mhurhangee/patent-ind-claim-en huggingface dataset:
Method for fastening a receiving body for an electronic device to an inner rubber layer of a vulcanized tyre , having the following steps: - positioning a contact surface , made of a vulcanized rubber material, of the receiving body on a cutout-free joining portion of the inner rubber layer of the vulcanized tyre by means of a setting tool ; - joining the contact surface of the receiving body to the joining portion of the inner rubber layer of the vulcanized tyre by vulcanization of a vulcanization agent which is situated between the contact surface of the receiving body and the joining portion of the inner rubber layer of the vulcanized tyre ; wherein the setting tool is heated before and/or during the joining of the receiving body to the joining portion of the inner rubber layer of the vulcanized tyre in order to realize an introduction of heat into the vulcanization agent . - positioning a contact surface , made of a vulcanized rubber material, of the receiving body on a cutout-free joining portion of the inner rubber layer of the vulcanized tyre by means of a setting tool ; - joining the contact surface of the receiving body to the joining portion of the inner rubber layer of the vulcanized tyre by vulcanization of a vulcanization agent which is situated between the contact surface of the receiving body and the joining portion of the inner rubber layer of the vulcanized tyre ;
A cargo handling system , comprising: a conveyance surface having a tray , the tray defining an interior section and a rail section ; a power drive unit disposed within the interior section , the power drive unit including a drive roller , a unit controller (240; 340) and a unit motor configured to power the drive roller ; a power bus routed along a length of the rail section and configured to supply power to the power drive unit ; and a first coupling is secured to an inside surface of the tray and a second coupling secured to a housing of the unit motor , the power bus being threaded through the first coupling and the second coupling in order to provide power to the unit motor . a conveyance surface having a tray , the tray defining an interior section and a rail section ; a power drive unit disposed within the interior section , the power drive unit including a drive roller , a unit controller (240; 340) and a unit motor configured to power the drive roller ; a power bus routed along a length of the rail section and configured to supply power to the power drive unit ; and a first coupling is secured to an inside surface of the tray and a second coupling secured to a housing of the unit motor , the power bus being threaded through the first coupling and the second coupling in order to provide power to the unit motor .
A system for providing electrostimulation to a patient, the system comprising: an ambulatory medical device, AMD, including a virtual machine, VM, and an electrostimulator ; and at least one computer-readable storage medium including instructions executable on an external system communicatively coupled to the AMD, the external system including a user interface , a compiler , and a telemetry circuit ; wherein the instructions, when executed by the external system: enable the user interface to receive a waveform function in a form of computer code text or a graph , the waveform function defining one or more modulation programs characterized by respective one or more modulation parameters, and a user input of values for the one or more modulation parameters of the one or more modulation programs; cause the compiler to translate the waveform function into VM instructions; and cause the telemetry circuit to transmit the VM instructions to the AMD; wherein the VM of the AMD is configured to execute the VM instructions to generate respective one or more modulation waveform datasets corresponding to the one or more modulation programs, and the electrostimulator is configured to generate electrostimulation therapy according to the one or more modulation waveform datasets. an ambulatory medical device, AMD, including a virtual machine, VM, and an electrostimulator ; and at least one computer-readable storage medium including instructions executable on an external system communicatively coupled to the AMD, the external system including a user interface , a compiler , and a telemetry circuit ; wherein the instructions, when executed by the external system: enable the user interface to receive a waveform function in a form of computer code text or a graph , the waveform function defining one or more modulation programs characterized by respective one or more modulation parameters, and a user input of values for the one or more modulation parameters of the one or more modulation programs; cause the compiler to translate the waveform function into VM instructions; and cause the telemetry circuit to transmit the VM instructions to the AMD; enable the user interface to receive a waveform function in a form of computer code text or a graph , the waveform function defining one or more modulation programs characterized by respective one or more modulation parameters, and a user input of values for the one or more modulation parameters of the one or more modulation programs; cause the compiler to translate the waveform function into VM instructions; and cause the telemetry circuit to transmit the VM instructions to the AMD; wherein the VM of the AMD is configured to execute the VM instructions to generate respective one or more modulation waveform datasets corresponding to the one or more modulation programs, and the electrostimulator is configured to generate electrostimulation therapy according to the one or more modulation waveform datasets.
A method for managing a mobility pattern of a terminal , characterized by comprising: receiving , by a radio access network, RAN, node, a first mobility pattern of a terminal from a control plane function, CPF, entity , wherein the first mobility pattern comprises: a connection status and a location area list; determining , by the RAN node, a second mobility pattern of the terminal based on the first mobility pattern; and sending , by the RAN node, the determined second mobility pattern to the terminal ; wherein the determining, by the RAN node, a second mobility pattern of the terminal based on the first mobility pattern comprises: pre-obtaining, by the RAN node, a mobility pattern supported by the RAN node; and either determining, by the RAN node, the first mobility pattern as the second mobility pattern in response to the RAN node supporting the first mobility pattern, wherein the second mobility pattern comprises RRC-INACTIVE and a location area list; or else selecting, by the RAN node, a default mobility pattern as the second mobility pattern in response to the RAN node not supporting the first mobility pattern. receiving , by a radio access network, RAN, node, a first mobility pattern of a terminal from a control plane function, CPF, entity , wherein the first mobility pattern comprises: a connection status and a location area list; determining , by the RAN node, a second mobility pattern of the terminal based on the first mobility pattern; and sending , by the RAN node, the determined second mobility pattern to the terminal ; wherein the determining, by the RAN node, a second mobility pattern of the terminal based on the first mobility pattern comprises: pre-obtaining, by the RAN node, a mobility pattern supported by the RAN node; and either determining, by the RAN node, the first mobility pattern as the second mobility pattern in response to the RAN node supporting the first mobility pattern, wherein the second mobility pattern comprises RRC-INACTIVE and a location area list; or else selecting, by the RAN node, a default mobility pattern as the second mobility pattern in response to the RAN node not supporting the first mobility pattern. pre-obtaining, by the RAN node, a mobility pattern supported by the RAN node; and either determining, by the RAN node, the first mobility pattern as the second mobility pattern in response to the RAN node supporting the first mobility pattern, wherein the second mobility pattern comprises RRC-INACTIVE and a location area list; or else selecting, by the RAN node, a default mobility pattern as the second mobility pattern in response to the RAN node not supporting the first mobility pattern.
A floating structure comprising: a main body including leg wells ; legs penetrating the leg wells and having cords and racks; at least one jacking unit generating a lifting force to move the legs and the main body in the vertical direction relatively; and a unit installation means (Q2) coupled with the main body to position the jacking unit in the main body , wherein the unit installation means (Q2) comprises at least a unit mounting portion to receive the jacking unit and which is positioned in the main body ; wherein the unit mounting portion includes: openings in which the leg wells are positioned; first unit accesses penetrating the main deck of the main body ; and second unit accesses through which the jacking unit moves. a main body including leg wells ; legs penetrating the leg wells and having cords and racks; at least one jacking unit generating a lifting force to move the legs and the main body in the vertical direction relatively; and a unit installation means (Q2) coupled with the main body to position the jacking unit in the main body , wherein the unit installation means (Q2) comprises at least a unit mounting portion to receive the jacking unit and which is positioned in the main body ; wherein the unit mounting portion includes: openings in which the leg wells are positioned; first unit accesses penetrating the main deck of the main body ; and second unit accesses through which the jacking unit moves. openings in which the leg wells are positioned; first unit accesses penetrating the main deck of the main body ; and second unit accesses through which the jacking unit moves.
Machining tool comprising at least one plate-shaped cutting insert , which is made of impact-resistant and/or wear-resistant cutting material at least in some sections and which is adhesively bonded to a cutting insert holder directly by means of an adhesive layer in an immovable manner by means of a contact surface arrangement, wherein the cutting insert is substantially prism-shaped, and wherein the cutting insert is fixed on the cutting insert holder such that a section (F2) of an outer surface arrangement (MFA) of the prism substantially opposite a cutting edge (S1, S2) is caught in a fitting groove of the cutting insert holder , wherein a) a base area (GF) of the prism is adhesively bonded to the cutting insert holder substantially over the full area, characterised in that b) the outer surface arrangement (MFA; F1, F2) of the prism adjacent to the cutting edge (S1, S2) for spatially fixing the cutter (S1, S2) is drawn to the tool such that the position of the cutter is spatially fixed, without further machining, within the specified tolerance range, while an adhesive film or an adhesive imprint is used as the adhesive layer, the thickness of which lies within the dimensional accuracy tolerance range of the tool cutting edge, e.g. between 5 μm and 100 μm. a) a base area (GF) of the prism is adhesively bonded to the cutting insert holder substantially over the full area, characterised in that b) the outer surface arrangement (MFA; F1, F2) of the prism adjacent to the cutting edge (S1, S2) for spatially fixing the cutter (S1, S2) is drawn to the tool such that the position of the cutter is spatially fixed, without further machining, within the specified tolerance range, while an adhesive film or an adhesive imprint is used as the adhesive layer, the thickness of which lies within the dimensional accuracy tolerance range of the tool cutting edge, e.g. between 5 μm and 100 μm.
A system, comprising: a transmitting node configured to: generate and transmit a data packet to a receiving node using a communication mode selected from a plurality of supported communication modes, the data packet comprising: a pilot prefix generated to have a predetermined frequency, and a preamble and additional data generated using the selected communication mode; and the receiving node configured to: operate in a base communication mode, wherein the base communication mode is one of the plurality of supported communication modes; while operating in the base communication mode, detect the pilot prefix; in response to determining that the pilot prefix is detected, determine the communication mode used to transmit the data packet based on the preamble received after the detected pilot prefix; and receive and process a remaining portion of the data packet using the determined communication mode. a transmitting node configured to: generate and transmit a data packet to a receiving node using a communication mode selected from a plurality of supported communication modes, the data packet comprising: a pilot prefix generated to have a predetermined frequency, and a preamble and additional data generated using the selected communication mode; and a pilot prefix generated to have a predetermined frequency, and a preamble and additional data generated using the selected communication mode; and the receiving node configured to: operate in a base communication mode, wherein the base communication mode is one of the plurality of supported communication modes; while operating in the base communication mode, detect the pilot prefix; in response to determining that the pilot prefix is detected, determine the communication mode used to transmit the data packet based on the preamble received after the detected pilot prefix; and receive and process a remaining portion of the data packet using the determined communication mode. operate in a base communication mode, wherein the base communication mode is one of the plurality of supported communication modes; while operating in the base communication mode, detect the pilot prefix; in response to determining that the pilot prefix is detected, determine the communication mode used to transmit the data packet based on the preamble received after the detected pilot prefix; and receive and process a remaining portion of the data packet using the determined communication mode.
Milling tool for machining wood, wood-based materials, plastics or light metals, having a machining side (A) and a spindle side (B) and having a first fixed machining tool , which is arranged in a housing which can be rotated about an axis of rotation (D), and at least one second machining tool which is arranged coaxially to the first machining tool so as to be displaceable between an inoperative position and a machining position and, for displacement in the axial direction, can be brought into connection with a cam disc which is arranged in the housing so as to be rotatable about the axis of rotation (D), characterized in that at least two machining tools which are arranged so as to be displaceable between an inoperative position and a machining position are provided.
A system for obtaining electrical activity measurement signals from an electrode configured for contacting skin of a user, the system comprising: a support configured to be positioned at least partially around a part of the user; an electrode supported by said support and configured for contacting the skin of the user; an actuator operatively coupled to the electrode , the actuator configured to move the electrode in at least a lateral dimension generally parallel to the skin, to enable the electrode to contact the skin at different locations; and a processor operatively connected with the electrode and the actuator , and programmed to obtain an impedance signal from the electrode , and actuate the actuator to move the electrode based on the obtained impedance signal, wherein the electrode is connected to the support via a spring structure configured to deliver sufficient contact pressure of the electrode on the user and to allow decoupling of the movement, in at least the lateral dimension, of the electrode with respect to the support , wherein the actuator is connected to the electrode using a spring , characterised in that the actuator is configured to move the electrode in the lateral dimension by retracting, and thereby pulling the spring to reposition the electrode . a support configured to be positioned at least partially around a part of the user; an electrode supported by said support and configured for contacting the skin of the user; an actuator operatively coupled to the electrode , the actuator configured to move the electrode in at least a lateral dimension generally parallel to the skin, to enable the electrode to contact the skin at different locations; and a processor operatively connected with the electrode and the actuator , and programmed to obtain an impedance signal from the electrode , and actuate the actuator to move the electrode based on the obtained impedance signal, wherein the electrode is connected to the support via a spring structure configured to deliver sufficient contact pressure of the electrode on the user and to allow decoupling of the movement, in at least the lateral dimension, of the electrode with respect to the support , wherein the actuator is connected to the electrode using a spring , characterised in that the actuator is configured to move the electrode in the lateral dimension by retracting, and thereby pulling the spring to reposition the electrode .
Shear bar for a device for comminuting bulk material grains and in particular cereal grains and kernels, the shear bar being cuboidal with smaller and larger side surfaces and preferably having a length in the range from 30 to 90 cm, a width in the range from 10 to 25 cm and a thickness in the range from 1 to 10 cm, comprising - an upper section which is designed in such a way that the shear bar can be arranged in a holder in a tension- and pressure-resistant manner, - a small side surface with recesses , preferably 50 to 100 recesses, to form a sawtooth-shaped section, characterized in that the shear bar has, in at least one portion of at least one of the larger side surfaces, a groove-shaped recess which extends over at least half the width of the side surface of the shear bar and extends to the end of the end surface of the shear bar facing away from the upper portion . - an upper section which is designed in such a way that the shear bar can be arranged in a holder in a tension- and pressure-resistant manner, - a small side surface with recesses , preferably 50 to 100 recesses, to form a sawtooth-shaped section, characterized in that the shear bar has, in at least one portion of at least one of the larger side surfaces, a groove-shaped recess which extends over at least half the width of the side surface of the shear bar and extends to the end of the end surface of the shear bar facing away from the upper portion .
A crate for a cheese, said crate comprising a base , an open top substantially parallel to the base , a peripheral wall extending from the base to the top in a vertical direction (V, V'), the peripheral wall forming a closed contour and forming with the base a space intended to receive the cheese, said space having a height along the vertical direction (V, V'), the peripheral wall having at least one through-hole formed therein and comprising a medium portion which is approximately at mid-height of the space intended to receive the cheese, the peripheral wall comprising a solid strip enclosing the space intended to receive the cheese while being substantially parallel to the base , said solid strip including the medium portion of the peripheral wall and having a minimum height which is at least 15 % of the height of the space intended to receive the cheese, wherein the peripheral wall consists of several sections juxtaposed to each other along the periphery of the base , said sections comprising two end sections positioned on opposite ends of the base in a longitudinal direction (L, L'), and two side sections positioned on opposite sides of the base in a transversal direction (T, T') substantially perpendicular to the longitudinal direction (L, L'), characterized in that the base comprises transversal ribs extending along the transversal direction (T, T') from one side section to the other side section , and each transversal rib of the base has a Z-shaped longitudinal section comprising a central portion extending along the vertical direction (V, V') and two extreme portions each protruding from a respective side of the central portion along the longitudinal direction (L, L'). the peripheral wall comprising a solid strip enclosing the space intended to receive the cheese while being substantially parallel to the base , said solid strip including the medium portion of the peripheral wall and having a minimum height which is at least 15 % of the height of the space intended to receive the cheese, wherein the peripheral wall consists of several sections juxtaposed to each other along the periphery of the base , said sections comprising two end sections positioned on opposite ends of the base in a longitudinal direction (L, L'), and two side sections positioned on opposite sides of the base in a transversal direction (T, T') substantially perpendicular to the longitudinal direction (L, L'), characterized in that the base comprises transversal ribs extending along the transversal direction (T, T') from one side section to the other side section , and each transversal rib of the base has a Z-shaped longitudinal section comprising a central portion extending along the vertical direction (V, V') and two extreme portions each protruding from a respective side of the central portion along the longitudinal direction (L, L').
A computer-implemented method for providing a security engine, comprising: first detecting that a first process has launched a second process and placed the second process in a suspended state, comprising identifying a create-suspend flag, and further comprising detecting that no "resume" instruction has been issued for the process; second detecting that after placing the second process in the suspended state, the first process has modified or attempted to modify the second process, characterized by : the second detecting comprises detecting that the first process has modified an import address table; classifying the first process as potentially malicious, based at least in part on the first detecting in combination with the second detecting; and taking a remedial action. first detecting that a first process has launched a second process and placed the second process in a suspended state, comprising identifying a create-suspend flag, and further comprising detecting that no "resume" instruction has been issued for the process; second detecting that after placing the second process in the suspended state, the first process has modified or attempted to modify the second process, characterized by : the second detecting comprises detecting that the first process has modified an import address table; classifying the first process as potentially malicious, based at least in part on the first detecting in combination with the second detecting; and taking a remedial action. the second detecting comprises detecting that the first process has modified an import address table; classifying the first process as potentially malicious, based at least in part on the first detecting in combination with the second detecting; and taking a remedial action.