mhurhangee/ep-ind-claims huggingface dataset:
Method for beam shaping in a laser processing process, in which a laser beam in a laser arrangement can be focused at a processing/imaging plane and the laser beam can be adapted with respect to its intensity distribution by means of at least one beam shaper (26, 30), wherein the laser beam is split into at least two partial or individual beams (24, 25, 35) by means of at least one beam splitter in order to avoid uniformity errors in the processing/imaging plane and the partial or individual beams are influenced differently, or each partial or individual beam is formed from a laser source of different wavelength, in a manner such that, after they have been combined and focused at the processing/imaging plane, they form an output beam with an intensity profile (28.1), wherein adjacent intensity maxima of the intensity profile (28.1) differ in at least one or a plurality of light properties to exclude the formation of interferences, characterized in that the intensity profiles (24.1, 25.1, 37.1, 37.2, 37.3, 37.4) of the partial or individual beams in the processing/imaging plane are combined as regular patterns M with recurring pattern fields (MFA, MFB, MFC, MFD), for example in the form of a chequerboard pattern or a honeycomb pattern or a triangle pattern or a diamond pattern or any other control pattern, to form the output beam, wherein directly adjacent pattern fields (MFA, MFB, MFC, MFD) are assigned in each case to a different type of partial or individual beam, wherein the different types of partial or individual beams differ in at least one light property.
Method for efficiently and individually encrypting control commands for single terminals, having the steps of: - providing a set of control commands by means of a telecommunication network; - identifying a subset of the control commands that provide a safety-critical functionality; and - encrypting just the subset of control commands, wherein the encryption is effected on the basis of a terminal identifier of a terminal that provides the set of control commands to a further terminal. - providing a set of control commands by means of a telecommunication network; - identifying a subset of the control commands that provide a safety-critical functionality; and - encrypting just the subset of control commands, wherein the encryption is effected on the basis of a terminal identifier of a terminal that provides the set of control commands to a further terminal.
A personal care composition comprising (a) A polyvalent metal salt of pyrithione; (b) A metal complex selected from the group consisting of: wherein Y 1, Y 2, Z 1, Z 2 are selected from the following groups: -NH 2, -NHR 11, - NR 12 R 12, -NHCO-R 20, -SH, -OR 13, -O(C=O)-, phosphate. and wherein at least one of Y 1 and Z 1 of compound I is -SH, and wherein at least one of Y 2 and Z 2 of compound II is -SH R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, can independently be H, alkyl, substituted alkyl, phenyl, aryl; R 14 is -NH 2, -NHCO-CH 3, -NHR 17, or -NR 18 R 18 R 15 is -COOH, - COOR 19 R 11, R 12, R 13 R 16, R 17, R 18, R 19 can be independently be alkyl, substituted alkyl, phenyl, aryl. and wherein the metal of the complex is selected from the group consisting of zinc, copper and iron. (a) A polyvalent metal salt of pyrithione; (b) A metal complex selected from the group consisting of: wherein Y 1, Y 2, Z 1, Z 2 are selected from the following groups: -NH 2, -NHR 11, - NR 12 R 12, -NHCO-R 20, -SH, -OR 13, -O(C=O)-, phosphate. and wherein at least one of Y 1 and Z 1 of compound I is -SH, and wherein at least one of Y 2 and Z 2 of compound II is -SH R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, can independently be H, alkyl, substituted alkyl, phenyl, aryl; R 14 is -NH 2, -NHCO-CH 3, -NHR 17, or -NR 18 R 18 R 15 is -COOH, - COOR 19 R 11, R 12, R 13 R 16, R 17, R 18, R 19 can be independently be alkyl, substituted alkyl, phenyl, aryl. and wherein the metal of the complex is selected from the group consisting of zinc, copper and iron. -NHCO-R 20, -SH, -OR 13, -O(C=O)-, phosphate. and wherein at least one of Y 1 and Z 1 of compound I is -SH, and wherein at least one of Y 2 and Z 2 of compound II is -SH R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, can independently be H, alkyl, substituted alkyl, phenyl, aryl; R 14 is -NH 2, -NHCO-CH 3, -NHR 17, or -NR 18 R 18 R 15 is -COOH, - COOR 19 R 11, R 12, R 13 R 16, R 17, R 18, R 19 can be independently be alkyl, substituted alkyl, phenyl, aryl. and wherein the metal of the complex is selected from the group consisting of zinc, copper and iron.
A method of installing a default dialling plan identity into a user terminal comprising an IMS client, the method comprising, at or following registration of a user of the user terminal to an IMS network, receiving at the terminal from the IMS network a dialling plan identity and saving the identity as a default identity at the terminal, wherein the default dialling plan identity is subsequently used by the IMS client as a phone context as required by IETF RFC 3966, the phone context being a parameter that identifies to the IMS network the dialling plan in which a local number was provided and wherein the dialling plan includes a numbering plan and the use of prefixes, suffixes and additional information required to complete a call.
An evaporation coating apparatus comprising a heating unit and a cylindrical member disposed within the heating unit, wherein, the cylindrical member comprises a hollow sleeve and a barrel disposed at an inner side of the hollow sleeve in a fitting manner; wherein a top end area of the hollow sleeve is provided with a first evaporation hole, and an external surface of the hollow sleeve is provided with an internal heater strip connected to a control unit; wherein an external surface of the barrel is provided with a groove extending along an axial central line of the barrel, the groove is provided with a plurality of compartments arranged at interval space, and each of the compartments is provided with a crucible; wherein the crucible comprises a main body which is disposed within the compartment and sealed all around with one side opened, and a cover which is connected to the main body in a fitting manner and provided with a second evaporation hole corresponding to the first evaporation hole; and the heating unit has a hollow columnar structure, and an external surface of the heating unit is provided with an external heater strip and a nozzle which corresponds to the first evaporation hole, wherein the internal heater strip is uniformly winding around the external surface of the hollow sleeve of the cylindrical member, with several winding sections thereof being corresponding to locations of the crucibles in the barrel, respectively; and the external heater strip is uniformly winding around the external surface of the heating unit.
A set for filtering an air flow for a motor vehicle comprising a filter box into which an air inlet opens, a filter box cover between which a filter element is interposed, the filter set comprising an element for splitting the airflow circulating in the filter box, the element comprising (i) an external shell having a geometry adapted to form a cyclonic air flow, and (ii) acoustic attenuation means comprising at least one chamber defining a resonance volume inside the element, characterized in that the element is disposed upstream of the filter element and in that the external shell has a substantially Gaussian geometry.
Contact-making device for simultaneously establishing a plurality of electrical connections to a contact support; wherein the contact-making device has a plurality of contact elements (16a, 16b); wherein each contact element (16a, 16b) has a contact region for making electrical contact with a complementary contact element of the contact support and has a connecting element for connecting the contact element (16a, 16b) to a line of the contact-making device; wherein the plurality of contact elements (16a, 16b) of the contact-making device has a first group of first contact elements and a second group of second contact elements; wherein the first contact elements are arranged alternately with the second contact elements; wherein the connecting element comprises a crimping sleeve and connects the corresponding contact element (16a, 16b) to a line of a cable harness, characterized in that the connecting elements of the first contact elements are fastened to first ends of the contact regions, and the connecting elements of the second contact elements are fastened to second ends of the contact regions, which second ends are situated opposite the first ends; wherein the first contact elements of the first group and the second contact elements of the second group are respectively arranged in parallel to one another; wherein the first contact elements are arranged back-to-back in parallel to the second contact elements.
A process for making a dispersion comprising LiOH particulates, the process comprising: forming a slurry comprising LiOH⊙H 2 O solids and an organic medium, the organic medium comprising at least one oil and at least one surfactant; milling the slurry to form a dispersion comprising LiOH⊙H 2 O particulates dispersed in the organic medium; and dehydrating the dispersion to convert the LiOH⊙H 2 O particulates to LiOH particulates. forming a slurry comprising LiOH⊙H 2 O solids and an organic medium, the organic medium comprising at least one oil and at least one surfactant; milling the slurry to form a dispersion comprising LiOH⊙H 2 O particulates dispersed in the organic medium; and dehydrating the dispersion to convert the LiOH⊙H 2 O particulates to LiOH particulates.
An inverter control device configured for modifying a vector-based reference voltage into a vector-based modified voltage and for supplying the vector-based modified voltage to an inverter unit including a plurality of switching elements, wherein the inverter control device is characterized by: a determination unit configured for determining a fundamental-wave magnitude of a phase-voltage corresponding to the vector-based modified voltage (V OVM ∠α OVM); a proportional-integral control unit configured for performing a proportional-integral operation of an error between the fundamental-wave magnitude of the phase-voltage and a magnitude of the vector-based reference voltage (|V Ref |), and for outputting a compensation voltage (V comp); a first adder configured for adding the compensation voltage (V comp) to the vector-based reference voltage (V Ref ∠α Ref); and an over-modulation unit configured for over-modulating an output of the first adder and for outputting the over-modulated output as the vector-based modified voltage (V OVM ∠α OVM). a determination unit configured for determining a fundamental-wave magnitude of a phase-voltage corresponding to the vector-based modified voltage (V OVM ∠α OVM); a proportional-integral control unit configured for performing a proportional-integral operation of an error between the fundamental-wave magnitude of the phase-voltage and a magnitude of the vector-based reference voltage (|V Ref |), and for outputting a compensation voltage (V comp); a first adder configured for adding the compensation voltage (V comp) to the vector-based reference voltage (V Ref ∠α Ref); and an over-modulation unit configured for over-modulating an output of the first adder and for outputting the over-modulated output as the vector-based modified voltage (V OVM ∠α OVM).
Control method for braking a utility vehicle having at least one electric motor, comprising the following steps: a. receiving a deceleration request by a braking system; b. calculating at least one braking torque by a control device; c. generating the braking torque calculated in step b) by the at least one electric motor; d. repeatedly determining the brake slip on at least one wheel of the utility vehicle; e. if the brake slip of a wheel determined in step d) reaches a predetermined stability-critical limit value or if the braking torque calculated in step b) exceeds the maximum braking torque of the electric motor: distributing the braking torque calculated in step b) to the at least one electric motor and at least one further brake. a. receiving a deceleration request by a braking system; b. calculating at least one braking torque by a control device; c. generating the braking torque calculated in step b) by the at least one electric motor; d. repeatedly determining the brake slip on at least one wheel of the utility vehicle; e. if the brake slip of a wheel determined in step d) reaches a predetermined stability-critical limit value or if the braking torque calculated in step b) exceeds the maximum braking torque of the electric motor: distributing the braking torque calculated in step b) to the at least one electric motor and at least one further brake.
A method for wireless communication of a source node, the method comprising: determining, by the source node, a change of a relay operation type based on at least one of a link quality between the source node and a relay node, a link quality between the relay node and a destination node, or a link quality between the source node and the destination node; transmitting, by the source node, a relay operation change request message (331, 333, 431, 571, 573) in response to a determination of the change of the relay operation type; and receiving, by the source node, an ROC response message (335, 337, 433, 575, 577) corresponding to the ROC request message, wherein the change of the relay operation type is either a change from a link cooperating type (310, 410, 580) to a link switching type (340, 440, 510), or a change from the link switching type to the link cooperating type, the link cooperating type is a type in which the source node transmits data to the destination node via a direct link and transmits the same data to the destination node via a relay link, and the link switching type is a type in which the source node switches one of the direct link and the relay link to the other link when the one link has a problem and communicates with the destination node via the other link. determining, by the source node, a change of a relay operation type based on at least one of a link quality between the source node and a relay node, a link quality between the relay node and a destination node, or a link quality between the source node and the destination node; transmitting, by the source node, a relay operation change request message (331, 333, 431, 571, 573) in response to a determination of the change of the relay operation type; and receiving, by the source node, an ROC response message (335, 337, 433, 575, 577) corresponding to the ROC request message, wherein the change of the relay operation type is either a change from a link cooperating type (310, 410, 580) to a link switching type (340, 440, 510), or a change from the link switching type to the link cooperating type, the link cooperating type is a type in which the source node transmits data to the destination node via a direct link and transmits the same data to the destination node via a relay link, and the link switching type is a type in which the source node switches one of the direct link and the relay link to the other link when the one link has a problem and communicates with the destination node via the other link.
A vehicle brake unit for use with a drive train having a drive train subassembly, the brake unit including: a housing enclosing a braking mechanism, the braking mechanism configured for operative engagement with an output drive shaft of the drive train subassembly; and a power shaft arranged for connecting the drive train subassembly output drive shaft with a further drive shaft for transferring power therebetween, wherein said housing is configured for mounting directly to a housing of the drive train subassembly, characterized in that the brake unit is configured for mounting in place of a transfer case tail housing, and has a face configured to replicate a mating face of the transfer case tail housing.. a housing enclosing a braking mechanism, the braking mechanism configured for operative engagement with an output drive shaft of the drive train subassembly; and a power shaft arranged for connecting the drive train subassembly output drive shaft with a further drive shaft for transferring power therebetween, wherein said housing is configured for mounting directly to a housing of the drive train subassembly, characterized in that the brake unit is configured for mounting in place of a transfer case tail housing, and has a face configured to replicate a mating face of the transfer case tail housing..
A portable data carrier with a multilayer structure having an mark, wherein the data carrier in the interior has a light source which is arranged below the mark, wherein the mark is visible from the outside only when illuminated by the light source, characterized in that between the mark and the light source an optical layer is arranged which is adapted to distribute the light of the light source uniformly over at least a part of the region of the mark.
Inflatable bed edge protector, comprising an upper and a lower external plane sheets, sealed along their perimeter edges, and wherein it comprises at least one pair of strap elements, in Velcro® or an analogous material (R1, R2, R3, R4), positioned in the upper area of said bed edge protector so that said bed edge protector can be rolled up on the upper part of the bed edge and fixed to it, characterized in that said upper and lower external plane sheets are connected to each other through internal parallel plane elements, substantially orthogonal to said external sheets, serving as tie elements (T1, T2, T3, T4, T5), sealed onto the internal surfaces of the upper and lower external plane sheets and suited to shape said bed edge protector with a series of undulations arranged side by side.
A method performed by a user equipment, UE in a wireless communication system, the method comprising: receiving a first multimedia broadcast multicast service, MBMS, minimization of drive test, MDT, configuration via first system information from a first cell; starting a MBMS-MDT based on the first MBMS-MDT configuration in the first cell; performing handover procedure from the first cell to a second cell; receiving a second MBMS-MDT configuration via second system information from the second cell; when the first MBMS-MDT configuration is same as the second MBMS-MDT configuration: maintaining the ongoing MBMS-MDT based on the first MBMS-MDT in the second cell and overwriting configurations other than the first MBMS-MDT configuration included in the first system information with configurations other than the second MBMS-MDT configuration included in the second system information. receiving a first multimedia broadcast multicast service, MBMS, minimization of drive test, MDT, configuration via first system information from a first cell; starting a MBMS-MDT based on the first MBMS-MDT configuration in the first cell; performing handover procedure from the first cell to a second cell; receiving a second MBMS-MDT configuration via second system information from the second cell; when the first MBMS-MDT configuration is same as the second MBMS-MDT configuration: maintaining the ongoing MBMS-MDT based on the first MBMS-MDT in the second cell and overwriting configurations other than the first MBMS-MDT configuration included in the first system information with configurations other than the second MBMS-MDT configuration included in the second system information.
A reagent preparation assembly comprising: a body; a reaction chamber adjacent the body, the reaction chamber including a reagent therein, an access port extending into the reaction chamber, the access port is configured to receive an instrument; a seal extending across a portion of the reaction chamber and the access port; and a reconstitution assembly movably coupled with the body, characterized in that: the reconstitution assembly comprises: a plunger movably coupled with the body, a syringe selectively engaged with the plunger, the syringe including a solution reservoir containing a solution, and movement of the plunger with the syringe relative to the body, when the plunger is engaged with the syringe, pierces the seal, and a piston selectively engaged with the plunger, the piston is movably coupled within the syringe, and when the plunger is disengaged from the syringe and engaged with the piston, continued movement of the plunger with the piston relative to the body pushes the solution into the reaction chamber with the reagent therein. a body; a reaction chamber adjacent the body, the reaction chamber including a reagent therein, an access port extending into the reaction chamber, the access port is configured to receive an instrument; a seal extending across a portion of the reaction chamber and the access port; and a reconstitution assembly movably coupled with the body, the reconstitution assembly comprises: a plunger movably coupled with the body, a syringe selectively engaged with the plunger, the syringe including a solution reservoir containing a solution, and movement of the plunger with the syringe relative to the body, when the plunger is engaged with the syringe, pierces the seal, and a piston selectively engaged with the plunger, the piston is movably coupled within the syringe, and when the plunger is disengaged from the syringe and engaged with the piston, continued movement of the plunger with the piston relative to the body pushes the solution into the reaction chamber with the reagent therein. a plunger movably coupled with the body, a syringe selectively engaged with the plunger, the syringe including a solution reservoir containing a solution, and movement of the plunger with the syringe relative to the body, when the plunger is engaged with the syringe, pierces the seal, and a piston selectively engaged with the plunger, the piston is movably coupled within the syringe, and when the plunger is disengaged from the syringe and engaged with the piston, continued movement of the plunger with the piston relative to the body pushes the solution into the reaction chamber with the reagent therein.
A milking device comprising a vessel and a cover plate; the vessel and the cover plate forming a sealed volume; characterised in that the sealed volume is internally divided into a collecting chamber, a vacuum chamber and an air intake chamber; the collecting chamber being arranged between the vacuum chamber and the air intake chamber; the vessel having a first internal wall that separates the collecting chamber from the air intake chamber, a first passage between the collecting chamber and the air intake chamber being arranged at the first internal wall; the vessel having a second internal wall that separates the collecting chamber from the vacuum chamber, a second passage between the collecting chamber and the vacuum chamber being arranged at the second internal wall.
A camera device for localizing an optical marker, the camera device comprising at least one image sensor and a control and evaluation unit, a first camera channel for recording first image data with the optical marker and a second camera channel for recording second image data with the optical marker being formed from the at least one image sensor and the control and evaluation unit, and the control and evaluation unit being configured to locate the optical marker in the first image data and to determine a first pose of the optical marker relative to the camera device and to locate the optical marker in the second image data and to determine a second pose of the optical marker relative to the camera device, characterized in that the optical marker comprises at least three reference features of known positions within the optical marker, in particular is a fiducial marker, and in that the control and evaluation unit is configured to compare the first pose and the second pose with one another and to output a safeguarding signal to a monitored machine (24, 26) if the first pose and the second pose deviate from one another beyond a tolerance.