinted fed through the feed channel; a user input device provided at the housing body and having a user interface configured to receive user input commands via the user interface; and a printer controller arranged within the housing body coupled to the user input device and the at least one first printing device, the printer controller being configured to output printing control signals to the at least one first printing device on the basis of the user input commands input to the user input device, characterized in that, the feed channel is formed through the housing body as a hollow passageway, wherein the feed channel has the inner shape of a cuboid and has a rectangular and congruently shaped inlet and outlet opening (3a, 3b) being connected by a tunnel of substantially constant cross-section over the extension of the feed channel through the housing body.
A genetically modified T-cell that expresses a chimeric antigen receptor, wherein an exogenous sequence encoding a CAR is integrated into the genome of the T-cell using one or more nucleases, and further wherein expression of at least one of the endogenous immunological checkpoint genes programmed death receptor PDCD1 gene or CTLA-4 gene is repressed in the T-cell by genetic modification using a targeted nuclease for PD1 or CTLA-4.
Method for managing a lane change of a vehicle equipped with an automated driving system, hereinafter host vehicle, the method comprising the following steps: - determining whether the gap between a first vehicle, or front vehicle, traveling on an adjacent lane, called the target lane, and a second vehicle, or rear vehicle, traveling on the target lane, is sufficient for insertion of the host vehicle under nominal conditions; - if the gap between the front vehicle and the rear vehicle is not sufficient for insertion of the host vehicle under nominal conditions, and if the risk of collision with the rear vehicle is estimated to be significantly higher than the risk of collision with the vehicle in front, changing lanes from the host vehicle to the target lane, by temporarily lowering a set value by a minimum safety gap vis-à-vis the front vehicle from a nominal value to a low value; - when the host vehicle is on the target lane and inserted between the front vehicle and the rear vehicle, gradually increasing the set value of the minimum safety gap with respect to the front vehicle up to its nominal value. - determining whether the gap between a first vehicle, or front vehicle, traveling on an adjacent lane, called the target lane, and a second vehicle, or rear vehicle, traveling on the target lane, is sufficient for insertion of the host vehicle under nominal conditions; - if the gap between the front vehicle and the rear vehicle is not sufficient for insertion of the host vehicle under nominal conditions, and if the risk of collision with the rear vehicle is estimated to be significantly higher than the risk of collision with the vehicle in front, changing lanes from the host vehicle to the target lane, by temporarily lowering a set value by a minimum safety gap vis-à-vis the front vehicle from a nominal value to a low value; - when the host vehicle is on the target lane and inserted between the front vehicle and the rear vehicle, gradually increasing the set value of the minimum safety gap with respect to the front vehicle up to its nominal value.
A system, comprising: a support (110, 210) comprising an extending rigid member (140, 220), a first attachment (170, 280) at a first position on the rigid member (140, 220) to which a first self-retracting lifeline (300, 300a) is attached, the first self-retracting lifeline (300, 300a) comprising a first housing (340, 340a) from which a first lifeline (320, 320a) exits, the first housing (340, 340a) being movable relative to the rigid member (140, 220), and at least a second attachment (170, 284) at a second position on the rigid member (140, 220) to which a second self-retracing lifeline (300, 300a) is attached, the second self-retracting lifeline (300, 300a) comprising a second housing (340, 340a) from which a second lifeline (320, 320a) exits, the second housing (340, 340a) being movable relative to the rigid member (140, 220) independent of the movement of the first housing (340, 340a), the first position being spaced from the second position; and a connector (120, 240) attached to the rigid member (140, 220) to connect the rigid member (140, 220) to an article worn by a user. a support (110, 210) comprising an extending rigid member (140, 220), a first attachment (170, 280) at a first position on the rigid member (140, 220) to which a first self-retracting lifeline (300, 300a) is attached, the first self-retracting lifeline (300, 300a) comprising a first housing (340, 340a) from which a first lifeline (320, 320a) exits, the first housing (340, 340a) being movable relative to the rigid member (140, 220), and at least a second attachment (170, 284) at a second position on the rigid member (140, 220) to which a second self-retracing lifeline (300, 300a) is attached, the second self-retracting lifeline (300, 300a) comprising a second housing (340, 340a) from which a second lifeline (320, 320a) exits, the second housing (340, 340a) being movable relative to the rigid member (140, 220) independent of the movement of the first housing (340, 340a), the first position being spaced from the second position; and a connector (120, 240) attached to the rigid member (140, 220) to connect the rigid member (140, 220) to an article worn by a user.
A solid stabilized catalyst detergent composition in a solid block comprising: at least one alkalinity source; a stabilized catalyst comprising a polymeric matrix of a polymer and a catalyst according to the following formula: [(L p Mn q) n X r]Y s, wherein each L independently is an organic ligand containing at least three nitrogen atoms and/or at least two carboxyl groups that coordinate with the Mn metal; wherein each X independently is a coordinating or bridging group selected from the group consisting of H 2 O, OH -, SH -, HO 2 -, O 2-, O2 2-, S 2-, F -, Cl -, Br, I -, NO 3 -, NO 2 -, SO 4 2-, SO 3 2-, PO 4 3-, N 3 -, CN -, NR 3, NCS -, RCN, RS -, RCO 2 -, RO -, and wherein R is a hydrogen or a C 1 to C 6 alkyl group; wherein p is an integer from 1 to 4; wherein q is an integer from 2; wherein r is an integer from 0 to 6; wherein Y is a counter ion; and wherein s is the number of counter ions, and further comprising an active oxygen source that is catalyzed by the catalyst in a use solution of the composition. at least one alkalinity source; a stabilized catalyst comprising a polymeric matrix of a polymer and a catalyst according to the following formula: [(L p Mn q) n X r]Y s, wherein each L independently is an organic ligand containing at least three nitrogen atoms and/or at least two carboxyl groups that coordinate with the Mn metal; wherein each X independently is a coordinating or bridging group selected from the group consisting of H 2 O, OH -, SH -, HO 2 -, O 2-, O2 2-, S 2-, F -, Cl -, Br, I -, NO 3 -, NO 2 -, SO 4 2-, SO 3 2-, PO 4 3-, N 3 -, CN -, NR 3, NCS -, RCN, RS -, RCO 2 -, RO -, and wherein R is a hydrogen or a C 1 to C 6 alkyl group; wherein p is an integer from 1 to 4; wherein q is an integer from 2; wherein r is an integer from 0 to 6; wherein Y is a counter ion; and wherein s is the number of counter ions, and further comprising an active oxygen source that is catalyzed by the catalyst in a use solution of the composition. wherein each X independently is a coordinating or bridging group selected from the group consisting of H 2 O, OH -, SH -, HO 2 -, O 2-, O2 2-, S 2-, F -, Cl -, Br, I -, NO 3 -, NO 2 -, SO 4 2-, SO 3 2-, PO 4 3-, N 3 -, CN -, NR 3, NCS -, RCN, RS -, RCO 2 -, RO -, and wherein R is a hydrogen or a C 1 to C 6 alkyl group; wherein p is an integer from 1 to 4; wherein q is an integer from 2; wherein r is an integer from 0 to 6; wherein Y is a counter ion; and wherein s is the number of counter ions, and further comprising an active oxygen source that is catalyzed by the catalyst in a use solution of the composition.