mhurhangee/ep-ind-claims huggingface dataset:
A method for performing a random access procedure by a user equipment in a wireless communication system, the method comprising: transmitting, by the user equipment, a random access preamble to a base station; receiving, by the user equipment, first downlink scheduling information associated with a random access response and second downlink scheduling information not associated with the random access response in a same subframe or transmission time interval, TTI; receiving, by the user equipment, in the same subframe or TTI, the random access response through a first Physical Downlink Shared Channel, PDSCH, indicated by the first downlink scheduling information from the base station, the random access response indicating a transmission of a physical uplink shared channel, PUSCH; receiving, by the user equipment, in the same subframe or TTI, a downlink transmission through a second PDSCH indicated by the second downlink scheduling information; and transmitting, by the user equipment, the PUSCH according to the random access response, wherein the user equipment does not decode the second PDSCH indicated by the second downlink scheduling information if the second PDSCH indicated by the second downlink scheduling information requires acknowledgement/negative-acknowledgment, ACK/NACK, transmission and decodes the second PDSCH indicated by the second downlink scheduling information if the second PDSCH indicated by the second downlink scheduling information does not require ACK/NACK transmission. transmitting, by the user equipment, a random access preamble to a base station; receiving, by the user equipment, first downlink scheduling information associated with a random access response and second downlink scheduling information not associated with the random access response in a same subframe or transmission time interval, TTI; receiving, by the user equipment, in the same subframe or TTI, the random access response through a first Physical Downlink Shared Channel, PDSCH, indicated by the first downlink scheduling information from the base station, the random access response indicating a transmission of a physical uplink shared channel, PUSCH; receiving, by the user equipment, in the same subframe or TTI, a downlink transmission through a second PDSCH indicated by the second downlink scheduling information; and transmitting, by the user equipment, the PUSCH according to the random access response,
A method for determining the location of a ground fault in an electrical circuit that comprises a plurality of transformers, each transformer having a primary winding and a secondary winding, the primary windings being electrically connected in series and each secondary winding being electrically connected to a light-emitting diode, characterised in that the method comprises: - using, after the occurrence of a ground fault, a constant-current regulator to supply AC power to the series-connected primary windings, - measuring a first voltage over a first resistor and a second voltage over a second resistor, the first resistor and the second resistor being electrically connected in series and between a first terminal and a second terminal of the series-connected primary windings, and - determining the location of the ground fault based on at least the measured first and second voltages. - using, after the occurrence of a ground fault, a constant-current regulator to supply AC power to the series-connected primary windings, - measuring a first voltage over a first resistor and a second voltage over a second resistor, the first resistor and the second resistor being electrically connected in series and between a first terminal and a second terminal of the series-connected primary windings, and - determining the location of the ground fault based on at least the measured first and second voltages.
An antifouling coating composition comprising a hydrolyzable resin, a first non-hydrolyzable resin, a second non-hydrolyzable resin, and an antifouling agent, wherein the hydrolyzable resin is a resin having at least one hydrolyzable group selected from the group consisting of a group represented by formula, a group represented by formula, and a group represented by formula: wherein R 1, R 2, and R 3 each independently represent a C1 to C6 hydrocarbon group, wherein M represents a divalent metal atom, and R 4 represents an organic acid residue or an alcohol residue, wherein M represents a divalent metal atom, the first non-hydrolyzable resin and the second non-hydrolyzable resin are each a resin that does not have a group represented by formula, a group represented by formula, and a group represented by formula, a glass transition temperature Tg B in °C and a solubility parameter SP B of the first non-hydrolyzable resin, and a glass transition temperature Tg C in °C and a solubility parameter SP C of the second non-hydrolyzable resin satisfy following expressions to: Tg B − Tg C ≥ 60 ° C SP B ≥ 9.5 SP C ≥ 9.5 SP B − SP C ≤ 1.0 and 40 ° C ≤ Tg B ≤ 80 ° C the hydrolyzable resin is a resin having at least one hydrolyzable group selected from the group consisting of a group represented by formula, a group represented by formula, and a group represented by formula: wherein R 1, R 2, and R 3 each independently represent a C1 to C6 hydrocarbon group, wherein M represents a divalent metal atom, and R 4 represents an organic acid residue or an alcohol residue, wherein M represents a divalent metal atom, the first non-hydrolyzable resin and the second non-hydrolyzable resin are each a resin that does not have a group represented by formula, a group represented by formula, and a group represented by formula, a glass transition temperature Tg B in °C and a solubility parameter SP B of the first non-hydrolyzable resin, and a glass transition temperature Tg C in °C and a solubility parameter SP C of the second non-hydrolyzable resin satisfy following expressions to: Tg B − Tg C ≥ 60 ° C SP B ≥ 9.5 SP C ≥ 9.5 SP B − SP C ≤ 1.0 and 40 ° C ≤ Tg B ≤ 80 ° C
Arrangement for driving at least one trigger element for a person protection means comprising: - a high-side circuit, which establishes a first connection from an energy source to the at least one trigger element, - a low-side circuit, which establishes a second connection from the at least one trigger element to earth, - wherein the high-side circuit and/or the low-side circuit in each case comprise(s) at least two parallel-connected output stages for a regulation of the trigger current per trigger element, wherein at least one of the at least two parallel-connected output stages comprises a first current regulation and one or a plurality of parallel-connected transistors, - characterized in that the parallel-connected output stages are arranged on an integrated circuit (FLIC) and the partial trigger currents are combined outside the integrated circuit (FLIC). - a high-side circuit, which establishes a first connection from an energy source to the at least one trigger element, - a low-side circuit, which establishes a second connection from the at least one trigger element to earth, - wherein the high-side circuit and/or the low-side circuit in each case comprise(s) at least two parallel-connected output stages for a regulation of the trigger current per trigger element, wherein at least one of the at least two parallel-connected output stages comprises a first current regulation and one or a plurality of parallel-connected transistors, - characterized in that the parallel-connected output stages are arranged on an integrated circuit (FLIC) and the partial trigger currents are combined outside the integrated circuit (FLIC).
A method for inline intrusion detection, comprising: receiving a packet at a physical interface of an intrusion detection system, wherein the packet is tagged with a first VLAN identifier associated with an external network; buffering the packet at the physical interface; communicating a copy of the packet to a processor; analyzing the copy of the packet at the processor to determine whether the packet includes an attack signature; communicating a reply message from the processor to the interface indicating whether the packet includes an attack signature; and if the packet does not contain an attack signature: re-tagging the buffered copy of the packet with a second VLAN identifier associated with a protected network; and communicating the re-tagged packet to the protected network. receiving a packet at a physical interface of an intrusion detection system, wherein the packet is tagged with a first VLAN identifier associated with an external network; buffering the packet at the physical interface; communicating a copy of the packet to a processor; analyzing the copy of the packet at the processor to determine whether the packet includes an attack signature; communicating a reply message from the processor to the interface indicating whether the packet includes an attack signature; and if the packet does not contain an attack signature: re-tagging the buffered copy of the packet with a second VLAN identifier associated with a protected network; and communicating the re-tagged packet to the protected network. re-tagging the buffered copy of the packet with a second VLAN identifier associated with a protected network; and communicating the re-tagged packet to the protected network.
A dryer for drying a liquid feed into a powder, comprising a drying chamber defined by a chamber wall including a bottom wall portion; a feed inlet for receiving the liquid feed and dispersing particulate feed into the drying chamber; at least one air inlet for entering drying air into the drying chamber; and at least one drying chamber outlet for dried powder and/or spend drying air from the drying chamber, wherein the feed inlet comprises a decanter centrifuge having a vertical axis of rotation; a first axial end; a second axial end; and a solid phase outlet at the first axial end, characterized in that the first axial end of the decanter centrifuge is positioned below the second axial end of the decanter centrifuge. the feed inlet comprises a decanter centrifuge having a vertical axis of rotation; a first axial end; a second axial end; and a solid phase outlet at the first axial end, characterized in that the first axial end of the decanter centrifuge is positioned below the second axial end of the decanter centrifuge.
A turbine engine article comprising: a substrate; and a thermally insulating topcoat disposed on a surface of the substrate, the surface of the substrate including a surface pattern defining first surface regions and second surface regions, the first surface regions including incubation sites that are favorable for deposition of the thermally insulating topcoat and the second surface regions are less favorable for deposition of the thermally insulating topcoat relative to the first surface regions, and the thermally insulating topcoat includes segmented portions that are separated by faults extending through the thermally insulating topcoat from the second regions; characterised in that: the first surface regions have a first surface roughness and the second surface regions have a second surface roughness that is less than the first surface roughness. a substrate; and a thermally insulating topcoat disposed on a surface of the substrate, the surface of the substrate including a surface pattern defining first surface regions and second surface regions, the first surface regions including incubation sites that are favorable for deposition of the thermally insulating topcoat and the second surface regions are less favorable for deposition of the thermally insulating topcoat relative to the first surface regions, and the thermally insulating topcoat includes segmented portions that are separated by faults extending through the thermally insulating topcoat from the second regions; characterised in that: the first surface regions have a first surface roughness and the second surface regions have a second surface roughness that is less than the first surface roughness.
Screw (10; 100) for wooden materials, having a shank, wherein the shank has a screw tip (16; 116) and a screw head with a driving formation at the opposite end of the shank from the screw tip (16; 116), and wherein the shank is provided at least in certain portions with a thread, characterized in that the screw tip (16; 116), starting from a cylindrical part of the shank, narrows in several steps (S1, S2, S3, S4) as far as the end of the screw tip (16; 116), wherein the thread extends over the steps (S1, S2, S3, S4), in that at least two steps (S1, S2, S3, S4) have a shoulder portion (28, 34, 38, 42), arranged perpendicularly to the longitudinal centre axis or at an angle of between 90° and 45° to the longitudinal centre axis, and a step portion (30, 36, 40, 44), arranged parallel to the longitudinal centre axis, at an angle of more than 0° as far as an angle of 10° or at an angle of less than 0° as far as an angle of -10° to the longitudinal centre axis, wherein the step portion (30, 36, 40, 44), as seen in the direction of the longitudinal centre axis of the screw (10; 100), is at least as long as the should portion (28, 34, 38, 42), in that, between each step portion (30, 36, 40, 44) and each shoulder portion (28, 34, 38, 42), an encircling edge for achieving a punching action is formed, and in that each shoulder portion (28, 34, 38, 42) and each step portion (30, 36, 40, 44) of a step (S1, S2, S3, S4) forms a closed ring about the longitudinal centre axis of the screw (10; 100).
A beam switching method in a multi beam network comprising a user equipment and at least one node (12, 14) providing multiple beams (B 1,1, B 1,2, B 1,3, B 2,1, B 2,2, B 2,3), wherein the method comprises the following steps: a) conducting a beam switching process of the user equipment from a first beam (B 1,2) provided by the at least one node to a second beam (B 1,1; B 2,2), and b) sending a first numerology control message from the at least one node to the user equipment prior to the beam switching process, wherein the first numerology control message comprises a first numerology (N 1) and/or an instruction for the user equipment to reduce numerology to achieve a first numerology (N 1), wherein the first numerology (N 1) is used by the user equipment and the at least one node (12, 14) during the beam switching process, wherein the first numerology (N 1) defines waveform parameters, wherein the first numerology (N 1) is a more robust and reliable numerology than during normal communication, wherein the waveform parameters are a subcarrier spacing and/or a length of a cyclic prefix, wherein the subcarrier spacing and/or the cyclic prefix are enlarged for decreasing numerology, and wherein the subcarrier spacing and/or the cyclic prefix are reduced for increasing numerology. a) conducting a beam switching process of the user equipment from a first beam (B 1,2) provided by the at least one node to a second beam (B 1,1; B 2,2), and b) sending a first numerology control message from the at least one node to the user equipment prior to the beam switching process,
A method for performing dynamic binary translation in a Master Control Program, MCP, operating system environment on a native processor, the MCP environment comprising a central processor module, CPM, which is responsible for execution of E-mode code, a task control unit, TCU, which is responsible for scheduling the CPM to stacks or regions of memory that contain E-mode code to be executed, said stacks being in a ready state or a waiting state depending on whether or not said stacks can be assigned to the CPM for execution, and a code translation unit, CTU, which is responsible for the translation of E-mode code to native code for implementing the dynamic binary translation, the method comprising: the CPM reading E-Mode code from a memory prior to execution; the CPM generating and sending a first message to the CTU, the first message comprising a reference to the E-Mode code to be translated and a translation complete event to be caused when translation of the E-Mode code is completed; the CPM generating and sending a second message to the TCU, the second message configured to cause a first stack to be put into a waiting state until the translation complete event is issued by the CTU, said first stack comprising at least a first portion of the E-Mode code to be translated; based on the second message, the TCU selecting a second stack in a ready state and instructing the CPM to move to said second stack; based on the first message, the CTU translating the first portion of the E-Mode code to native code; upon completion of the translation, the CTU generating and sending a third message to the TCU, the third message configured to cause the translation complete event; based on the third message, the TCU causing the translation complete event; and the TCU putting said first stack into a ready state and instructing the CPM to move to said first stack; and the CPM executing the native code. the CPM reading E-Mode code from a memory prior to execution; the CPM generating and sending a first message to the CTU, the first message comprising a reference to the E-Mode code to be translated and a translation complete event to be caused when translation of the E-Mode code is completed; the CPM generating and sending a second message to the TCU, the second message configured to cause a first stack to be put into a waiting state until the translation complete event is issued by the CTU, said first stack comprising at least a first portion of the E-Mode code to be translated; based on the second message, the TCU selecting a second stack in a ready state and instructing the CPM to move to said second stack; based on the first message, the CTU translating the first portion of the E-Mode code to native code; upon completion of the translation, the CTU generating and sending a third message to the TCU, the third message configured to cause the translation complete event; based on the third message, the TCU causing the translation complete event; and the TCU putting said first stack into a ready state and instructing the CPM to move to said first stack; and the CPM executing the native code.
A method for wireless communication performed by a user equipment, UE, the method comprising: receiving, from a base station, configuration information that enables resource grants for multiple transport blocks, wherein cancellation of repetitions based on implicit acknowledgment of transport blocks is disabled based on the configuration information that enables resource grants for multiple transport blocks, and wherein cancellation of repetitions based on implicit acknowledgment of transport blocks is enabled based on configuration information that disables resource grants for multiple transport blocks; transmitting, to the base station, one or more repetitions of a first uplink communication based at least in part on a first resource grant received from the base station; receiving, from the base station, a second resource grant for a second uplink communication that at least partially overlaps with resources for one or more repetitions of the first uplink communication; and determining to cancel or to transmit one or more remaining repetitions of the first uplink communication based at least in part on the second resource grant providing an implicit acknowledgment of successful receipt of at least one transport block of the first uplink communication and based at least in part on whether one or more of the first resource grant or the second resource grant schedules multiple transport blocks. receiving, from a base station, configuration information that enables resource grants for multiple transport blocks, wherein cancellation of repetitions based on implicit acknowledgment of transport blocks is disabled based on the configuration information that enables resource grants for multiple transport blocks, and wherein cancellation of repetitions based on implicit acknowledgment of transport blocks is enabled based on configuration information that disables resource grants for multiple transport blocks; transmitting, to the base station, one or more repetitions of a first uplink communication based at least in part on a first resource grant received from the base station; receiving, from the base station, a second resource grant for a second uplink communication that at least partially overlaps with resources for one or more repetitions of the first uplink communication; and determining to cancel or to transmit one or more remaining repetitions of the first uplink communication based at least in part on the second resource grant providing an implicit acknowledgment of successful receipt of at least one transport block of the first uplink communication and based at least in part on whether one or more of the first resource grant or the second resource grant schedules multiple transport blocks.
A compression system for applying compression to a body part of a user comprising a sleeve for substantially covering a portion of the body part of a user, wherein the sleeve has two lateral side edges, wherein in the transverse direction from the first lateral side edge to the second lateral side edge the sleeve comprises a first lateral side region, a central region and a second lateral side region, wherein at least the central region of the sleeve comprises a material (main material) having elasticity in the transverse direction and longitudinal direction of the sleeve, said main material having a maximum elongation in said transverse direction of the sleeve from 5% up to and including 35% under a load of 10 N per cm width and having tension and elongation characteristics in one of said directions of the sleeve (first sleeve direction) calculated as per BS EN 14704-1:2005 such that the initial slope of a tension-elongation curve in that region of the curve where the force per cm width ranges from 0.1 N/cm to 0.9 N/cm is equal to or less than 0.9 N/(cm.%), wherein the initial slope in said region of the tension-elongation curve is determined by using the following equation ((T2-T1))/((S2-S1)), wherein S1 and S2 are elongation values, and wherein the compression system further comprises a releasable closure system which is a separate component from the sleeve, said closure system being configured and arranged relative to the sleeve, such that, in use, upon closure of the closure system the sleeve is restrained and tightened about the body part of the user.
Punch riveting apparatus (2; 3) for punch riveting with a vibration supporting a punch force, having a vibration generating device for generating the vibration supporting a punch force in order to set a punch rivet in at least one component (6, 7), a die for absorbing the punch force and the vibration supporting the punch force during the setting of the punch rivet, and a test device for testing the mechanical quality of the rivet joint created with the punch rivet by way of a test vibration generated by the vibration generating device, wherein the test device is additionally configured to carry out the test by way of a test vibration that is applied to the punch rivet as an additional vibration to the vibration.