mhurhangee/ep-ind-claims huggingface dataset:
A removable single use device for the treatment and/or the isolation of plasma or blood components, the device comprising an apparatus for enriching the fibrinogen content of a plasma fraction, wherein the apparatus comprises three interconnected chambers each of them fitted with an inlet and/or an outlet, and transfer means either in the form of means for controlling the flow of said fluids and/or in the form of means for moving said fluids, the transfer means being provided for transferring fluids from one chamber to another one or to the outside, wherein the apparatus further comprises: - a circuit loop comprising a filtering chamber, a first filtering chamber connection channel, a second filtering chamber connection channel, pipes (444, 444), and valves (14h, 14a, 14c, 14d), the filtering chamber being provided with internal filtering means arranged to filter off water initially present in the plasma fraction, the valves (14h, 14a, 14c, 14d) being arranged for controlling the flow of the plasma fraction along the circuit loop, in such a way that the circuit loop can allow multiple passes of the plasma fraction over the filtering means, - a first expandable storing chamber connected to the filtering chamber in such a way that the filtered-off water may flow into it, and - a second expandable chamber connected to the circuit loop and the filtering chamber in such a way as to establish a closed circuit between said chambers (10 333 and 16), the second expandable chamber being arranged to reduce in size so as to prevent a negative pressure build-up as the filtered-off water leaves the circuit loop causing the volume of the plasma fraction to reduce. - a circuit loop comprising a filtering chamber, a first filtering chamber connection channel, a second filtering chamber connection channel, pipes (444, 444), and valves (14h, 14a, 14c, 14d), the filtering chamber being provided with internal filtering means arranged to filter off water initially present in the plasma fraction, the valves (14h, 14a, 14c, 14d) being arranged for controlling the flow of the plasma fraction along the circuit loop, in such a way that the circuit loop can allow multiple passes of the plasma fraction over the filtering means, - a first expandable storing chamber connected to the filtering chamber in such a way that the filtered-off water may flow into it, and - a second expandable chamber connected to the circuit loop and the filtering chamber in such a way as to establish a closed circuit between said chambers (10 333 and 16), the second expandable chamber being arranged to reduce in size so as to prevent a negative pressure build-up as the filtered-off water leaves the circuit loop causing the volume of the plasma fraction to reduce.
A battery spacer, comprising: a spacer body having a tab passing area located at a middle part thereof and adapted to receive an end of an electric core of the battery, and receiving areas adjacent to two ends of the tab passing area in a longitudinal direction of the spacer body, the receiving area providing enough space for the rounded corner of the electric core; wherein each receiving area has a trough-like structure surrounded by an end wall, two side walls and a top wall of the spacer body and the tab passing area, at least one tab aperture is formed in the tab passing area and penetrates the spacer body. a spacer body having a tab passing area located at a middle part thereof and adapted to receive an end of an electric core of the battery, and receiving areas adjacent to two ends of the tab passing area in a longitudinal direction of the spacer body, the receiving area providing enough space for the rounded corner of the electric core; wherein each receiving area has a trough-like structure surrounded by an end wall, two side walls and a top wall of the spacer body and the tab passing area, at least one tab aperture is formed in the tab passing area and penetrates the spacer body.
Method for operating a parking brake that comprises an actuator having an adjusting element and having an electric motor, wherein the electric motor is operatively connected to the adjusting element so as to displace said adjusting element, wherein the electric motor is controlled in order to displace the adjusting element along a predetermined movement path, and wherein an actual movement path of the adjusting element is monitored so as to control the electric motor, wherein the actual movement path of the adjusting element is determined in dependence upon a motor current (i) and/or a motor voltage (u) of the electric motor, characterized in that a rotational speed signal of the electric motor is determined from the motor current (i) and the motor voltage (u) and the actual movement path is determined in dependence upon said rotational speed signal.
Protection device, configured to protect a power supply battery of a motor vehicle with electric or hybrid drive against lateral shocks, comprising, in the form of a single piece, a protection element and a shock absorber of crash-box type, the protection element taking the form of a sheet, or plate, planar or nonplanar, notably convex on the side of the top surface of the protection element, of truncated rectangular form.
An aluminum alloy product having a graft copolymer pretreatment composition bonded to at least a portion of a surface of the aluminum alloy product, wherein the graft copolymer pretreatment composition, comprises: a polymer backbone; at least one surface binding or bonding moiety attached to the polymer backbone and configured to bind or bond the polymer backbone to a first surface of a the aluminum alloy product, wherein the at least one surface binding or bonding moiety comprises a phosphorous-containing moiety and in particular a phosphoric acid, a phosphonic acid or a phosphonate group; at least one functional moiety attached to the polymer backbone and configured to provide at least a first surface functionalization to the first surface of the aluminum alloy product; and at least one second functional moiety attached to the polymer backbone and configured to provide at least a second surface functionalization to the first surface of the aluminum alloy product, wherein the at least one functional moiety and the at least one second functional moiety provide a multi-functional surface coating and wherein the graft copolymer pretreatment composition is crosslinked with a crosslinking agent, wherein the crosslinking agent is a zirconium salt or a zirconium complex. a polymer backbone; at least one surface binding or bonding moiety attached to the polymer backbone and configured to bind or bond the polymer backbone to a first surface of a the aluminum alloy product, wherein the at least one surface binding or bonding moiety comprises a phosphorous-containing moiety and in particular a phosphoric acid, a phosphonic acid or a phosphonate group; at least one functional moiety attached to the polymer backbone and configured to provide at least a first surface functionalization to the first surface of the aluminum alloy product; and at least one second functional moiety attached to the polymer backbone and configured to provide at least a second surface functionalization to the first surface of the aluminum alloy product, wherein the at least one functional moiety and the at least one second functional moiety provide a multi-functional surface coating and wherein the graft copolymer pretreatment composition is crosslinked with a crosslinking agent, wherein the crosslinking agent is a zirconium salt or a zirconium complex.
A method of making a stent comprising the steps of: forming a precursor stent using micro-cladding, wherein the precursor stent comprises a plurality of bands made of a first material disposed adjacent to each other, wherein each band is attached to an adjacent band by a plurality of first connectors (324, 324') configured to remain and a plurality of second connectors (326, 326') configured to be removed, wherein the plurality of second connectors (326, 326') are made by functionally grading the first material with a second material to create embrittlement in the plurality of second connectors (326, 326'); processing the precursor stent to remove the plurality of second connectors (326, 326') without adversely affecting the bands and the plurality of first connectors (324, 324'). forming a precursor stent using micro-cladding, wherein the precursor stent comprises a plurality of bands made of a first material disposed adjacent to each other, wherein each band is attached to an adjacent band by a plurality of first connectors (324, 324') configured to remain and a plurality of second connectors (326, 326') configured to be removed, wherein the plurality of second connectors (326, 326') are made by functionally grading the first material with a second material to create embrittlement in the plurality of second connectors (326, 326'); processing the precursor stent to remove the plurality of second connectors (326, 326') without adversely affecting the bands and the plurality of first connectors (324, 324').
A method for configuring an antenna system (110, 110a,..., 110k) comprising individual antenna elements (111a, 111b) arranged in at least two antenna subarrays (112a, 112b), wherein each pair of antenna subarrays has a respective first spatial separation, and wherein each pair of the individual antenna elements has a respective second spatial separation, the method being performed by a network device, the method comprising: obtaining channel measurements for each of the at least two antenna subarrays; characterised by: determining channel covariance information between the subarrays using the obtained channel measurements; determining channel covariance information between all individual antenna elements of the antenna system by interpolating the channel covariance information between the subarrays according to a spatial relation between all first spatial separations and all second spatial separations; and controlling combining of the individual antenna elements of the antenna system based on the determined channel covariance information between all the individual antenna elements. determining channel covariance information between the subarrays using the obtained channel measurements; determining channel covariance information between all individual antenna elements of the antenna system by interpolating the channel covariance information between the subarrays according to a spatial relation between all first spatial separations and all second spatial separations; and controlling combining of the individual antenna elements of the antenna system based on the determined channel covariance information between all the individual antenna elements.
Method for controlling an elevator system using a computer-controlled mobile device, wherein the elevator system comprises an elevator shaft having multiple shaft thresholds each assigned to one floor, an elevator car which has a car threshold and can be moved along the elevator shaft, and a control unit for moving the elevator car, wherein the mobile device has an evaluation unit which is designed to communicate with the control unit, wherein the method comprises: receiving, in the evaluation unit, information (306, 308, 312) generated using at least one component (122, 124, 125; 302, 304, 310) of the mobile device as a result of a height deviation between the car threshold and a current shaft threshold located opposite the car threshold, wherein the information (306, 308, 312) comprises an input by a user in an application executed by the mobile device for controlling the elevator system, wherein the control information comprises a control command (126, 128) to the control unit on the basis of the input by the user; evaluating the information (306, 308, 312) and generating control information for moving the elevator car; and sending the control information to the control unit in order to move the elevator car in such a way that the height deviation between the car threshold and the current shaft threshold is minimized. receiving, in the evaluation unit, information (306, 308, 312) generated using at least one component (122, 124, 125; 302, 304, 310) of the mobile device as a result of a height deviation between the car threshold and a current shaft threshold located opposite the car threshold, wherein the information (306, 308, 312) comprises an input by a user in an application executed by the mobile device for controlling the elevator system, wherein the control information comprises a control command (126, 128) to the control unit on the basis of the input by the user; evaluating the information (306, 308, 312) and generating control information for moving the elevator car; and sending the control information to the control unit in order to move the elevator car in such a way that the height deviation between the car threshold and the current shaft threshold is minimized.
A double frame antenna comprising: a display metallic frame; a conductive block having at least one surface-mount electronic component mounted thereon; a first metallic frame having a continuous annular structure with an inner void region, the first metallic frame being disposed around a periphery of the conductive block and separated from the conductive block by a gap having a predetermined distance, the first metallic frame overlapping an edge of an upper surface of the conductive block; a second metallic frame having a continuous annular structure with an inner void area and shorted with the first metallic frame; and one or more antenna feeds disposed between the first metallic frame and the conductive block whereby the first metallic frame is grounded to the display metallic frame at a first connection point and the second metallic frame is grounded to the display metallic frame at a second connection point and a first antenna element is provided that is connected to the second metallic frame and a second antenna element is provided that is connected to the first metallic frame. a display metallic frame; a conductive block having at least one surface-mount electronic component mounted thereon; a first metallic frame having a continuous annular structure with an inner void region, the first metallic frame being disposed around a periphery of the conductive block and separated from the conductive block by a gap having a predetermined distance, the first metallic frame overlapping an edge of an upper surface of the conductive block; a second metallic frame having a continuous annular structure with an inner void area and shorted with the first metallic frame; and one or more antenna feeds disposed between the first metallic frame and the conductive block whereby the first metallic frame is grounded to the display metallic frame at a first connection point and the second metallic frame is grounded to the display metallic frame at a second connection point and a first antenna element is provided that is connected to the second metallic frame and a second antenna element is provided that is connected to the first metallic frame.
A system for dynamically mitigating resonance in a transport refrigeration unit during a mission, wherein the TRU comprises TRU components including one or more of TRU engine mounts and/or a plurality of mounted parts, the system comprising: a TRU controller configured for operating a TRU engine during the mission according to initial baseline parameters, including running the TRU engine at a preset operational frequency, and while operating the TRU engine, contemporaneously performing steps comprising: obtaining a first set of data that comprises real time measurements from one or more accelerometers (144,146) installed in the TRU; converting the real time measurements to a second set of data that comprises real time shock and vibration data; comparing the second set of data with first reference data indicative of an acceptable range of vibrations for the TRU components; comparing the second set of data with second reference data indicative of component failure; processing the second set of data in a control loop to determine updated baseline parameters that avoid resonance detected in the first set of data to run the TRU engine at frequencies that dampen and/or avoid frequencies causing resonance in the TRU components; and operating the TRU engine according to the updated baseline parameters. obtaining a first set of data that comprises real time measurements from one or more accelerometers (144,146) installed in the TRU; converting the real time measurements to a second set of data that comprises real time shock and vibration data; comparing the second set of data with first reference data indicative of an acceptable range of vibrations for the TRU components; comparing the second set of data with second reference data indicative of component failure; processing the second set of data in a control loop to determine updated baseline parameters that avoid resonance detected in the first set of data to run the TRU engine at frequencies that dampen and/or avoid frequencies causing resonance in the TRU components; and operating the TRU engine according to the updated baseline parameters.
A method for providing a processed cellulose-comprising starting material, in particular a starting material for forming a, in particular regenerated, cellulosic molded body, wherein the method comprises: supplying a waste textile-comprising and cellulose-comprising starting material which comprises cellulosic fibers; processing the waste textile-comprising and cellulose-comprising starting material to obtain the processed cellulose-comprising starting material such that the cellulose fibers of the processed cellulose-comprising starting material comprise a predetermined fiber length distribution, wherein the predetermined fiber length distribution comprises an average length-weighted fiber length in the range 0.75 to 2.5 mm, wherein the waste textile-comprising and cellulose-comprising starting material comprises non-cellulosic foreign matter, in particular synthetic fibers, and wherein the method is characterized in that the processing further comprises: mechanically separating at least a portion of the non-cellulosic foreign matter; and/or chemically separating at least a portion of the non-cellulosic foreign matter, such that at least a portion of the non-cellulosic foreign matter is retained in the processed cellulose-comprising starting material. supplying a waste textile-comprising and cellulose-comprising starting material which comprises cellulosic fibers; processing the waste textile-comprising and cellulose-comprising starting material to obtain the processed cellulose-comprising starting material such that the cellulose fibers of the processed cellulose-comprising starting material comprise a predetermined fiber length distribution, wherein the predetermined fiber length distribution comprises an average length-weighted fiber length in the range 0.75 to 2.5 mm, wherein the waste textile-comprising and cellulose-comprising starting material comprises non-cellulosic foreign matter, in particular synthetic fibers, and wherein the method is characterized in that the processing further comprises: mechanically separating at least a portion of the non-cellulosic foreign matter; and/or chemically separating at least a portion of the non-cellulosic foreign matter, mechanically separating at least a portion of the non-cellulosic foreign matter; and/or chemically separating at least a portion of the non-cellulosic foreign matter, such that at least a portion of the non-cellulosic foreign matter is retained in the processed cellulose-comprising starting material.
A system for cell culture and/or biomanufacturing comprising i. a base unit comprising: a frame supporting walls, and a movable platform to define a chamber therein; ii. a stacking unit comprising: a frame supporting side walls, a back wall, a ceiling and a movable platform to define an upper and a lower chamber therein, said lower chamber being dimensioned to receive said base unit therein; iii. a guard unit comprising: a frame supporting side walls, a movable platform and an openable front wall to define an upper and a lower chamber therein, said lower chamber being dimensioned to partially receive said stacking unit therein; and legs supporting said frame and dimensioned to receive the movable base unit therebetween; wherein the base unit, the stacking unit and the guard unit interconnect to provide a plurality of workstations and/or storage bays for a bioreactor. i. a base unit comprising: a frame supporting walls, and a movable platform to define a chamber therein; a frame supporting walls, and a movable platform to define a chamber therein; ii. a stacking unit comprising: a frame supporting side walls, a back wall, a ceiling and a movable platform to define an upper and a lower chamber therein, said lower chamber being dimensioned to receive said base unit therein; a frame supporting side walls, a back wall, a ceiling and a movable platform to define an upper and a lower chamber therein, said lower chamber being dimensioned to receive said base unit therein; iii. a guard unit comprising: a frame supporting side walls, a movable platform and an openable front wall to define an upper and a lower chamber therein, said lower chamber being dimensioned to partially receive said stacking unit therein; and legs supporting said frame and dimensioned to receive the movable base unit therebetween; a frame supporting side walls, a movable platform and an openable front wall to define an upper and a lower chamber therein, said lower chamber being dimensioned to partially receive said stacking unit therein; and legs supporting said frame and dimensioned to receive the movable base unit therebetween;
A direct lighting type panel lamp, comprising a base plate, at least one light source board arranged on the base plate, at least one rivet connected between the at least one light source board and the base plate, and a diffusion plate connected to the base plate, wherein the base plate is provided with at least one first riveting through hole, the light source board is provided with at least one second riveting through hole, the at least one rivet passes through the at least one first riveting through hole and the at least one second riveting through hole, so that the at least one light source board is in riveting connection to the base plate, and the base plate is provided with at least one mounting groove, and each of the at least one light source board is embedded in one of the at least one mounting groove; characterized in that an inner side wall of each of the at least one mounting groove is provided with at least one retreated notch.