mhurhangee/ep-ind-claims huggingface dataset:
A magnetron deposition system for depositing material, the magnetron deposition system comprising - at least two magnetron units (102, 104), each magnetron unit (102, 104) comprising a magnet configuration, the at least two magnetron units (102, 104) being arranged so that the magnetron units (102, 104) at least partly share a common plasma in a plasma region between the at least two magnetron units, - at least one gas inlet for supplying a first gas, wherein the at least one gas inlet for supplying the first gas and the at least two magnetron units (102, 104) are arranged for directly injecting the first gas in the plasma region between the two magnetron units, the magnetron deposition system furthermore comprising blocking elements for blocking the first gas from leaking away via a region outside the plasma region and for forcing the first gas into the plasma region, characterised in that the blocking elements are structural elements, wherein part of the structural elements have a shape complementary to a backside of the magnetron unit (102, 104), so that the structural elements and the magnetron unit (102, 104) can be arranged adjacent each other. - at least two magnetron units (102, 104), each magnetron unit (102, 104) comprising a magnet configuration, the at least two magnetron units (102, 104) being arranged so that the magnetron units (102, 104) at least partly share a common plasma in a plasma region between the at least two magnetron units, - at least one gas inlet for supplying a first gas,
A data processing apparatus, comprising: a production portion configured to produce signaling containing a Null cell number exhibiting the number of Null cells of cells of a sub-frame included in a physical layer frame, wherein the physical layer frame is a physical layer frame prescribed in Advanced Television Systems Committee (ATSC) 3.0; and a processing portion configured to process the signaling so as for the signaling to be included in a preamble of the physical layer frame. a production portion configured to produce signaling containing a Null cell number exhibiting the number of Null cells of cells of a sub-frame included in a physical layer frame, wherein the physical layer frame is a physical layer frame prescribed in Advanced Television Systems Committee (ATSC) 3.0; and a processing portion configured to process the signaling so as for the signaling to be included in a preamble of the physical layer frame.
A host cell comprising: (a) a disruption in the expression of the endogenous dolichyl-P-Man:Man 5 GlcNAc 2 -PP-dolichyl alpha-1,3 mannosyltransferase gene; and (b) a disruption in the expression of the endogenous osteosarcoma 9 (OS-9) family gene; (c) at least one nucleic acid molecule encoding a heterologous single-subunit oligosaccharyltransferase selected from Leishmania sp. STT3A protein, STT3B protein, STT3C protein, STT3D protein or combinations thereof; and (d) a nucleic acid molecule encoding a heterologous glycoprotein, wherein the host cell is a yeast or filamentous fungus. (a) a disruption in the expression of the endogenous dolichyl-P-Man:Man 5 GlcNAc 2 -PP-dolichyl alpha-1,3 mannosyltransferase gene; and (b) a disruption in the expression of the endogenous osteosarcoma 9 (OS-9) family gene; (c) at least one nucleic acid molecule encoding a heterologous single-subunit oligosaccharyltransferase selected from Leishmania sp. STT3A protein, STT3B protein, STT3C protein, STT3D protein or combinations thereof; and (d) a nucleic acid molecule encoding a heterologous glycoprotein, wherein the host cell is a yeast or filamentous fungus.
Method to securely attach a mobile device having a credential container to a server while using a protocol having data size encoding constraints which prevents from using traditional ciphering, such constraints comprising at least: - a constraint related to the number of data payload in each exchange specifically in the mobile device to server direction, - a constraint related to the dissymmetry of the size of data payload in the server to mobile device direction and in the mobile device to server direction and, - a constraint related to the impossibility to cipher some data in the data payload, said method comprising an initialization phase using a same range of ephemeral IMSIs (RG1 (IMSI)) stored in a batch of credential containers of mobile devices and an associated group master key shared by the server and the batch of credential containers of mobile devices having the same range of ephemeral IMSIs (RG1(IMSI)) to initiate the secured session further using a server random value (Rnd), said initialization phase using limited payload in a first mobile device to server message (ATTR(rIMSI)_1) to send a randomly chosen rIMSI among the range of IMSIs (RG1(IMSI)) to enable the server to generate keys to initiate a secured communication phase then using individual keys (SK12c, SK12i) stored in the credential container of the mobile device and retrieved by the server with an identifier of the credential container (CCId) also sent using limited payload in a mobile device to server message (AUTF(rIMSI, AUTS)_3) and with an individualization master key owned by the server. - a constraint related to the number of data payload in each exchange specifically in the mobile device to server direction, - a constraint related to the dissymmetry of the size of data payload in the server to mobile device direction and in the mobile device to server direction and, - a constraint related to the impossibility to cipher some data in the data payload,
A communications apparatus, wherein the communications apparatus comprises: an acquiring unit, configured to acquire four channels of signals, wherein the four channels of signals are in a one-to-one correspondence with four logical ports of the communications apparatus; a processing unit, configured to generate one baseband digital signal based on at least two channels of signals in the four channels of signals; and a transmitting unit, configured to transmit the one baseband digital signal to a remote radio unit, RRU, having n channels, wherein the n channels being in one-to-one correspondence with n physical antennas and n is equal to 1; wherein the at least two channels of signals are m channels of signals, and to generate the one baseband digital signal based on the at least two channels of signals in the four channels of signals, the processing unit is configured to generate the one baseband digital signal by adding up the m channels of signals, where the m is 2, or 3, or 4. an acquiring unit, configured to acquire four channels of signals, wherein the four channels of signals are in a one-to-one correspondence with four logical ports of the communications apparatus; a processing unit, configured to generate one baseband digital signal based on at least two channels of signals in the four channels of signals; and a transmitting unit, configured to transmit the one baseband digital signal to a remote radio unit, RRU, having n channels, wherein the n channels being in one-to-one correspondence with n physical antennas and n is equal to 1; wherein the at least two channels of signals are m channels of signals, and to generate the one baseband digital signal based on the at least two channels of signals in the four channels of signals, the processing unit is configured to generate the one baseband digital signal by adding up the m channels of signals, where the m is 2, or 3, or 4.
An apparatus of a spectrum sharing controller, the apparatus comprising hardware processing circuitry and interface circuitry, the hardware processing circuitry to configure the interface circuitry to: receive an indicator that a group of channels are available for secondary usage in a shared spectrum usage area, the channels included in shared spectrum reserved for primary usage in the shared spectrum usage area by one or more incumbent devices; send a first configuration message that allocates a secondary usage channel in the group for secondary usage in accordance with Priority Access License, PAL, usage, by an Evolved Node-B, eNB, in an interior portion of the shared spectrum usage area that is surrounded by an exterior portion of the shared spectrum usage area or allocates the secondary usage channel in the exterior portion of the shared spectrum usage area that surrounds the interior portion of the shared spectrum usage area; and send a second configuration message that allocates one or more ternary usage channels in the group for General Authorized Access, GAA, usage by other eNBs in one of the interior portion or the exterior portion in which the secondary usage channel is not allocated. receive an indicator that a group of channels are available for secondary usage in a shared spectrum usage area, the channels included in shared spectrum reserved for primary usage in the shared spectrum usage area by one or more incumbent devices; send a first configuration message that allocates a secondary usage channel in the group for secondary usage in accordance with Priority Access License, PAL, usage, by an Evolved Node-B, eNB, in an interior portion of the shared spectrum usage area that is surrounded by an exterior portion of the shared spectrum usage area or allocates the secondary usage channel in the exterior portion of the shared spectrum usage area that surrounds the interior portion of the shared spectrum usage area; and send a second configuration message that allocates one or more ternary usage channels in the group for General Authorized Access, GAA, usage by other eNBs in one of the interior portion or the exterior portion in which the secondary usage channel is not allocated.
A caliper body for a disc brake for a vehicle, which is a caliper body for the two system-type disc brake for the vehicle and in which three or more cylinder holes (9, 10, 11) are arranged in a disc circumference direction in an action portion disposed at a side portion of a disc rotor, wherein at least two of the cylinder holes (9, 11) are formed as cylinder holes for a first brake system and the other cylinder hole(s) is (are) formed as (a) cylinder hole(s) for a second brake system, wherein at least one cylinder hole for the second brake system is disposed between the two cylinder holes (9, 11) for the first brake system, wherein the plurality of cylinder holes (9, 11) for the first brake system are connected by a communication path, wherein pistons (13, 16) inserted into the cylinder holes (9, 11) for the first brake system are actuated by hydraulic fluid supplied through a first fluid passage, wherein the piston(s) inserted into the cylinder hole(s) for the second brake system is (are) actuated by hydraulic fluid supplied through a second fluid passage, wherein a first union hole and a first bleeder hole are open in the first fluid passage, and a second union hole and a second bleeder hole are open in the second fluid passage, wherein the communication path and the first bleeder hole are formed rectilinearly on an outside, in a disc radius direction, of an imaginary line which rectilinearly connects inner edges, in the disc radius direction, of the plurality of cylinder holes (9, 11) for the first brake system and wherein the cylinder hole(s) for the second brake system is (are) provided on an outside, in the disc radius direction, of the communication path.
A wearable device for monitoring body posture, said wearable device comprising a housing exhibiting a back surface and a front surface, a fastening means adapted to secure the housing to a user's body, a first sensor device and a second sensor device each being mounted at the wearable device and adapted to measure changes in a user's body posture when the wearable device is worn by a user, a processing unit adapted to collect and process sensor signals delivered from said sensor devices (103, 104) and to generate and transmit output signals, and at least one feedback device adapted to receive said output signals from the processing unit and to provide posture feedback to a user wearing the wearable device, wherein the processing unit is configured to decide when to transmit a control signal to the feedback device causing it to provide posture feedback to a user, based upon said signals delivered by the sensors, and wherein the at least one feedback device is configured to provide posture feedback when receiving the control signal from the processing unit, characterized in that the fastening means is adapted to secure the housing adjacent to a user's sternum with the back surface facing a user's body when the wearable device is worn, that the first sensor device is mounted at the housing and configured to deliver a signal corresponding to an actual distance between the front surface of the housing and a user's chin when the wearable device is worn, that the second sensor device is mounted at the housing and configured to deliver a signal corresponding to an actual inclination (α) of a user's sternum when the wearable device is worn, and that the processing unit is configured to, when the wearable device is worn by a user, determine both inclination and translation of a user's head by calculating both head tilt and displacement based on the signals from the second sensor device corresponding to the inclination (a) of the sternum, and the signals from the first sensor device corresponding to the distance between the front surface of the housing and the chin.
A device configured to operate in an industrial automation environment, the device comprising: a main electronic board including: a processing unit; a memory; an industrial communication interface to communicate with an external device via an industrial communication protocol; a peripheral board configured to perform a sensing or a control function in the industrial automation environment; and a general-purpose bus communicatively coupled to the main electronic board and configured to communicate with the peripheral board during operation of the device; wherein the main electronic board is configured to: when the general-purpose bus is coupled to an external memory device, receive configuration data related to the sensing or control function of the device via the general-purpose bus and store the received configuration data in the memory, and characterized in that the device is configured to: when the general-purpose bus is disconnected from the external memory device and coupled to the peripheral board, operate to perform the sensing or control function in accordance with the received configuration data. a main electronic board including: a processing unit; a memory; an industrial communication interface to communicate with an external device via an industrial communication protocol; a peripheral board configured to perform a sensing or a control function in the industrial automation environment; and a general-purpose bus communicatively coupled to the main electronic board and configured to communicate with the peripheral board during operation of the device; wherein the main electronic board is configured to: when the general-purpose bus is coupled to an external memory device, receive configuration data related to the sensing or control function of the device via the general-purpose bus and store the received configuration data in the memory, and characterized in that the device is configured to: when the general-purpose bus is disconnected from the external memory device and coupled to the peripheral board, operate to perform the sensing or control function in accordance with the received configuration data. a processing unit; a memory; an industrial communication interface to communicate with an external device via an industrial communication protocol; a peripheral board configured to perform a sensing or a control function in the industrial automation environment; and a general-purpose bus communicatively coupled to the main electronic board and configured to communicate with the peripheral board during operation of the device; wherein the main electronic board is configured to: when the general-purpose bus is coupled to an external memory device, receive configuration data related to the sensing or control function of the device via the general-purpose bus and store the received configuration data in the memory, and characterized in that the device is configured to: when the general-purpose bus is disconnected from the external memory device and coupled to the peripheral board, operate to perform the sensing or control function in accordance with the received configuration data.
An operating mode based control system for controlling an earthmoving machine, characterized in that the operating mode based control system comprises at least one controller for controlling at least one movement of an earthmoving tool attached to the earthmoving machine, at least one control unit, and at least one displaying means for displaying operating modes selectable by the at least one controller, and wherein the at least one control unit is configured to receive at least one selection from the at least one controller for selecting the operating mode, monitor the at least one movement of the earthmoving machine, and based at least in part on the monitoring carry out the at least one movement of the earthmoving tool, or interrupt by the at least one control unit the at least one movement of the earthmoving tool, and that the at least one controller is operable both attached and detached. the operating mode based control system comprises at least one controller for controlling at least one movement of an earthmoving tool attached to the earthmoving machine, at least one control unit, and at least one displaying means for displaying operating modes selectable by the at least one controller, and wherein the at least one control unit is configured to receive at least one selection from the at least one controller for selecting the operating mode, monitor the at least one movement of the earthmoving machine, and based at least in part on the monitoring carry out the at least one movement of the earthmoving tool, or interrupt by the at least one control unit the at least one movement of the earthmoving tool, and that the at least one controller is operable both attached and detached.
An adsorption medium, especially a chromatography medium, comprising a chromatography matrix; polymeric spacer elements which have been bonded to the surface of the chromatography matrix; and polymer chains containing chromatographically active centers, wherein the polymer chains have been bonded to the polymeric spacer elements and wherein the polymer chains are polyacrylates or polymethacrylates.
A high-bay warehouse with storage-and-retrieval units provided therein for storing and retrieving or transferring articles, the articles consisting of strips, in particular metal strips, wound into coils, or wire coils, and the high-bay warehouse consisting of any desired number of storage modules, which are lined up in a row in the longitudinal direction, and in the depth and width directions running transversely to the longitudinal direction, of the high-bay warehouse, have multiple compartments located one above the other over the height and are separated from one another by aisles (2a, 2b) extending parallel to the storage and retrieval sides of the compartments or storage modules (3; 4), each aisle (2a, 2b) having at least one storage-and-retrieval unit which can be moved back and forth, the storage-and-retrieval units being designed with a frame which consists of vertical uprights (8a, 8b) and head bars and foot bars (9; 10) connecting the vertical uprights to one another and corresponds at least to the height of the multi-storey storage modules, on the vertical uprights of which frame is guided a lifting bridge which is moved via drive means and is designed with at least one telescopic holder (13; 13a, 13b), which can be retracted and extended in bursts orthogonally to the aisle (2a, 2b) for use of the compartments of the adjacent storage modules from the left and right sides, the storage-and-retrieval unit, on its at least one telescopic holder (13; 13a, 13b), being designed with a C-shaped carrying means which, beneath the telescopic holder (13; 13a, 13b), has a horizontal pin which can be moved into the middle opening of the respective article; characterised in that the storage-and-retrieval unit is designed with a frame-like through-opening in the foot bar for handling articles below the travel level of the storage-and-retrieval unit.
A support stand for screening terminals, comprising a main body, wherein the main body comprises a receiving device for a bus bar and a fixing device for fixing the bus bar in the receiving device, the main body can be latched onto a mounting rail in such a way that, when the bus bar is fixed by a means of the fixing device in the receiving device, the longitudinal extension of the mounting rail is parallel to the longitudinal extension to the bus bar, the receiving device is designed in such a way that the bus bar can be received in the receiving device in any angular position rotated about its longitudinal axis, and in such a way that, when the bus bar is received in the receiving device, the bus bar bears at least in part against the receiving device in the angular position, and the fixing device is designed in such a way that the bus bar can be fixed in the angular position.
A method for processing status mismatch between a User Equipment, UE, and a network, performed by an Access and Mobility Management Function, AMF, wherein the method comprises: receiving an initial non-access stratum, NAS, message sent by the UE in a Connection Management idle state entered by UE NAS layer after the UE enters the RRC idle state from the RRC inactive state, or an N2 interface message sent by a new Radio Access Network, RAN, node that is currently serving the UE; determining that the UE is in a Connection Management connected state; and then determining that the RAN node serving the UE has changed, and notifying an old RAN node to release the UE context and existing user plane connection for the UE; wherein the N2 interface message is configured to forward the NAS message sent by the UE or initiate N2 release procedure; wherein when the UE moves out of the old RAN Paging area and enters the coverage area of the new RAN node that does not support an RRC inactive state, the UE switches from a current Connection Management connected state to the Connection Management idle state; and wherein the AMF determines that the UE is in the Connection Management connected state when the N2 connection between the old RAN node and the AMF has not been released. receiving an initial non-access stratum, NAS, message sent by the UE in a Connection Management idle state entered by UE NAS layer after the UE enters the RRC idle state from the RRC inactive state, or an N2 interface message sent by a new Radio Access Network, RAN, node that is currently serving the UE; determining that the UE is in a Connection Management connected state; and then determining that the RAN node serving the UE has changed, and notifying an old RAN node to release the UE context and existing user plane connection for the UE; wherein the N2 interface message is configured to forward the NAS message sent by the UE or initiate N2 release procedure; wherein when the UE moves out of the old RAN Paging area and enters the coverage area of the new RAN node that does not support an RRC inactive state, the UE switches from a current Connection Management connected state to the Connection Management idle state; and wherein the AMF determines that the UE is in the Connection Management connected state when the N2 connection between the old RAN node and the AMF has not been released.