mhurhangee/ep-ind-claims huggingface dataset:
A communications device comprising: a memory unit; and an input/output interface configured to send and receive signals to and from a memory device using wireless communications; at least one processor configured using the input/output interface for sending and receiving signals to and from the memory device to: send an activation signal (410,510) to the memory device; receive from the memory device a random challenge; wherein the random challenge is derived from at least one physical property of said activation signal (410,510); and the at least one processor is further configured to: compute (440,540) a signature using the random challenge and a private key (priv_A) of the communications device; send (450,550) the computed signature and a certificate (cert_A) of the communication device to the memory device; and to transmit to the memory device a radio signal containing an intention of the communications device to leave and instructions for the memory device to deactivate or power down; wherein the certificate (cert_A) of the communications device has been obtained from a certificate authority and is based on a public key (pub_A) of the communications device and on a signature (SIGN(pub_A, priv_CA)) of the public key (pub_A) of the communications device and of a private key (priv_CA) of the certificate authority. a memory unit; and an input/output interface configured to send and receive signals to and from a memory device using wireless communications; at least one processor configured using the input/output interface for sending and receiving signals to and from the memory device to: send an activation signal (410,510) to the memory device; receive from the memory device a random challenge; wherein send an activation signal (410,510) to the memory device; receive from the memory device a random challenge; wherein the random challenge is derived from at least one physical property of said activation signal (410,510); and the at least one processor is further configured to: compute (440,540) a signature using the random challenge and a private key (priv_A) of the communications device; send (450,550) the computed signature and a certificate (cert_A) of the communication device to the memory device; and to transmit to the memory device a radio signal containing an intention of the communications device to leave and instructions for the memory device to deactivate or power down; compute (440,540) a signature using the random challenge and a private key (priv_A) of the communications device; send (450,550) the computed signature and a certificate (cert_A) of the communication device to the memory device; and to transmit to the memory device a radio signal containing an intention of the communications device to leave and instructions for the memory device to deactivate or power down; wherein the certificate (cert_A) of the communications device has been obtained from a certificate authority and is based on a public key (pub_A) of the communications device and on a signature (SIGN(pub_A, priv_CA)) of the public key (pub_A) of the communications device and of a private key (priv_CA) of the certificate authority.
A current sampling method, comprising: obtaining a detected temperature of each semiconductor switch device of a plurality of parallel semiconductor switch devices (M1, M2,...Mn); and characterised by: determining that the plurality of parallel semiconductor switch devices (M1, M2,...Mn) are in a current equalization state, based on the detected temperature of each semiconductor switch device; obtaining an equalized current flowing through a target semiconductor switch device in the current equalization state, wherein the target semiconductor switch device is any one of the plurality of parallel semiconductor switch devices (M1, M2,...Mn); and determining a total current of a main circuit connected to the plurality of parallel semiconductor switch devices (M1, M2,...Mn) according to the equalized current. obtaining a detected temperature of each semiconductor switch device of a plurality of parallel semiconductor switch devices (M1, M2,...Mn); and characterised by: determining that the plurality of parallel semiconductor switch devices (M1, M2,...Mn) are in a current equalization state, based on the detected temperature of each semiconductor switch device; obtaining an equalized current flowing through a target semiconductor switch device in the current equalization state, wherein the target semiconductor switch device is any one of the plurality of parallel semiconductor switch devices (M1, M2,...Mn); and determining a total current of a main circuit connected to the plurality of parallel semiconductor switch devices (M1, M2,...Mn) according to the equalized current.
A compound of formula I: or a pharmaceutically acceptable salt thereof, wherein X 2 is a fluorine atom and X 3 is a hydrogen atom. or a pharmaceutically acceptable salt thereof, wherein X 2 is a fluorine atom and X 3 is a hydrogen atom.
A method for controlling a vibrating pile driver when driving a pile element into a ground, wherein the vibrating pile driver includes a vibration unit connected with the same and is attached to a carrier machine (5, 1), the method comprising the following steps: detecting at least one first status parameter of the carrier machine (5, 1), and detecting at least one second status parameter of the vibration unit, wherein the at least one first status parameter of the carrier machine (5, 1) is an advance force of the pile element, an advance rate of the pile element, a penetration depth of the pile element, an engine power of the carrier machine (5, 1) and/or an energy consumption of the carrier machine (5, 1), and the at least one second status parameter of the vibration unit is a frequency of the vibration transmitted to the pile element by the vibration unit, an amplitude of the vibration transmitted to the pile element by the vibration unit and/or an acceleration of the vibration unit characterized in that with reference to the at least one first status parameter and the at least one second status parameter a statistical ground model, which is a ground depth profile is generated, which indicates various properties of the ground along the driving direction of the pile element, and individual operating parameters of the carrier machine (5, 1) and of the vibration unit are adapted to the statistical ground model, in order to optimize the energy consumption and/or an advance rate when driving in the pile element. detecting at least one first status parameter of the carrier machine (5, 1), and detecting at least one second status parameter of the vibration unit, wherein the at least one first status parameter of the carrier machine (5, 1) is an advance force of the pile element, an advance rate of the pile element, a penetration depth of the pile element, an engine power of the carrier machine (5, 1) and/or an energy consumption of the carrier machine (5, 1), and the at least one second status parameter of the vibration unit is a frequency of the vibration transmitted to the pile element by the vibration unit, an amplitude of the vibration transmitted to the pile element by the vibration unit and/or an acceleration of the vibration unit characterized in that with reference to the at least one first status parameter and the at least one second status parameter a statistical ground model, which is a ground depth profile is generated, which indicates various properties of the ground along the driving direction of the pile element, and individual operating parameters of the carrier machine (5, 1) and of the vibration unit are adapted to the statistical ground model, in order to optimize the energy consumption and/or an advance rate when driving in the pile element.
A mobile station apparatus that is configured to connect to a base station apparatus using a plurality of aggregated component carriers in carrier aggregation, wherein the mobile station apparatus is configured to determine a cell and a channel, the cell and the channel being used to transmit a scheduling request which is used to request, either through the use of a physical random access channel or a physical uplink control channel, a radio resource for uplink transmission, the cell being one of the aggregated component carriers, the cell being determined based on first information in a Radio Resource Control, RRC, message, the first information comprising at least a transmission setting of a random access channel on the cell, and the channel being determined as the random access channel in a case that a Physical Uplink Control CHannel, PUCCH, for the scheduling request is not allocated.
A torque sensor supporting device of a torque sensor including a first structure, a second structure, third structures provided between the first structure and the second structure, and at least two sensor sections (44, 45) provided between the first structure and the second structure, the torque sensor supporting device comprising: a first mounting section provided on the first structure; a second mounting section which is coupled to the second structure and to which torque is applied; a first supporting body provided on the first mounting section; a second supporting body linked with the second structure; and a plurality of rotating bodies provided between the first supporting body and the second supporting body characterized in that the second mounting section is provided on the first surface side of the torque sensor, the first supporting body, the second supporting body, and the rotating bodies are provided on the second surface side of the torque sensor opposite to the first surface, and the supporting device further comprises a fourth supporting body provided between the second supporting body and the second structure. a first mounting section provided on the first structure; a second mounting section which is coupled to the second structure and to which torque is applied; a first supporting body provided on the first mounting section; a second supporting body linked with the second structure; and a plurality of rotating bodies provided between the first supporting body and the second supporting body the second mounting section is provided on the first surface side of the torque sensor, the first supporting body, the second supporting body, and the rotating bodies are provided on the second surface side of the torque sensor opposite to the first surface, and the supporting device further comprises a fourth supporting body provided between the second supporting body and the second structure.
A method for preparing a porous protein particle, comprising: providing a protein isolate; forming a protein isolate emulsion with an oil; drying the protein isolate emulsion to produce a powder; extracting the oil from the powder to produce the porous protein particle, and loading one or more active substances into the porous protein particle. providing a protein isolate; forming a protein isolate emulsion with an oil; drying the protein isolate emulsion to produce a powder; extracting the oil from the powder to produce the porous protein particle, and loading one or more active substances into the porous protein particle.
A fault resolution apparatus (FAULT1; FAULT2; FAULT3) characterized in that said apparatus is used to automatically determine correct installation of a graphical user interface component (GUI-C1) on a framework of a display of a device in a home network, said graphical user interface component (GUI-C1) which is associated to an application that is running on a service home gateway coupled to said device, being installed by an installer component (INST) of said framework, said apparatus comprises analyzing means (ANAL1; ANAL2; ANAL3) for receiving framework data information (DAT) from a generator component (Cinv) of said framework and for analyzing said framework data information (DAT), said framework data information being generated by said generator component (Cinv) based on at least one of - system information (SYST) of said framework being retrieved from said framework by said generator component; and - a display list (LIST), comprising an ordering of all visual objects shown on the display of the device in a hierarchical way, of said framework being collected from said framework by said generator component (Cinv); and - event information (EVENT), comprising logged information regarding failed installation of a graphical user interface component, being received by said generator component (Cinv) from anyone of said installer (INST) and said framework, upon subscription to events of, respectively, said installer or said framework; and said analyzing means is further comprised to determine that said graphical user interface component (GUI-C1) failed to be correctly installed and running on said framework when said graphical user interface component is not in the display list or when the logged information in the event information reveals a failure of installation of the graphical user interface component. - system information (SYST) of said framework being retrieved from said framework by said generator component; and - a display list (LIST), comprising an ordering of all visual objects shown on the display of the device in a hierarchical way, of said framework being collected from said framework by said generator component (Cinv); and - event information (EVENT), comprising logged information regarding failed installation of a graphical user interface component, being received by said generator component (Cinv) from anyone of said installer (INST) and said framework, upon subscription to events of, respectively, said installer or said framework; and
Anchoring claw for heat exchanger tubes (46, 58), comprising • a hollow-cylindrical clamping sleeve (10, 32, 52, 102) made of a resilient material, • wherein the clamping sleeve (10, 32, 52, 102) has at least one axially slotted (20, 92) support region (14, 34, 38) along its axial extent (12, 88, 126), • wherein, in the interior of the clamping sleeve (10, 32, 52, 102), pressure means for expanding the diameter of the support region (14, 34, 38) are provided in order thereby to exert a pressure from the radial outer surface of the support region (14, 34, 38) of the clamping sleeve (10, 32, 52, 102) onto the inner wall of a surrounding heat exchanger tube (46, 58) having an inside diameter which is matched to the outside diameter of the clamping sleeve (10, 32, 52, 102), characterized in that the radial outer surface of the support region (14, 34, 38) has raised regions (22, 54, 86, 104), wherein the total portion of the raised regions on the radial entire outer surface of the support region (14, 34, 38) lies within the range of 2% to 25%. • a hollow-cylindrical clamping sleeve (10, 32, 52, 102) made of a resilient material, • wherein the clamping sleeve (10, 32, 52, 102) has at least one axially slotted (20, 92) support region (14, 34, 38) along its axial extent (12, 88, 126), • wherein, in the interior of the clamping sleeve (10, 32, 52, 102), pressure means for expanding the diameter of the support region (14, 34, 38) are provided in order thereby to exert a pressure from the radial outer surface of the support region (14, 34, 38) of the clamping sleeve (10, 32, 52, 102) onto the inner wall of a surrounding heat exchanger tube (46, 58) having an inside diameter which is matched to the outside diameter of the clamping sleeve (10, 32, 52, 102),
A wireless device in a wireless communication network for communicating with at least one network node, the wireless device comprising: processing circuitry configured to obtain information regarding the inclusion of at least one short transmission time interval, sTTI, in one of a time division duplex, TDD, uplink, UL, subframe and TDD downlink, DL, subframe of a radio frame, wherein the processing circuitry is further configured to allocate a guard period, GP, of the TDD subframe for switching from downlink signaling to uplink signaling; and a transceiver configured to communicate with the at least one network node using the at least one sTTI during the TDD subframe; wherein the TDD subframe is a TDD uplink subframe and receiving of downlink sTTIs in the TDD uplink subframe is only performed when no wireless devices not supporting sTTI transmission are scheduled to transmit on the uplink in the TDD uplink subframe, the downlink sTTIs reuse a legacy cell-specific reference signal, CRS, pattern; characterized in that the GP is removed by switching from downlink transmission to uplink transmission during a cyclic prefix of one symbol. processing circuitry configured to obtain information regarding the inclusion of at least one short transmission time interval, sTTI, in one of a time division duplex, TDD, uplink, UL, subframe and TDD downlink, DL, subframe of a radio frame, wherein the processing circuitry is further configured to allocate a guard period, GP, of the TDD subframe for switching from downlink signaling to uplink signaling; and a transceiver configured to communicate with the at least one network node using the at least one sTTI during the TDD subframe; wherein the TDD subframe is a TDD uplink subframe and receiving of downlink sTTIs in the TDD uplink subframe is only performed when no wireless devices not supporting sTTI transmission are scheduled to transmit on the uplink in the TDD uplink subframe, the downlink sTTIs reuse a legacy cell-specific reference signal, CRS, pattern; characterized in that the GP is removed by switching from downlink transmission to uplink transmission during a cyclic prefix of one symbol.
Arrangement for supporting containers to be transported on the deck of a cargo ship, which arrangement comprises hatch covers to be placed on top of the cargo compartments of the cargo ship, on top of which hatch covers containers are transported, and which arrangement also comprises lashing bridges that are transverse to the cargo ship, which are fixed to the transverse members between the cargo compartments, and on which lashing bridges the containers are supported with lashing bars, and which hatch covers are disposed between the lashing bridges in such a way that they can be lifted off and lowered back into their positions, characterized in that the ratio of the greatest width of the support structures of a lashing bridge disposed on a transverse member to the width of the transverse member is at least 0.8 at one or more points of the lashing bridge, and that at the point of the support structures of the lashing bridge the necessary recesses are made in the hatch cover that is compatible with the lashing bridge.
A medical device, comprising: a urological device; and a retrieval string attached to the urological device, the retrieval string comprising a body having a proximal end connected the urological device and an opposed distal end, wherein the retrieval string comprises a ferromagnetic material at least along a length of the body to permit magnetically manipulating the retrieval string through the urethra to enable extraction of the medical device. a urological device; and a retrieval string attached to the urological device, the retrieval string comprising a body having a proximal end connected the urological device and an opposed distal end, wherein the retrieval string comprises a ferromagnetic material at least along a length of the body to permit magnetically manipulating the retrieval string through the urethra to enable extraction of the medical device.
A camera mirror system for a vehicle comprising: a camera arm having a metallic mounting bracket supporting a camera housing, the camera housing including a pivotal portion pivotably mounted to a fixed portion; a camera arranged in the pivotal portion of the camera housing, the camera including a field of view; a night vision assembly including an infrared light-emitting diode (IR LED) configured to illuminate the field of view, the night vision assembly secured to the metallic bracket, wherein the night vision assembly includes a metallic housing supporting a metallic carrier, the IR LED mounted to the metallic carrier, and a front window arranged over the IR LED and sealed relative to the metallic housing, the front window exposed through an aperture in the camera housing. a camera arm having a metallic mounting bracket supporting a camera housing, the camera housing including a pivotal portion pivotably mounted to a fixed portion; a camera arranged in the pivotal portion of the camera housing, the camera including a field of view; a night vision assembly including an infrared light-emitting diode (IR LED) configured to illuminate the field of view, the night vision assembly secured to the metallic bracket, wherein the night vision assembly includes a metallic housing supporting a metallic carrier, the IR LED mounted to the metallic carrier, and a front window arranged over the IR LED and sealed relative to the metallic housing, the front window exposed through an aperture in the camera housing.
An angular contact ball bearing comprising: an inner ring, an outer ring, a plurality of balls interposed between the inner ring and the outer ring, and a retainer (4; 4A) having a cylindrical shape and including pockets (Pt) configured to hold the balls at plurality of positions in a circumferential direction of the retainer (4; 4A), characterized in that the retainer has an area ratio in a range of 0.35 or larger and 0.5 or smaller, the area ratio being a proportion of an area of an inner peripheral surface of the retainer (4; 4A) exclusive of the pockets (Pt) to a total ball surface area obtained by multiplying a surface area of a ball by the number of the balls,wherein the bearing has a ball diameter ratio in a range of 0.48 or larger and 0.56 or smaller, the ball diameter ratio being a proportion of a diameter dimension of a ball to a bearing width dimension, and wherein, in use, the dn value calculated by multiplying the inner diameter of the inner ring by a rotational speed exceeds 700.000. characterized in that the retainer has an area ratio in a range of 0.35 or larger and 0.5 or smaller, the area ratio being a proportion of an area of an inner peripheral surface of the retainer (4; 4A) exclusive of the pockets (Pt) to a total ball surface area obtained by multiplying a surface area of a ball by the number of the balls,wherein the bearing has a ball diameter ratio in a range of 0.48 or larger and 0.56 or smaller, the ball diameter ratio being a proportion of a diameter dimension of a ball to a bearing width dimension, and wherein, in use, the dn value calculated by multiplying the inner diameter of the inner ring by a rotational speed exceeds 700.000.
Controllable Bragg reflector for reflecting incident light, comprising: - at least one layer of a superlattice, wherein the superlattice comprises at least one layer of a first group 3 nitride and at least a second layer of a second group 3 nitride, wherein two-dimensional electron or hole gases develop at at least one interface within the superlattice, - at least one layer of semiconductor material and - at least two electrodes (130, 140), wherein at least one electrode is transparent to the incident light and the incident light is incident at least partially through the at least one electrode, and wherein the at least one layer of a superlattice is arranged between said electrodes (130, 140) and a voltage can be applied between said electrodes (130, 140). - at least one layer of a superlattice, wherein the superlattice comprises at least one layer of a first group 3 nitride and at least a second layer of a second group 3 nitride, wherein two-dimensional electron or hole gases develop at at least one interface within the superlattice, - at least one layer of semiconductor material and - at least two electrodes (130, 140), wherein at least one electrode is transparent to the incident light and the incident light is incident at least partially through the at least one electrode, and wherein the at least one layer of a superlattice is arranged between said electrodes (130, 140) and a voltage can be applied between said electrodes (130, 140).