mhurhangee/patent-ind-claim-en huggingface dataset:
A method for combined migration and remigration of a network subscription of a source subscriber entity , the method being performed by a profile handling unit of the source subscriber entity , the method comprising: initiating (S102) a combined migration and remigration of the network subscription by providing a migration start message to a migration service entity , wherein the migration start message comprises a remigration condition; accepting (S106) the network subscription to be unavailable to the source subscriber entity upon migration of the network subscription and until remigration of the network subscription back to the source subscriber entity ; and obtaining (S108) a first activation code token for enabling access to a profile of the network subscription by a destination subscriber entity to which the network subscription is to be migrated, and a second activation code token for enabling access to the profile of the network subscription by the source subscriber entity upon remigration to the source subscriber entity . initiating (S102) a combined migration and remigration of the network subscription by providing a migration start message to a migration service entity , wherein the migration start message comprises a remigration condition; accepting (S106) the network subscription to be unavailable to the source subscriber entity upon migration of the network subscription and until remigration of the network subscription back to the source subscriber entity ; and obtaining (S108) a first activation code token for enabling access to a profile of the network subscription by a destination subscriber entity to which the network subscription is to be migrated, and a second activation code token for enabling access to the profile of the network subscription by the source subscriber entity upon remigration to the source subscriber entity .
A composition for generating oxygen, comprising at least one oxygen source, and at least one ionic liquid comprising a cation and an anion, wherein - the oxygen source is a peroxide compound, - the ionic liquid is in the liquid state at least in a temperature range from -10°C to +50°C, and - the anion is selected from metallate anions, wherein the metallate anion comprises at least one halide ion or pseudohalide ion. - the oxygen source is a peroxide compound, - the ionic liquid is in the liquid state at least in a temperature range from -10°C to +50°C, and - the anion is selected from metallate anions, wherein the metallate anion comprises at least one halide ion or pseudohalide ion.
A method of transceiving signals by a base station using a time division duplex, TDD, frame configuration, shared with a plurality of other base stations, in a wireless communication system , the method comprising: configuring a maximum transmission power value and an attenuation value for the maximum transmission power to a TDD frame based on the TDD frame configuration, and transceiving, with a user equipment, UE , the signals on the TDD frame in accordance with the TDD frame configuration, wherein the TDD frame configuration comprises a static downlink subframe region, a static uplink subframe region and a dynamic region changeable into a downlink subframe or an uplink subframe, wherein the TDD frame configuration is configured in a manner that at least one of the static downlink subframe region, the static uplink subframe region and the dynamic region is assigned to the UE in consideration of a location of the UE in a cell, wherein the signals are transceived with the UE via at least one region assigned to the UE , and wherein the maximum transmission power value is configured for the static uplink subframe region, and the attenuation value for the maximum transmission power is configured for a dynamic region changed into the uplink subframe. configuring a maximum transmission power value and an attenuation value for the maximum transmission power to a TDD frame based on the TDD frame configuration, and transceiving, with a user equipment, UE , the signals on the TDD frame in accordance with the TDD frame configuration, wherein the TDD frame configuration comprises a static downlink subframe region, a static uplink subframe region and a dynamic region changeable into a downlink subframe or an uplink subframe, wherein the TDD frame configuration is configured in a manner that at least one of the static downlink subframe region, the static uplink subframe region and the dynamic region is assigned to the UE in consideration of a location of the UE in a cell, wherein the signals are transceived with the UE via at least one region assigned to the UE , and wherein the maximum transmission power value is configured for the static uplink subframe region, and the attenuation value for the maximum transmission power is configured for a dynamic region changed into the uplink subframe.
Cantilever probe head comprising a support ring , a PCB board connected to said support ring and a plurality of contact probes , protruding from said support ring in a cantilever manner and being held by a support connected to said support ring , each contact probe having a rod-like probe body and a longitudinal axis (HH) inclined with respect to a reference plane (π) corresponding to a plane of a wafer of devices under test by means of said cantilever probe head , as well as at least one first end portion , realized in a first probe section protruding from said support in the direction of said wafer of devices under test , said first end portion being bent with respect to said longitudinal axis (HH) starting from a bending point (PG1) and ending with a contact tip of said contact probe adapted to abut onto a contact pad of a device under test of said wafer, each of said contact probes further comprising a second end portion realized in a second probe section protruding from said support in the opposite direction with respect to said first probe section towards said PCB board , said second end portion being bent with respect to said longitudinal axis (HH) starting from a further bending point (PG2) and ending with a further contact end of said contact probe , characterized in that said support ring , provided with said support , is mounted in pressing contact with said PCB board so that said further contact ends of said end portions of said contact probes abut in a pressing contact onto said contact pads of said PCB board .
A method of identification of E. coli pathogenic to birds (APEC), characterized in that : a) DNA is isolated from the tested sample of biological material, b) in the sample of isolated DNA, the presence of virulence genes: iroC and hlyF and the gene encoding the serotype 078 are checked, c) the presence of at least one gene among virulence genes or the gene encoding the O78 serotype is the indicative of the APEC strain in the tested sample. a) DNA is isolated from the tested sample of biological material, b) in the sample of isolated DNA, the presence of virulence genes: iroC and hlyF and the gene encoding the serotype 078 are checked, c) the presence of at least one gene among virulence genes or the gene encoding the O78 serotype is the indicative of the APEC strain in the tested sample.
An arrangement having a connector for at least one electrical cable, which has an electrical conductor surrounded by a sheath, which conductor has a high number of individual wires, in which the connector has a tubular clamping body consisting of metal for receiving the conductor of the cable, in the wall of which two cooperating through holes provided with thread are attached to at least one position, the axes of which run V-shaped at an angle (α) relative to one another, which angle is between 100° and 180°, in which clamping screws , which firmly clamp the conductor in the mounting position, are attached, in which - the axes of both clamping screws screwed in the mounting position into the two through holes also run V-shaped relative to one another, wherein they act on the same side of the conductor located in the clamping body on the same area of the same, characterized in - that the individual wires of the conductor are compactly pressed together in the mounting position by the two clamping screws acting on the same area of the same and are also pressed against the wall of the clamping body on its side opposite the through holes and - that each of the two clamping screws on the end face has a flat side running transverse to the axial direction of the clamping screws and in the transition region from the flat side to the threaded part of the clamping screws is rounded off all around with a radius, which is between 0.15 x D and 0.5 x D, with the diameter D of the threaded part of the clamping screws . - the axes of both clamping screws screwed in the mounting position into the two through holes also run V-shaped relative to one another, wherein they act on the same side of the conductor located in the clamping body on the same area of the same, - that the individual wires of the conductor are compactly pressed together in the mounting position by the two clamping screws acting on the same area of the same and are also pressed against the wall of the clamping body on its side opposite the through holes and - that each of the two clamping screws on the end face has a flat side running transverse to the axial direction of the clamping screws and in the transition region from the flat side to the threaded part of the clamping screws is rounded off all around with a radius, which is between 0.15 x D and 0.5 x D, with the diameter D of the threaded part of the clamping screws .
Quick coupling for coupling a tool (U) to an arm of a heavy machine, the quick coupling comprising a main body , substantially shaped as a hollow rectangular parallelepiped, provided with an inner compartment , at least one bolt element adapted to engage with a first transverse pin provided on an adapter integral with said tool (U); characterised by a double-acting hydraulic actuation system adapted to move said at least one bolt element forward from a retracted disengaged position to an extended position engaged with said first transverse pin , a fork-shaped seat , provided on each lower side of the parallelepiped, adapted to couple with a second transverse pin of the adapter , an auxiliary locking device comprising at least one auxiliary locking element , wherein said at least one auxiliary locking element can be moved forward from a retracted position to a forward position of engagement with the second transverse pin , and wherein the direction of forward movement of said at least one auxiliary locking element is opposite that of said at least one bolt element .
Method for operating a driver assistance system of a motor vehicle , in which a rear image of an environmental region of the motor vehicle located substantially next to and/or behind the motor vehicle is captured by at least one camera of an electronic rearview mirror of the driver assistance system , the camera being attached at the left and/or right side of the motor vehicle oriented opposite to a forward direction of travel of the motor vehicle and the rear image is displayed on a display device in the motor vehicle , and a front image of an environmental region of the motor vehicle located substantially in front of the motor vehicle is provided by means of a front camera of the motor vehicle characterized in that at least one road marking of a roadway is recognized in the environmental region based on the captured rear image and the at least one road marking is additionally determined based on the front image while the results of the front image and of the rear image being compared to each other to be verified.
Method for the chip-producing processing of a workpiece on a processing machine with a tool axis (R1), a CNC-controlled workpiece axis (R2), and a fluid supply apparatus , which emits fluid under pressure through at least one discharge nozzle towards a processing zone (BZ), whereby a tool , which is mounted at a tool spindle to be rotatable about the tool axis (R1) and the workpiece about the workpiece axis (R2), characterized in that the method comprises the following steps: - carrying out a computer-aided simulation of the motion sequences of the tool and the workpiece planned, which are being carried out when the processing of the workpiece is being carried out, in order to define a 3-dimensional collision area (KA, KB, KR), which, during the processing of the workpiece , is being passed through by the tool and/or the workpiece , - computer-aided definition of at least one possible position (P1, P7) for mounting of a discharge nozzle on the fluid supply apparatus , whereby this position lies outside the 3-dimensional collision area (KA, KB, KR) and whereby this position enables a direct line of a fluid jet (FS) between the discharge nozzle and the processing zone (BZ), and that - the fluid supply apparatus is annularly arranged around the tool spindle , - and the fluid supply apparatus follows the movements, which the tool performs, in the 3-dimensional space, whereby the fluid supply apparatus does not rotate with the tool spindle . - carrying out a computer-aided simulation of the motion sequences of the tool and the workpiece planned, which are being carried out when the processing of the workpiece is being carried out, in order to define a 3-dimensional collision area (KA, KB, KR), which, during the processing of the workpiece , is being passed through by the tool and/or the workpiece , - computer-aided definition of at least one possible position (P1, P7) for mounting of a discharge nozzle on the fluid supply apparatus , whereby this position lies outside the 3-dimensional collision area (KA, KB, KR) and whereby this position enables a direct line of a fluid jet (FS) between the discharge nozzle and the processing zone (BZ), and that - the fluid supply apparatus is annularly arranged around the tool spindle , - and the fluid supply apparatus follows the movements, which the tool performs, in the 3-dimensional space, whereby the fluid supply apparatus does not rotate with the tool spindle .
An electrical connector for a safety restraint system, the connector comprising: a connector housing that can be plugged into a mating connector in a plug-in direction (E); at least two contact elements , which are electrically conductive, accommodated in said connector housing and designed to be brought into electrical contact with respective mating contact elements of the mating connector ; and an activation member , which is movable relative to the connector housing in an activation direction (A), from a deactivation position, in which said at least two contact elements are electrically connected to one another, into an activation position, in which said at least two contact elements are not electrically connected to one another; wherein the connector further comprises a short-circuiting member , which is electrically conductive, provided on the activation member so as to connect said at least two contact elements to one another in the deactivation position; characterised in that said activation member comprises an actuation surface perpendicular to the plug-in direction (E) when the activation member is preassembled on said connector housing ; the plug-in direction (E) corresponding to the activation direction (A), and further comprises a fitting area suitable for receiving said short-circuiting member in the activation direction (A). a connector housing that can be plugged into a mating connector in a plug-in direction (E); at least two contact elements , which are electrically conductive, accommodated in said connector housing and designed to be brought into electrical contact with respective mating contact elements of the mating connector ; and an activation member , which is movable relative to the connector housing in an activation direction (A), from a deactivation position, in which said at least two contact elements are electrically connected to one another, into an activation position, in which said at least two contact elements are not electrically connected to one another; wherein the connector further comprises a short-circuiting member , which is electrically conductive, provided on the activation member so as to connect said at least two contact elements to one another in the deactivation position; characterised in that said activation member comprises an actuation surface perpendicular to the plug-in direction (E) when the activation member is preassembled on said connector housing ; the plug-in direction (E) corresponding to the activation direction (A), and further comprises a fitting area suitable for receiving said short-circuiting member in the activation direction (A).
An Efuse bit cell , comprising: a data latch configured to latch data of the Efuse bit cell , having two branches with a fuse disposed in a first branch (B1) and a resistor (R) disposed in a second branch (B2), two terminals of the fuse being configured as a first latching node (P1) and a second latching node (P2), respectively, two terminals of the resistor (R) being configured as a third latching node (P3) and a fourth latching node (P4), respectively, the second latching node (P2) being connected to the second branch (B2) and the fourth latching (P4) node being connected to the first branch (B1); a selection controller (U1) configured to control connections between one terminal of the first branch (B1) and a power source and between one terminal of the second branch (B2) and the power source, another terminal of the first branch (B1) and another terminal of the second branch (B2) being connected to ground; a first diode (D1) and a second diode (D2), one of the first diode (D1) and the second diode (D2) being configured to input a write data signal, a terminal of the first diode being connected to the first latching node, and a terminal of the second diode being connected to the second latching node; and a pass unit (U2) being connected to the fourth latching node and configured to transmit data stored in the Efuse bit cell and output a bit line signal, wherein a resistance of the resistor (R) is between a resistance of the fuse without being programmed and a resistance of the fuse being programmed. a data latch configured to latch data of the Efuse bit cell , having two branches with a fuse disposed in a first branch (B1) and a resistor (R) disposed in a second branch (B2), two terminals of the fuse being configured as a first latching node (P1) and a second latching node (P2), respectively, two terminals of the resistor (R) being configured as a third latching node (P3) and a fourth latching node (P4), respectively, the second latching node (P2) being connected to the second branch (B2) and the fourth latching (P4) node being connected to the first branch (B1); a selection controller (U1) configured to control connections between one terminal of the first branch (B1) and a power source and between one terminal of the second branch (B2) and the power source, another terminal of the first branch (B1) and another terminal of the second branch (B2) being connected to ground; a first diode (D1) and a second diode (D2), one of the first diode (D1) and the second diode (D2) being configured to input a write data signal, a terminal of the first diode being connected to the first latching node, and a terminal of the second diode being connected to the second latching node; and a pass unit (U2) being connected to the fourth latching node and configured to transmit data stored in the Efuse bit cell and output a bit line signal, wherein a resistance of the resistor (R) is between a resistance of the fuse without being programmed and a resistance of the fuse being programmed.
A method for producing wood chips for the production of chipboards, in particular made from recycling wood, comprising - a material supply unit in at least one first carrying structure that is adapted to the material supply unit , - a first mechanical sorting unit the material to be comminuted a first time in at least one second carrying structure that is adapted to the first sorting unit , - a material comminution unit in at least one third carrying structure that is adapted to the material comminution, - a second mechanical sorting unit the comminuted material a second time in at least one fourth carrying structure that is adapted to the second sorting unit, - wherein the sorting takes place by means of shakers or a vibrating chute and/or at least one screen , and/or at least one material separator unit separates off foreign matter, in particular metal and/or plastics material, wherein the first, second, third, and fourth carrying structures are each arranged so as to be semi-mobile on a foundation and/or on a supporting structure and are interconnected either directly or via material-carrying lines , wherein the supplied material is conveyed from the material supply unit through a first material-carrying line to the first mechanical sorting unit and is sorted, and is supplied from the first mechanical sorting unit through a second material-carrying line to the material comminution unit and is comminuted therein so as to form wood chips, and is supplied from there through a third material-carrying line to the second mechanical sorting unit , in which the wood chips are sorted by machine, whereupon the wood chips are provided for the production of chipboards. - a material supply unit in at least one first carrying structure that is adapted to the material supply unit , - a first mechanical sorting unit the material to be comminuted a first time in at least one second carrying structure that is adapted to the first sorting unit , - a material comminution unit in at least one third carrying structure that is adapted to the material comminution, - a second mechanical sorting unit the comminuted material a second time in at least one fourth carrying structure that is adapted to the second sorting unit, - wherein the sorting takes place by means of shakers or a vibrating chute and/or at least one screen , and/or at least one material separator unit separates off foreign matter, in particular metal and/or plastics material,