mhurhangee/patent-ind-claim-en huggingface dataset:
Battery cell , comprising a cell housing , which has a bursting opening , and an electrode unit , which has an anode and a cathode , wherein the anode and the cathode each comprise a plurality of layers, which are placed one above the other in alternation, wherein the electrode unit has a bottom side , at which the layers of the anode and the cathode are bent over, and an open front side opposite the bottom side , characterized in that the anode is connected at a first narrow side of the electrode unit to a first collector , in that the cathode is connected at a second narrow side of the electrode unit , said second narrow side being opposite the first narrow side , to a second collector , and in that the front side faces towards the bursting opening .
Computer-implemented method for exchanging information among distributed computer nodes connected in a specific network, the method implementing a Directed Acyclic Graph, DAG, consensus algorithm, being a Hashgraph consensus algorithm, via using a gossip about gossip protocol, the method comprising steps for - making a first given node (N 1 ) select a second given node (N 4 ) randomly and send reference information ; - determining based on the reference information which node events are in front of the other (N 1 ); the method being characterized by - If the reference information implies that the events of the first given node (N 1 ) are in front of the events of the second given node (N 4 ), --then sending a cancellation information to the first given node (N 1 ), preventing, in consequence, the first given node (N 1 ) from sending DAG-event information to the second given node (N 4 ); - If the reference information implies that the events of the second given node (N 4 ) are in front of the events of the first given node (N 1 ), --then making the first given node (N 1 ) send DAG-event information to the second given node (N 4 ); -- then making the second given node (N 4 ) send DAG-event information to the first given node (N 1 ); - and so on for other nodes, so as to synchronise and propagate the DAG-event information through the network. - making a first given node (N 1 ) select a second given node (N 4 ) randomly and send reference information ; - determining based on the reference information which node events are in front of the other (N 1 ); the method being characterized by - If the reference information implies that the events of the first given node (N 1 ) are in front of the events of the second given node (N 4 ), --then sending a cancellation information to the first given node (N 1 ), preventing, in consequence, the first given node (N 1 ) from sending DAG-event information to the second given node (N 4 ); --then sending a cancellation information to the first given node (N 1 ), preventing, in consequence, the first given node (N 1 ) from sending DAG-event information to the second given node (N 4 ); - If the reference information implies that the events of the second given node (N 4 ) are in front of the events of the first given node (N 1 ), --then making the first given node (N 1 ) send DAG-event information to the second given node (N 4 ); -- then making the second given node (N 4 ) send DAG-event information to the first given node (N 1 ); --then making the first given node (N 1 ) send DAG-event information to the second given node (N 4 ); -- then making the second given node (N 4 ) send DAG-event information to the first given node (N 1 ); - and so on for other nodes, so as to synchronise and propagate the DAG-event information through the network.
A kit for preparing a library of nucleic acids having adapter sequences for sequencing, the kit comprising: a first oligonucleotide having a first tail sequence, a first common sequence, a first unique identifier sequence, and a first variable length punctuation mark; a second oligonucleotide having a second tail sequence, a second common sequence complimentary to the first common sequence, a second unique identifier sequence complimentary to the first unique identifier sequence , and a second variable length punctuation mark complimentary to the first variable length punctuation mark; a first primer having a first sample identifier sequence and a first priming sequence at a 3' end of the first primer, the first priming sequence including the first tail sequence of the first oligonucleotide; and a second primer having a second sample identifier sequence and a second priming sequence at a 3' end of the second primer, the second priming sequence being complimentary to the second tail sequence of the second oligonucleotide. a first oligonucleotide having a first tail sequence, a first common sequence, a first unique identifier sequence, and a first variable length punctuation mark; a second oligonucleotide having a second tail sequence, a second common sequence complimentary to the first common sequence, a second unique identifier sequence complimentary to the first unique identifier sequence , and a second variable length punctuation mark complimentary to the first variable length punctuation mark; a first primer having a first sample identifier sequence and a first priming sequence at a 3' end of the first primer, the first priming sequence including the first tail sequence of the first oligonucleotide; and a second primer having a second sample identifier sequence and a second priming sequence at a 3' end of the second primer, the second priming sequence being complimentary to the second tail sequence of the second oligonucleotide.
Method for liquid jet decoating of a surface of a workpiece by way of a compressor unit , which compresses a liquid for generating a liquid jet, and by way of a nozzle , which is connected to the compressor unit and which has an exit opening through which the compressed liquid exits in the form of a liquid jet , and by way of an interrupter unit , which can interrupt or enable a flow of the compressed liquid to the exit opening , characterized by the following method steps: - compressing the liquid by way of the compressor unit , - moving the exit opening towards the surface of the workpiece up to a point at a processing distance (d) therefrom, wherein the processing distance is set in such a way that the liquid jet , without damaging the workpiece itself, detaches from the surface of the workpiece the coating to be removed, - alternately enabling and interrupting the liquid jet from the exit opening by way of the interrupter unit , wherein, at the same time, the nozzle is moved relative to the workpiece in a processing direction , wherein - the processing angle (α) between the liquid jet and the processing direction is 60° to 80°, and - the pulse duration (t p ) of the liquid jet is 100 to 1000 μs. - compressing the liquid by way of the compressor unit , - moving the exit opening towards the surface of the workpiece up to a point at a processing distance (d) therefrom, wherein the processing distance is set in such a way that the liquid jet , without damaging the workpiece itself, detaches from the surface of the workpiece the coating to be removed, - alternately enabling and interrupting the liquid jet from the exit opening by way of the interrupter unit , wherein, at the same time, the nozzle is moved relative to the workpiece in a processing direction , wherein - the processing angle (α) between the liquid jet and the processing direction is 60° to 80°, and - the pulse duration (t p ) of the liquid jet is 100 to 1000 μs.
A device for fastening facade elements , wherein said device has a plate which, in the fastened state, extends in a vertical direction (z) of a length (b) as well as in a horizontal direction (y) and may be fastened onto a house wall or a support structure , wherein, formed at its lower end, the plate has a quadrangular profile chamber when considered in a vertical sectional view, including four consecutive side walls with different lengths which are successively denominated a, b1, c, and d and which extend in a horizontal direction (y), wherein in the fastened state, the side wall c lies above the side wall a, characterised in that the side wall b1 of the profile chamber is part of the plate and the angle (α) between the adjacent side walls a and b1 is the only right angle in the quadrangular profile chamber , in that the angle (β) between the adjacent side walls b and c is an obtuse angle, in that the length of the side wall c is shorter than the length of the side wall a, and in that the side wall b1 has a notch provided therein.
A ceria-based composite fine particle dispersion comprising ceria-based composite fine particles having an average particle size of 50 to 350 nm and having characteristic features of to : each of the ceria-based composite fine particles comprises a mother particle having a core particle, a cerium-containing silica layer on a surface of the mother particle, and child particles dispersed inside the cerium-containing silica layer, the core particle is primarily composed of amorphous silica, and the child particles are primarily composed of crystalline ceria; the child particles have a coefficient of variation (CV value) of 16 to 35% in their particle size distribution; the ceria-based composite fine particles have a mass ratio between silica and ceria of 100:11 to 316; a ceria crystal phase is the only crystal phase detected when the ceria-based composite fine particles are subjected to powder X-ray diffractometry in an X-ray difffractometer at a wavelength of 1.5419 Angstroms; and an average crystallite size of the crystalline ceria, as measured by subjecting the ceria-based composite fine particles to powder X-ray diffractometry in an X-ray diffractometer at a wavelength of 1.5419 Angstroms, is 10 to 25 nm. each of the ceria-based composite fine particles comprises a mother particle having a core particle, a cerium-containing silica layer on a surface of the mother particle, and child particles dispersed inside the cerium-containing silica layer, the core particle is primarily composed of amorphous silica, and the child particles are primarily composed of crystalline ceria; the child particles have a coefficient of variation (CV value) of 16 to 35% in their particle size distribution; the ceria-based composite fine particles have a mass ratio between silica and ceria of 100:11 to 316; a ceria crystal phase is the only crystal phase detected when the ceria-based composite fine particles are subjected to powder X-ray diffractometry in an X-ray difffractometer at a wavelength of 1.5419 Angstroms; and an average crystallite size of the crystalline ceria, as measured by subjecting the ceria-based composite fine particles to powder X-ray diffractometry in an X-ray diffractometer at a wavelength of 1.5419 Angstroms, is 10 to 25 nm.
Method for soil compaction with a construction machine , wherein - a support cable is guided along a mast , - the support cable is wound and unwound by means of a rotatably mounted winch drum of a cable winch , - the winch drum is rotatably driven by means of a winch drive , and - a compacting element is arranged on the support cable and is moved vertically by the support cable , wherein the support cable is unwound from the winch drum of the cable winch and the compacting element is lowered on the support cable from a position above a ground surface up to the ground surface, wherein the compacting element strikes the ground surface and compacting the soil in this process, characterised in that - after the compacting element strikes the ground, the support cable is first tensioned in the region of the cable winch and then, before the compacting element is lifted up from the ground again, the support cable is automatically unwound by the control unit from the winch drum by a certain amount, which can preferably be set by the machine driver. - a support cable is guided along a mast , - the support cable is wound and unwound by means of a rotatably mounted winch drum of a cable winch , - the winch drum is rotatably driven by means of a winch drive , and - a compacting element is arranged on the support cable and is moved vertically by the support cable , wherein the support cable is unwound from the winch drum of the cable winch and the compacting element is lowered on the support cable from a position above a ground surface up to the ground surface, wherein the compacting element strikes the ground surface and compacting the soil in this process, characterised in that - after the compacting element strikes the ground, the support cable is first tensioned in the region of the cable winch and then, before the compacting element is lifted up from the ground again, the support cable is automatically unwound by the control unit from the winch drum by a certain amount, which can preferably be set by the machine driver.
A card processing system , comprising: a first card processing mechanism that is configured to perform a processing operation on a plastic card , the first card processing mechanism includes a first mechanical card transport mechanism that is configured to transport plastic cards along a first card travel path through the first card processing mechanism ; a second card processing mechanism that is configured to perform a processing operation on a plastic card , the second card processing mechanism is located downstream of the first card processing mechanism and includes a second mechanical card transport mechanism that is configured to transport plastic cards along a second card travel path through the second card processing mechanism ; wherein the card processing comprises at least one card buffer disposed between the first card processing mechanism and the second card processing mechanism , the at least one card buffer includes a mechanical card transport mechanism that transports a plastic card along a card travel path, the card travel path of the at least one card buffer is colinear with the first card travel path through the first card processing mechanism and colinear with the second card travel path through the second card processing mechanism , wherein the mechanical card transport mechanism of the at least one card buffer is independently logically controlled from the first mechanical card transport mechanism and the second mechanical card transport mechanism . a first card processing mechanism that is configured to perform a processing operation on a plastic card , the first card processing mechanism includes a first mechanical card transport mechanism that is configured to transport plastic cards along a first card travel path through the first card processing mechanism ; a second card processing mechanism that is configured to perform a processing operation on a plastic card , the second card processing mechanism is located downstream of the first card processing mechanism and includes a second mechanical card transport mechanism that is configured to transport plastic cards along a second card travel path through the second card processing mechanism ; wherein the card processing comprises at least one card buffer disposed between the first card processing mechanism and the second card processing mechanism , the at least one card buffer includes a mechanical card transport mechanism that transports a plastic card along a card travel path, the card travel path of the at least one card buffer is colinear with the first card travel path through the first card processing mechanism and colinear with the second card travel path through the second card processing mechanism , wherein the mechanical card transport mechanism of the at least one card buffer is independently logically controlled from the first mechanical card transport mechanism and the second mechanical card transport mechanism .
A truck comprising: an air guiding channel extending between an inlet opening at a front side of the truck and an outlet opening at a bottom side of the truck ; and a heat exchanger arranged in a substantially horizontal orientation or in an orientation with an angle to a horizontal less than or equal to 45°, preferably less than or equal to 25°, in the air guiding channel for heat exchange with air flowing through the air guiding channel , characterised in that the inlet opening is arranged centrally between left and right outer edges of the front side at the front side, and the inlet opening is arranged at a vehicle front of the truck ; the outlet opening is arranged centrally between left and right outer edges of the underside at the underside, and the outlet opening is arranged at a vehicle underbody of the truck ; the truck comprises a cab delimiting the truck downwardly; and the heat exchanger , the air guiding channel , the inlet opening and the outlet opening are included in the cab . an air guiding channel extending between an inlet opening at a front side of the truck and an outlet opening at a bottom side of the truck ; and a heat exchanger arranged in a substantially horizontal orientation or in an orientation with an angle to a horizontal less than or equal to 45°, preferably less than or equal to 25°, in the air guiding channel for heat exchange with air flowing through the air guiding channel , characterised in that the inlet opening is arranged centrally between left and right outer edges of the front side at the front side, and the inlet opening is arranged at a vehicle front of the truck ; the outlet opening is arranged centrally between left and right outer edges of the underside at the underside, and the outlet opening is arranged at a vehicle underbody of the truck ; the truck comprises a cab delimiting the truck downwardly; and the heat exchanger , the air guiding channel , the inlet opening and the outlet opening are included in the cab .
An assembly method of a switch device including a rotatable knob that is provided to be rotatable around a first axis (X1) and to be capable of swinging around a second axis (X2) in parallel with the first axis (X1), a magnet that is disposed coaxially with the second axis (X2) and is configured to rotate in conjunction with the rotation around the first axis (X1) of the rotatable knob , a magnetic sensor that is provided on a fixed-side member and is disposed to face an outer periphery of the magnet , a gear train (G) configured to transmit the rotation of the rotatable knob to the magnet , and a holder configured to support the rotatable knob , the magnet , and the gear train (G), the gear train (G) including a first gear configured to rotate integrally with the rotatable knob, a second gear configured to rotate integrally with the magnet, and a transmission gear provided on a rotation transmission path of the first gear and the second gear , the assembly method comprising the steps of: rotatably supporting the transmittion gear by the holder with the magnet in a state in which the transmission gear is meshed with the second gear ; positioning an angular position around the second axis (X2) of the magnet , with a magnet for positioning (MG); and supporting the rotatable knob rotatably with the holder by meshing the first gear with the transmission gear after the positioning of the magnet . a rotatable knob that is provided to be rotatable around a first axis (X1) and to be capable of swinging around a second axis (X2) in parallel with the first axis (X1), a magnet that is disposed coaxially with the second axis (X2) and is configured to rotate in conjunction with the rotation around the first axis (X1) of the rotatable knob , a magnetic sensor that is provided on a fixed-side member and is disposed to face an outer periphery of the magnet , a gear train (G) configured to transmit the rotation of the rotatable knob to the magnet , and a holder configured to support the rotatable knob , the magnet , and the gear train (G), the gear train (G) including a first gear configured to rotate integrally with the rotatable knob, a second gear configured to rotate integrally with the magnet, and a transmission gear provided on a rotation transmission path of the first gear and the second gear , the assembly method comprising the steps of: rotatably supporting the transmittion gear by the holder with the magnet in a state in which the transmission gear is meshed with the second gear ; positioning an angular position around the second axis (X2) of the magnet , with a magnet for positioning (MG); and supporting the rotatable knob rotatably with the holder by meshing the first gear with the transmission gear after the positioning of the magnet . rotatably supporting the transmittion gear by the holder with the magnet in a state in which the transmission gear is meshed with the second gear ; positioning an angular position around the second axis (X2) of the magnet , with a magnet for positioning (MG); and supporting the rotatable knob rotatably with the holder by meshing the first gear with the transmission gear after the positioning of the magnet .
Method for repairing rotor blades of a gas turbine, comprising at least the following steps in the stated order: a) providing a rotor blade to be repaired; b) removing at least one damaged portion of a damaged blade tip from the rotor blade to be repaired, forming a separation surface which is measured after the or each damaged portion or the damaged blade tip is removed from the rotor blade, wherein, when an actual contour of the separation surface identified thereby deviates by more than a defined amount from a desired contour of the separation surface determined by the CAD design data of the rotor blade, the CAD design data is adapted to the actual contour, wherein a transitional profile between the actual contour and the desired contour is identified; c) successively building up the or each removed portion or the entire blade tip on the separation surface of the rotor blade by means of a rapid manufacturing method using three-dimensional CAD design data of the rotor blade, wherein, as a rapid manufacturing method, a two-step process is carried out repeatedly, in which in each first step a uniform powder bed made of a metal powder is formed, which metal powder is formed of the same alloy base material as the rotor blade to be repaired, and in a second step metal powder of the powder bed is selectively welded on on the basis of the adapted three-dimensional CAD design data. a) providing a rotor blade to be repaired; b) removing at least one damaged portion of a damaged blade tip from the rotor blade to be repaired, forming a separation surface which is measured after the or each damaged portion or the damaged blade tip is removed from the rotor blade, wherein, when an actual contour of the separation surface identified thereby deviates by more than a defined amount from a desired contour of the separation surface determined by the CAD design data of the rotor blade, the CAD design data is adapted to the actual contour, wherein a transitional profile between the actual contour and the desired contour is identified; c) successively building up the or each removed portion or the entire blade tip on the separation surface of the rotor blade by means of a rapid manufacturing method using three-dimensional CAD design data of the rotor blade, wherein, as a rapid manufacturing method, a two-step process is carried out repeatedly, in which in each first step a uniform powder bed made of a metal powder is formed, which metal powder is formed of the same alloy base material as the rotor blade to be repaired, and in a second step metal powder of the powder bed is selectively welded on on the basis of the adapted three-dimensional CAD design data.