mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling an electromagnetic drive of a switching device by means of a program, wherein a processor configured by the program carries out the following steps: Measuring a control voltage applied to the switching device on the input side (S12); Activating the electromagnetic drive in response to the measured control voltage (S14-S16, S14, S34); and the characterising step: Setting a rated voltage range depending on the measured control voltage (S18-S24). Measuring a control voltage applied to the switching device on the input side (S12); Activating the electromagnetic drive in response to the measured control voltage (S14-S16, S14, S34); and the characterising step: Setting a rated voltage range depending on the measured control voltage (S18-S24).
Electrical network with at least one electronic switch for disconnecting a current flow between a first and a second connection , a load and an energy source , wherein the electronic switch has - a third connection , - a semiconductor switch , - a fuse and - a short-circuiter , wherein the semiconductor switch has two semiconductors, which can each switch off a current of different polarity, wherein a series circuit of the fuse and the semiconductor switch is arranged between the first connection and the second connection and a series circuit of the fuse and the short-circuiter is arranged between the first connection and the third connection , wherein a further short-circuiter is arranged between the second connection and the third connection , wherein the energy source is connected to the first connection and the third connection of the electronic switch , wherein the load is connected to the second connection and the third connection , wherein the load is capable of feedback. - a third connection , - a semiconductor switch , - a fuse and - a short-circuiter ,
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station , configuration information, wherein the configuration information includes: information on a plurality of first values, k0, for indicating a first slot offset between a physical downlink control channel, PDCCH, and a physical downlink shared channel, PDSCH, scheduled by the PDCCH, information on a plurality of second values, k2, for indicating a second slot offset between the PDCCH and a physical uplink shared channel, PUSCH, scheduled by the PDCCH; and receiving, from the base station , control information on the PDCCH, wherein the control information includes a joint indication corresponding to a 1-bit for indicating: a first minimum value among the plurality of first values k0, and a second minimum value among the plurality of second values k2. receiving, from a base station , configuration information, wherein the configuration information includes: information on a plurality of first values, k0, for indicating a first slot offset between a physical downlink control channel, PDCCH, and a physical downlink shared channel, PDSCH, scheduled by the PDCCH, information on a plurality of second values, k2, for indicating a second slot offset between the PDCCH and a physical uplink shared channel, PUSCH, scheduled by the PDCCH; and information on a plurality of first values, k0, for indicating a first slot offset between a physical downlink control channel, PDCCH, and a physical downlink shared channel, PDSCH, scheduled by the PDCCH, information on a plurality of second values, k2, for indicating a second slot offset between the PDCCH and a physical uplink shared channel, PUSCH, scheduled by the PDCCH; and receiving, from the base station , control information on the PDCCH, wherein the control information includes a joint indication corresponding to a 1-bit for indicating: a first minimum value among the plurality of first values k0, and a second minimum value among the plurality of second values k2. a first minimum value among the plurality of first values k0, and a second minimum value among the plurality of second values k2.
A method of manufacturing a catalyst comprising a catalytic particle supported on a carrier, the catalytic particle having a core/shell structure comprising: a shell layer comprising platinum; and a core particle covered with the shell layer and comprising a metal other than platinum, the method comprising the steps of: subjecting said core-particle-supported carrier to electrolysis in a copper-ion-containing electrolytic solution, thereby depositing copper on a surface of the core particle, as an electrolytic treating process; and bringing a platinum compound solution into contact with the copper-deposited core particle to substitute the copper on the surface of the core particle with platinum, thereby forming a shell layer comprising platinum, as a substitution reaction process; wherein the platinum compound solution in the substitution reaction process contains citric acid, and an amount of dissolved oxygen in the electrolytic solution in the electrolytic treating process is controlled to 1 ppm or lower. subjecting said core-particle-supported carrier to electrolysis in a copper-ion-containing electrolytic solution, thereby depositing copper on a surface of the core particle, as an electrolytic treating process; and bringing a platinum compound solution into contact with the copper-deposited core particle to substitute the copper on the surface of the core particle with platinum, thereby forming a shell layer comprising platinum, as a substitution reaction process; wherein the platinum compound solution in the substitution reaction process contains citric acid, and an amount of dissolved oxygen in the electrolytic solution in the electrolytic treating process is controlled to 1 ppm or lower.
Conveying unit for packages, intended for a sheet-like element conversion unit, comprising: - a first transport means and at least one second transport means, the transport means being adjacent and parallel to one another and able to transport (L) the packages in the longitudinal direction, each transport means comprising a drive arrangement to drive the transport means, the drive arrangement comprising coupling means , able to engage with the conjugated coupling means of the drive arrangement of the adjacent transport means, each transport means being able to slide laterally (S); - drive means for rotating (R) the drive arrangement of the first transport means when the drive means and the drive arrangement of the first transport means are coupled, and - deviation means able to deviate or to move closer by lateral sliding a selective number of adjacent transport means of the remainder of adjacent transport means , said number being able to represent all of the transport means when all of the adjacent transport means are deviated or moved closer by lateral sliding of the drive means , so as to make a first package supported by a first group of adjacent transport means transport (L) in the longitudinal direction and to leave substantially immobile longitudinally, a second package supported by a second group of adjacent transport means , when the second group of adjacent transport means is deviated and therefore uncoupled from the first group of adjacent transport means driven by the drive means . - a first transport means and at least one second transport means, the transport means being adjacent and parallel to one another and able to transport (L) the packages in the longitudinal direction, each transport means comprising a drive arrangement to drive the transport means, the drive arrangement comprising coupling means , able to engage with the conjugated coupling means of the drive arrangement of the adjacent transport means, each transport means being able to slide laterally (S); - drive means for rotating (R) the drive arrangement of the first transport means when the drive means and the drive arrangement of the first transport means are coupled, and - deviation means able to deviate or to move closer by lateral sliding a selective number of adjacent transport means of the remainder of adjacent transport means , said number being able to represent all of the transport means when all of the adjacent transport means are deviated or moved closer by lateral sliding of the drive means , so as to make a first package supported by a first group of adjacent transport means transport (L) in the longitudinal direction and to leave substantially immobile longitudinally, a second package supported by a second group of adjacent transport means , when the second group of adjacent transport means is deviated and therefore uncoupled from the first group of adjacent transport means driven by the drive means .
An armored vehicle turret able to accommodate a crew including a shooter, comprising a fixed roof with an opening and a retractable protection system in the form of an armored cover or dome, able to be moved pivotably around a horizontal axis and/or in vertical translation, characterized in that : - the retractable armored cover or dome can assume at least four positions, a first position in which the retractable system is retracted against the roof and provides closing of the opening , a second partial opening position in which the retractable system is partially deployed in upward vertical translation and makes it possible to protect a soldier in the observation position, a third partial opening position in which the retractable system is partially deployed in upward vertical translation, but more than in the second position, and makes it possible to protect a soldier in the sniper position, and a fourth complete opening position in which the retractable system is fully deployed by pivoting and/or upward vertical translation while exposing the opening in order to allow an evacuation of the crew; - the turret is provided with a mechanism ensuring, during use and depending on the needs, the movement of the retractable protection system between the aforementioned four positions and in the second position, the retractable dome exposes a lateral peripheral space closed off by protective plates with murder holes , allowing the soldier to assume an observation position of up to 360°. - the retractable armored cover or dome can assume at least four positions, a first position in which the retractable system is retracted against the roof and provides closing of the opening , a second partial opening position in which the retractable system is partially deployed in upward vertical translation and makes it possible to protect a soldier in the observation position, a third partial opening position in which the retractable system is partially deployed in upward vertical translation, but more than in the second position, and makes it possible to protect a soldier in the sniper position, and a fourth complete opening position in which the retractable system is fully deployed by pivoting and/or upward vertical translation while exposing the opening in order to allow an evacuation of the crew; - the turret is provided with a mechanism ensuring, during use and depending on the needs, the movement of the retractable protection system between the aforementioned four positions and in the second position, the retractable dome exposes a lateral peripheral space closed off by protective plates with murder holes , allowing the soldier to assume an observation position of up to 360°.
A coated microcapsule comprising: a microcapsule comprising a polymeric shell and a liquid core material encapsulated therein; and a metallic coating surrounding said microcapsule, wherein the metallic coating comprises particles of a first metal adsorbed on said polymeric shell and a film of a second metal formed thereon; wherein the particles of the first metal are adsorbed on said polymeric shell by contacting the polymeric shell with a reducing agent and a solution comprising ions of the first metal, thereby reducing said ions and forming particles of the first metal adsorbed on said polymeric shell; and wherein the second metal is different to the first metal. a microcapsule comprising a polymeric shell and a liquid core material encapsulated therein; and a metallic coating surrounding said microcapsule, wherein the metallic coating comprises particles of a first metal adsorbed on said polymeric shell and a film of a second metal formed thereon; wherein the particles of the first metal are adsorbed on said polymeric shell by contacting the polymeric shell with a reducing agent and a solution comprising ions of the first metal, thereby reducing said ions and forming particles of the first metal adsorbed on said polymeric shell; and wherein the second metal is different to the first metal.
A composition comprising nanoparticle complexes, wherein each of the nanoparticle complexes comprises: a carrier protein having at least one antibody-binding motif inserted, wherein the antibody-binding motif consists of an amino acid sequence having at least about 80% sequence identity to the amino acid sequence of SEQ ID NO.: 3, SEQ ID NO.:4, or SEQ ID NO.:5, optionally wherein at least a subset of the carrier protein comprises more than one antibody-binding motif; antibodies, each antibody having an antigen-binding domain; and optionally a therapeutic agent; wherein the nanoparticle complexes have binding specificity for the antigen in vivo, optionally wherein each of the nanoparticle complexes comprises between about 100 and about 1000 antibodies. a carrier protein having at least one antibody-binding motif inserted, wherein the antibody-binding motif consists of an amino acid sequence having at least about 80% sequence identity to the amino acid sequence of SEQ ID NO.: 3, SEQ ID NO.:4, or SEQ ID NO.:5, optionally wherein at least a subset of the carrier protein comprises more than one antibody-binding motif; antibodies, each antibody having an antigen-binding domain; and optionally a therapeutic agent;
Breast shield of a breastpump unit for expression of human breastmilk, wherein the breastpump unit has a vacuum pump for generating pressures, wherein the breast shield has an application region for sealing application to the human mother's breast and an inner chamber for receiving a nipple (W) of the mother's breast, characterized in that the breast shield is provided with at least one sensor for determining the position of the nipple (W) and/or the position of a closure of the inner chamber during the pumping operation.
Process for encapsulation of a microelectronic device placed on a support substrate , with an encapsulation cover comprising the following successive steps: a) supply a support substrate made of a first material, comprising a first principal face on which a microelectronic device is placed, a second principal face opposite the first principal face , and a lateral face, b) deposit a bonding layer made of a second material on the first principal face of the substrate , around the microelectronic device , c) position an encapsulation cover made of a third material, comprising a first principal face , a second principal face opposite the first principal face , and a lateral face on the bonding layer , so as to fix the encapsulation cover on the support substrate so as to encapsulate the microelectronic device , d) deposit a lateral protection layer made of a fourth material on the lateral face of the support substrate , on the lateral face of the encapsulation cover , on the periphery of the second principal face of the encapsulation cover , and around the periphery of the second principal face of the support substrate , the lateral protection layer delimiting a protected zone, e) thinning of the second principal face of the support substrate and/or the second principal face of the encapsulation cover outside the protected zone, by chemical etching. a) supply a support substrate made of a first material, comprising a first principal face on which a microelectronic device is placed, a second principal face opposite the first principal face , and a lateral face, b) deposit a bonding layer made of a second material on the first principal face of the substrate , around the microelectronic device , c) position an encapsulation cover made of a third material, comprising a first principal face , a second principal face opposite the first principal face , and a lateral face on the bonding layer , so as to fix the encapsulation cover on the support substrate so as to encapsulate the microelectronic device , d) deposit a lateral protection layer made of a fourth material on the lateral face of the support substrate , on the lateral face of the encapsulation cover , on the periphery of the second principal face of the encapsulation cover , and around the periphery of the second principal face of the support substrate , the lateral protection layer delimiting a protected zone, e) thinning of the second principal face of the support substrate and/or the second principal face of the encapsulation cover outside the protected zone, by chemical etching.
A wireless communication method, comprising: acquiring (S11), by a first device, resource information on a first type of transmission resources of a control channel based on a descending order of priorities associated with a plurality of first type of transmission resources, wherein the first type of transmission resources comprises a transmission beam used for sending the control channel; determining (S12), by the first device, a second type of transmission resources of the control channel based on the resource information on the first type of transmission resources, wherein the second type of transmission resources is different from the first type of transmission resources, wherein the second type of transmission resources comprises a time domain resource location of the control channel, and wherein the second type of transmission resources is within a range of a plurality of second type of transmission resources; and transmitting (S13), by the first device, the control channel to a second device using the first type of transmission resources and the second type of transmission resources. acquiring (S11), by a first device, resource information on a first type of transmission resources of a control channel based on a descending order of priorities associated with a plurality of first type of transmission resources, wherein the first type of transmission resources comprises a transmission beam used for sending the control channel; determining (S12), by the first device, a second type of transmission resources of the control channel based on the resource information on the first type of transmission resources, wherein the second type of transmission resources is different from the first type of transmission resources, wherein the second type of transmission resources comprises a time domain resource location of the control channel, and wherein the second type of transmission resources is within a range of a plurality of second type of transmission resources; and wherein the second type of transmission resources is different from the first type of transmission resources, wherein the second type of transmission resources comprises a time domain resource location of the control channel, and wherein the second type of transmission resources is within a range of a plurality of second type of transmission resources; and transmitting (S13), by the first device, the control channel to a second device using the first type of transmission resources and the second type of transmission resources.
Electromagnetically controlled proportional valve which comprises a valve housing , a valve piston , a coil former and a coil core , characterized in that an electronic circuit for storing adjusting processes and for actuating the proportional valve is integrated into the valve housing , and in that a plug with a plug housing is provided.
A method for the operation of a vacuum handling apparatus , particularly for a human-machine collaboration system comprising a vacuum gripper connectable to a primary vacuum system to generate a vacuum, the method comprising the steps of: a) applying the vacuum gripper to a workpiece and building up a vacuum in the vacuum gripper by means of the primary vacuum system ; b) holding the workpiece during its handling by means of the vacuum prevailing in the vacuum gripper , and monitoring at least one state variable during the handling; and c) generating an auxiliary vacuum in the vacuum gripper by means of a self-sufficient, secondary auxiliary vacuum system if the monitored state variable deviates from a target state. a) applying the vacuum gripper to a workpiece and building up a vacuum in the vacuum gripper by means of the primary vacuum system ; b) holding the workpiece during its handling by means of the vacuum prevailing in the vacuum gripper , and monitoring at least one state variable during the handling; and c) generating an auxiliary vacuum in the vacuum gripper by means of a self-sufficient, secondary auxiliary vacuum system if the monitored state variable deviates from a target state.
A hardening method for surface hardening a rotationally symmetrical workpiece having a lateral surface and a longitudinal axis, in which at least one laser device is directed onto the workpiece in such a way that concentrated high-energy radiation generated by the laser device acts on an area of action of the lateral surface, wherein - the workpiece is held rotatably about its longitudinal axis and is set in rotation about its longitudinal axis at a selectable rotational speed, and - the at least one laser device is moved along the longitudinal axis of the workpiece, wherein - the rotational speed of the workpiece is chosen, dependent on the radiation output of the laser device, the size of the area of action and the diameter of the workpiece, such that the energy per unit area that is introduced into the lateral surface is substantially constant, and wherein - the rotational speed of the workpiece is chosen, dependent on a local diameter of the workpiece, such that the energy per unit area that is introduced into the lateral surface is substantially constant even when there is an axially variable local diameter of the workpiece. - the workpiece is held rotatably about its longitudinal axis and is set in rotation about its longitudinal axis at a selectable rotational speed, and - the at least one laser device is moved along the longitudinal axis of the workpiece, wherein - the rotational speed of the workpiece is chosen, dependent on the radiation output of the laser device, the size of the area of action and the diameter of the workpiece, such that the energy per unit area that is introduced into the lateral surface is substantially constant, and wherein - the rotational speed of the workpiece is chosen, dependent on a local diameter of the workpiece, such that the energy per unit area that is introduced into the lateral surface is substantially constant even when there is an axially variable local diameter of the workpiece.