mhurhangee/patent-ind-claim-en huggingface dataset:
A packaging for holding packaged goods, having a packaging body containing multiple packaging sides (10, 11, 11', 11") to create a substantially closed packaging volume, wherein the packaging body has a first packaging part and at least one second packaging part forming a boundary line (G) between an edge section of the first packaging part and an edge section of the second packaging part , having a carrying handle which is connected to the packaging in a fixing section by means of locking adhesive elements arranged at a distance (a) from each other, and which has a carrying loop for grasping the carrying handle in a non-fixing section, at least two locking adhesive elements respectively rest in an adhered state solely on an edge section of the first packaging part and on an edge section of the second packaging part , and the carrying handle runs along the boundary line (G) of the packaging body , characterized in that - the carrying handle has the locking adhesive elements solely at the ends of said carrying handle, - the non-fixing section of the carrying handle joins the locking adhesive elements , said non-fixing section extending from the one locking adhesive element to the other locking adhesive element , - wherein an area of the non-fixing section of the carrying strap that runs on one packaging side (11, 11"), to which the locking adhesive elements are fixed, rests flush and in a non-adhered state on the opposite packaging sides of the packaging body in a transport position, and - wherein an area of the non-fixing section of the carrying strap that runs on one packaging side (11") that connects the opposite packaging sides is arranged in the transport position at a distance from the connecting packaging side . - the carrying handle has the locking adhesive elements solely at the ends of said carrying handle, - the non-fixing section of the carrying handle joins the locking adhesive elements , said non-fixing section extending from the one locking adhesive element to the other locking adhesive element , - wherein an area of the non-fixing section of the carrying strap that runs on one packaging side (11, 11"), to which the locking adhesive elements are fixed, rests flush and in a non-adhered state on the opposite packaging sides of the packaging body in a transport position, and - wherein an area of the non-fixing section of the carrying strap that runs on one packaging side (11") that connects the opposite packaging sides is arranged in the transport position at a distance from the connecting packaging side . - wherein an area of the non-fixing section of the carrying strap that runs on one packaging side (11, 11"), to which the locking adhesive elements are fixed, rests flush and in a non-adhered state on the opposite packaging sides of the packaging body in a transport position, and - wherein an area of the non-fixing section of the carrying strap that runs on one packaging side (11") that connects the opposite packaging sides is arranged in the transport position at a distance from the connecting packaging side .
A genetically-modified rodent whose genome comprises at least one chromosome comprising a sequence encoding a chimeric cytotoxic T-lymphocyte-associated protein 4 (CTLA-4) at an endogenous CTLA-4 gene locus, wherein the chimeric CTLA-4 comprises an amino acid sequence that is identical to SEQ ID NO: 41, wherein the sequence encoding the chimeric CTLA-4 is operably linked to an endogenous regulatory element at the endogenous CTLA-4 gene locus in the at least one chromosome, and wherein the rodent has one or more cells expressing the chimeric CTLA-4. wherein the chimeric CTLA-4 comprises an amino acid sequence that is identical to SEQ ID NO: 41, wherein the sequence encoding the chimeric CTLA-4 is operably linked to an endogenous regulatory element at the endogenous CTLA-4 gene locus in the at least one chromosome, and wherein the rodent has one or more cells expressing the chimeric CTLA-4.
Procedure designed to control the excitation energy in a coil arrangement of a flowmeter with an energy buffer system designed to store energy, wherein said system is designed as a two-wire field device, said system being designed to generate a magnetic field B going through a medium depending on the excitation energy, wherein the flowmeter has multiple operating states it switches between, said states describing a cycle-controlled excitation current in a time interval , wherein at least a first operating state is operated with a first power, wherein in said state the coil arrangement is excited during a first cycle with an excitation current with a first maximum current intensity , wherein the cycle further has a first pulse pause , wherein said procedure comprises the following steps: A) Storage of a surplus power that is fed in and exceeds a minimum power for the operation of the device, for the purpose of operating the coil arrangement during a cycle depending on the power supplied in the energy buffer system; wherein the energy buffer system is at least partially charged during the first pulse pause and at least partially discharged during the excitation of the current intensity, wherein the at least partial discharging of the energy buffer system takes place during the excitation of the current intensity, such that said system is continuously charged by the surplus power if more power is supplied to the system than is needed to run the first operating state; and B) Change to a second operating state in which the coil arrangement is excited during a second cycle with an excitation current with a second maximum current intensity, wherein the cycle has a second pulse pause that is shorter than the first pulse pause, wherein the second maximum current intensity is greater than the first maximum current intensity. A) Storage of a surplus power that is fed in and exceeds a minimum power for the operation of the device, for the purpose of operating the coil arrangement during a cycle depending on the power supplied in the energy buffer system; wherein the energy buffer system is at least partially charged during the first pulse pause and at least partially discharged during the excitation of the current intensity, wherein the at least partial discharging of the energy buffer system takes place during the excitation of the current intensity, such that said system is continuously charged by the surplus power if more power is supplied to the system than is needed to run the first operating state; and B) Change to a second operating state in which the coil arrangement is excited during a second cycle with an excitation current with a second maximum current intensity, wherein the cycle has a second pulse pause that is shorter than the first pulse pause, wherein the second maximum current intensity is greater than the first maximum current intensity. wherein the cycle has a second pulse pause that is shorter than the first pulse pause, wherein the second maximum current intensity is greater than the first maximum current intensity.
An on-shore gas turbine plant comprising: a gas turbine module comprised of: a baseplate supporting at least a heavy duty gas turbine having a rated power of not less than 80 MW and a load drivingly connected to said gas turbine ; a structure surrounding said gas turbine and said load and connected to said baseplate ; wherein said baseplate comprises a plurality of longitudinal beams , extending parallel to a direction of a rotation axis of said gas turbine, and a plurality of transverse beams , extending transversely to said rotation axis; said longitudinal beams and said transverse beams defining a primary lattice structure, on which said gas turbine and said load are placed; and a foundation , having a planar surface of support for said gas turbine module, said planar surface of support being discontinuous and said foundation having channels running parallel to said longitudinal beams , said channels being arranged and configured for the insertion of lifting and moving trailers . a gas turbine module comprised of: a baseplate supporting at least a heavy duty gas turbine having a rated power of not less than 80 MW and a load drivingly connected to said gas turbine ; a structure surrounding said gas turbine and said load and connected to said baseplate ; wherein said baseplate comprises a plurality of longitudinal beams , extending parallel to a direction of a rotation axis of said gas turbine, and a plurality of transverse beams , extending transversely to said rotation axis; said longitudinal beams and said transverse beams defining a primary lattice structure, on which said gas turbine and said load are placed; and a foundation , having a planar surface of support for said gas turbine module, said planar surface of support being discontinuous and said foundation having channels running parallel to said longitudinal beams , said channels being arranged and configured for the insertion of lifting and moving trailers .
A device for the automated picking up and laying of a segment forming the lining of a tunnel, intended to be coupled to a tunnel-boring machine provided with a segment erector , said erector comprising actuators equipped with position sensors , characterized in that it comprises: - a controller configured to communicate with an automated system of the tunnel-boring machine adapted to control the actuation of the erector, and to receive measurement data from the erector sensors, - a three-dimensional vision system comprising at least four laser profilometers , intended to be attached to the erector so as to (i) determine a deviation in position and in inclination between the erector and a segment to be gripped and (ii) acquire the set of data analyzing the deviations in the position and inclination of a segment (V) to be laid which is held by the erector relative to at least one segment and/or one ring of segments previously laid, said three-dimensional vision system being coupled to the controller to transmit said measurement data thereto, the controller being configured to receive a segment laying plan and, thanks to a computer planner adapted to process said analysis data of the three-dimensional vision system , the measurement data of the erector sensors and said laying plan, to determine a path of the erector in order to place said segment (V) to be laid opposite said segment and/or ring (A) of segments previously laid, and to communicate movement orders to the automated system of the tunnel-boring machine in order to actuate the erector to pick up the segment (V) to be laid and displace it according to said path. - a controller configured to communicate with an automated system of the tunnel-boring machine adapted to control the actuation of the erector, and to receive measurement data from the erector sensors, - a three-dimensional vision system comprising at least four laser profilometers , intended to be attached to the erector so as to (i) determine a deviation in position and in inclination between the erector and a segment to be gripped and (ii) acquire the set of data analyzing the deviations in the position and inclination of a segment (V) to be laid which is held by the erector relative to at least one segment and/or one ring of segments previously laid, said three-dimensional vision system being coupled to the controller to transmit said measurement data thereto, the controller being configured to receive a segment laying plan and, thanks to a computer planner adapted to process said analysis data of the three-dimensional vision system , the measurement data of the erector sensors and said laying plan, to determine a path of the erector in order to place said segment (V) to be laid opposite said segment and/or ring (A) of segments previously laid, and to communicate movement orders to the automated system of the tunnel-boring machine in order to actuate the erector to pick up the segment (V) to be laid and displace it according to said path.
A notification system which notifies a state of a lifting magnet attached to a magnet working machine and having an attraction quantity changing in accordance with an electric supply, the notification system comprising: a notifier which notifies an operator of the state of the lifting magnet ; a detector which detects at least one of a voltage, an electric current, and an electric power supplied for exciting the lifting magnet ; a determination part which determines, based on detection data from the detector , whether the attraction quantity of the lifting magnet reaches a maximum attraction quantity after excitation of the lifting magnet is started; and a notification control part which causes the notifier to notify that the attraction quantity reaches the maximum attraction quantity when the determination part determines that the attraction quantity reaches the maximum attraction quantity, wherein the determination part performs, based on the detection data, calculations of the attraction quantity one after another, after the excitation is started, and the notification control part causes the notifier to notify a current attraction quantity obtained in each of the calculations performed by the determination part one after another. a notifier which notifies an operator of the state of the lifting magnet ; a detector which detects at least one of a voltage, an electric current, and an electric power supplied for exciting the lifting magnet ; a determination part which determines, based on detection data from the detector , whether the attraction quantity of the lifting magnet reaches a maximum attraction quantity after excitation of the lifting magnet is started; and a notification control part which causes the notifier to notify that the attraction quantity reaches the maximum attraction quantity when the determination part determines that the attraction quantity reaches the maximum attraction quantity, wherein the determination part performs, based on the detection data, calculations of the attraction quantity one after another, after the excitation is started, and the notification control part causes the notifier to notify a current attraction quantity obtained in each of the calculations performed by the determination part one after another.
Process for producing an electrode stack for a battery cell , comprising the following steps: - provision of a strip-shaped anode element comprising an anodic power outlet lead onto which an anodic active material has been applied, - provision of a strip-shaped cathode element comprising a cathodic power outlet lead onto which a cathodic active material has been applied, - provision of a strip-shaped separator element , - production of a strip-shaped composite element by application of the separator element onto the anode element , - cutting of the composite element to give plate-shaped composite segments and cutting of the cathode element to give plate-shaped cathode segments , - stacking of segments in such a way that composite segments and cathode segments are arranged alternately. - provision of a strip-shaped anode element comprising an anodic power outlet lead onto which an anodic active material has been applied, - provision of a strip-shaped cathode element comprising a cathodic power outlet lead onto which a cathodic active material has been applied, - provision of a strip-shaped separator element , - production of a strip-shaped composite element by application of the separator element onto the anode element , - cutting of the composite element to give plate-shaped composite segments and cutting of the cathode element to give plate-shaped cathode segments , - stacking of segments in such a way that composite segments and cathode segments are arranged alternately.
An on-demand control system for an automated vehicle , the system comprising an on-demand driving pedal and a control unit for controlling the on-demand driving pedal , the on-demand driving pedal comprising an actuator comprising an electro-active polymer and a stretch sensor , the control unit being configured to shape the on-demand driving pedal , the control unit being configured to collect information from the stretch sensor to send driving commands to the vehicle allowing driving control of the vehicle by a user through interaction of the user with the on-demand driving pedal and to retract the on-demand driving pedal .
A method for carrying out a wash cycle in a filtration device comprising a filter bed of porous filtration media units, an upper plate , a first influent pipe and a scouring fluid inlet pipe comprising a plurality of openings on a top portion of the scouring fluid inlet pipe and a scouring fluid nozzle in communication with at least one of the openings on the scouring fluid inlet pipe , wherein the porous filtration media is a compressible filtration media, the method comprising the steps of: a. directing a scouring fluid from the scouring fluid nozzle into the filter bed, wherein the scouring fluid nozzles comprise a restriction point to provide a jet force to the scouring fluid , b. directing a particle removal fluid from the first influent pipe , wherein the introduced scouring fluid rises through the particle removal fluid , impacting the porous filtration media along the way, wherein the scouring fluid exits the particle removal fluid and enters a liquid free zone at the top of the filtration device, wherein a part of the particle removal fluid is carried by the scouring fluid upwards away from the bulk particle removal fluid creating a transition zone without a clearly defined interface between the scouring fluid and the particle removal fluid , wherein the location of the transition zone is controlled such that a portion of the transition zone extends below the upper plate . a. directing a scouring fluid from the scouring fluid nozzle into the filter bed, wherein the scouring fluid nozzles comprise a restriction point to provide a jet force to the scouring fluid , b. directing a particle removal fluid from the first influent pipe , wherein the introduced scouring fluid rises through the particle removal fluid , impacting the porous filtration media along the way, wherein the scouring fluid exits the particle removal fluid and enters a liquid free zone at the top of the filtration device, wherein a part of the particle removal fluid is carried by the scouring fluid upwards away from the bulk particle removal fluid creating a transition zone without a clearly defined interface between the scouring fluid and the particle removal fluid , wherein the location of the transition zone is controlled such that a portion of the transition zone extends below the upper plate .
A protein, comprising: a Fab arm that binds to a first epitope, a binding domain (BD) that binds to a second epitope, and an Fc region comprising CH2 and CH3 domains; wherein the protein comprises a chimeric heavy chain comprising the following polypeptide domains, from N-terminus to C-terminus VH1-CH1-L1-BD-L2-Fc-L2-BD-L1-CH1-VH1; wherein VH1 comprises the heavy chain variable domain of the Fab, CH1 comprises the heavy chain constant domain 1 of the Fab, L1 comprises the first linker polypeptide, BD comprises an scFv, L2 comprises the second linker polypeptide, and Fc comprises a CH2 and a CH3 domain and wherein the protein is bivalent for binding to each of the first and second epitopes, and wherein the L1 comprises the amino acid sequence EPKSCDKT (SEQ ID NO: 4) or EPKSCGKT (SEQ ID NO: 6) or EPKSC (SEQ ID NO: 38) and/or wherein the L2 comprises the amino acid sequence EPKSVDKTHTCPPCP (SEQ ID NO: 12) or DKTHTCPPCP (SEQ ID NO: 40). a Fab arm that binds to a first epitope, a binding domain (BD) that binds to a second epitope, and an Fc region comprising CH2 and CH3 domains;
An electric axle drive unit for a motor vehicle, comprising an electric motor , wherein a stator of the electric motor is securely received in a housing and a rotor of the electric motor is rotatably mounted relative to the stator and is rotatably coupled or able to be rotatably coupled to a wheel hub , and comprising a braking device received in or on the housing and operatively connected to the wheel hub , characterised in that the braking device furthermore has a first brake component securely supported on the housing , a second brake component coupled in a non-rotatable manner to the wheel hub , arranged and designed for frictional connection with the first brake component , and an actuating unit which is designed to apply a braking force that connects the brake components to one another and is attached to the housing , wherein at least one of the brake components has a support part and a brake disc element which is connected in a non-rotatable manner to the support part and which is received in a displaceable manner in an axial direction of a rotational axis of the wheel hub relative to the support part .
An anti-biofouling system comprising a light source configured to provide UV radiation and a waveguide element , wherein the waveguide element comprises radiation transmissive material , wherein the waveguide element comprises a first face and a second face with the radiation transmissive material configured between the first face and the second face , wherein the radiation transmissive material is transmissive for the UV radiation, wherein the radiation transmissive material is a matrix material for a phase of another composition than the radiation transmissive material , wherein the phase is available in the matrix as regions , wherein the waveguide element has a plate-like shape, wherein the light source is at least partly embedded in the waveguide element , and wherein the light source and the waveguide element are adapted for propagation of at least part of the UV radiation through the radiation transmissive material and subsequent emanation from at least one of the first face and the second face , characterized in that the regions have mean particle radii selected from the range of 350-1200 nm and a volume fraction selected from the range of 0.01-0.2 vol. %.