mhurhangee/ep-ind-claims huggingface dataset:
A method by a terminal in a Time Division Duplexing, TDD, wireless communication system, the method comprising: receiving a first message including a first uplink/downlink, UL/DL, configuration for a primary cell, PCell, from a base station; receiving a second message including a second UL/DL configuration for a secondary cell, SCell, from the base station, wherein the second UL/DL configuration is different from the first UL/DL configuration; receiving a physical downlink shared channel, PDSCH, on a first subframe of the SCell from the base station; and transmitting a hybrid automatic repeat request-acknowledge, HARQ-ACK, corresponding to the PDSCH on a second subframe to the base station, characterized in that the second subframe is determined based on a UL/DL configuration 4, if the scheduling type for the terminal is a self scheduling and the first UL/DL configuration for the PCell is a UL/DL configuration 3 and the second UL/DL configuration for the SCell is a UL/DL configuration 1. receiving a first message including a first uplink/downlink, UL/DL, configuration for a primary cell, PCell, from a base station; receiving a second message including a second UL/DL configuration for a secondary cell, SCell, from the base station, wherein the second UL/DL configuration is different from the first UL/DL configuration; receiving a physical downlink shared channel, PDSCH, on a first subframe of the SCell from the base station; and transmitting a hybrid automatic repeat request-acknowledge, HARQ-ACK, corresponding to the PDSCH on a second subframe to the base station, characterized in that the second subframe is determined based on a UL/DL configuration 4, if the scheduling type for the terminal is a self scheduling and the first UL/DL configuration for the PCell is a UL/DL configuration 3 and the second UL/DL configuration for the SCell is a UL/DL configuration 1.
An electronic countermeasure transceiver comprising: a receiver for sequentially receiving a plurality of signals in respective frequency sub-bands; a processor including: a receive processor for packetizing the received signals and sequentially outputting the packetized signals as signal packets; a threat processor for sequentially receiving the signal packets, identifying signal packets as threats and sequentially outputting threat identification packets; an ECM processor for sequentially receiving the threat identification packets, generating ECM packets based on the threat identification packets and sequentially outputting the ECM packets; and a transmit processor for converting the sequential ECM packets into parallel ECM signals and frequency multiplexing the parallel ECM signals via up-conversion and filtering; and a transmitter for transmitting the frequency multiplexed ECM signals to address the threats. a receiver for sequentially receiving a plurality of signals in respective frequency sub-bands; a processor including: a receive processor for packetizing the received signals and sequentially outputting the packetized signals as signal packets; a threat processor for sequentially receiving the signal packets, identifying signal packets as threats and sequentially outputting threat identification packets; an ECM processor for sequentially receiving the threat identification packets, generating ECM packets based on the threat identification packets and sequentially outputting the ECM packets; and a transmit processor for converting the sequential ECM packets into parallel ECM signals and frequency multiplexing the parallel ECM signals via up-conversion and filtering; and a receive processor for packetizing the received signals and sequentially outputting the packetized signals as signal packets; a threat processor for sequentially receiving the signal packets, identifying signal packets as threats and sequentially outputting threat identification packets; an ECM processor for sequentially receiving the threat identification packets, generating ECM packets based on the threat identification packets and sequentially outputting the ECM packets; and a transmit processor for converting the sequential ECM packets into parallel ECM signals and frequency multiplexing the parallel ECM signals via up-conversion and filtering; and a transmitter for transmitting the frequency multiplexed ECM signals to address the threats.
Measuring device for determining rheological properties of a viscous, polymeric mass, wherein the measuring device comprises a rotational rheometer with a container for containing the viscous, polymeric mass and a rotation element that is positionable inside the container, wherein the measuring device is arranged for providing a relative rotation between the rotation element and the container about a rotation axis that defines an axial direction parallel to the rotation axis and a radial direction perpendicular to the rotation axis, wherein the measuring device comprises one or more normal force sensors (51,52,53) for detecting at least a component of a normal force that is exerted in the axial direction onto the container or the rotation element and a radial force sensor, preferably a pressure sensor, for detecting a radial force exerted onto the container in the radial direction, wherein the rotation element has an outer diameter, wherein the measuring device further comprises a control unit that is electronically connected to the one or more normal force sensors, wherein the control unit is arranged for calculating the normal force exerted onto the container or the rotation element in the axial direction at the outer diameter of the rotation element based on detection signals from the one or more normal force sensors, characterised in that one of the calculations involves subtracting the radial force based on detection signals from the radial force sensor indicative of said radial force from the normal force exerted onto the container or the rotation element in the axial direction at the outer diameter.
A non-transitory machine-readable storage medium encoded with instructions executable by a hardware processor of a computing component, the machine-readable storage medium comprising instructions to cause the hardware processor to: receive, at an access point, AP, in a wireless local area network, WLAN, a maximum transmit power capability of a client device communicating with the AP for a channel of operation; aggregate, at the AP or a controller of the AP, a maximum transmit power capability for the client device received from a plurality of APs communicating with the client device over a period of time; compute, at the AP or the controller of the AP, the client device's effective maximum transmit power as a function of the maximum transmit power capability of the client device across a plurality of the channels over which the client device operates; receive, at the AP, an uplink power headroom for the client device communicating with the AP; and calculate at the AP or the controller of the AP, an uplink pathloss between the client device and the AP using the effective maximum transmit power, the uplink power headroom, an antenna gain of the AP, and a received signal strength indicator, RSSI, measured at the AP for the client device. receive, at an access point, AP, in a wireless local area network, WLAN, a maximum transmit power capability of a client device communicating with the AP for a channel of operation; aggregate, at the AP or a controller of the AP, a maximum transmit power capability for the client device received from a plurality of APs communicating with the client device over a period of time; compute, at the AP or the controller of the AP, the client device's effective maximum transmit power as a function of the maximum transmit power capability of the client device across a plurality of the channels over which the client device operates; receive, at the AP, an uplink power headroom for the client device communicating with the AP; and calculate at the AP or the controller of the AP, an uplink pathloss between the client device and the AP using the effective maximum transmit power, the uplink power headroom, an antenna gain of the AP, and a received signal strength indicator, RSSI, measured at the AP for the client device.
Rolling stand for production of rolled strip, with work rolls (3, 4), which are supported if necessary on support rolls (18, 19) or support rolls and intermediate rolls (21, 22), wherein the work rolls (3, 4) and/or support rolls (18, 19) and/or intermediate rolls (21, 22) in the rolling stand are disposed able to be axially displaced in relation to one another and each roll of at least one of these pairs of rolls has a curved contour running over the entire effective barrel length and these two barrel contours, exclusively in a specific relative axial position of the rolls of the pair of rolls, complement each other in an unloaded state, characterised in that the course of the barrel contour of the rolls of a pair of rolls is formed by a trigonometrical function and also the roll gap contour is formed as a function of the course of the barrel contour and the position of the rolls within the axial displacement area by a trigonometrical function, wherein the trigonometrical function of the barrel contour is formed by a sine function in accordance with the general equation R x = R 0 + A * sin 2 * φ * x + c L REF with R radius of the roll x axial position in relation to the centre of the roll (= distance from the centre of the roll) R 0 roll radius offset (= radius of the roll at the contour turning point) A contour coefficient φ contour angle c contour displacement L REF camber reference length and the roll gap contour is formed by a cosine function deriving therefrom in accordance with the general equation G x s = G 0 + 2 * A * cos 2 * φ * x L REF * sin 2 * φ * s - c L REF with s displacement of one of the rolls from the central location G 0 roll gap offset. R radius of the roll x axial position in relation to the centre of the roll (= distance from the centre of the roll) R 0 roll radius offset (= radius of the roll at the contour turning point) A contour coefficient φ contour angle c contour displacement L REF camber reference length s displacement of one of the rolls from the central location G 0 roll gap offset.
A waveguide array antenna (120, 200, 300, 400) for satellite communications, the antenna (120, 200, 300, 400) being configured to transmit and/or receive a first polarization signal and a second polarization signal, said second polarization being orthogonal to said first polarization, and comprising an array of unit cells (250, 350, 600), each unit cell (250, 350, 600) comprising a radiating element (253, 353, 402, 602), said antenna (120, 200, 300, 400) further comprising: - a grid (255, 355, 401, 900) configured to divide each radiating element (253, 353, 402, 602) into a number of radiating sub-elements having an inter-element distance that is lower than or equal to the wavelength at a highest frequency of operation of said antenna; and - an electromagnetic band gap layer (254, 354, 920) configured to support said grid above said radiating elements (253, 353, 402, 602), wherein said grid (255, 355, 401, 900) comprises a number of grid unit portions including walls, and said electromagnetic band gap layer consists of a number of pins protruding from the walls of each grid unit portion. - a grid (255, 355, 401, 900) configured to divide each radiating element (253, 353, 402, 602) into a number of radiating sub-elements having an inter-element distance that is lower than or equal to the wavelength at a highest frequency of operation of said antenna; and - an electromagnetic band gap layer (254, 354, 920) configured to support said grid above said radiating elements (253, 353, 402, 602),
A machine tool, in particular reaming tool for the fine machining of bores, comprising a tool holder which rotates relative to a workpiece to be machined and having a tool axis, and a plurality of cutting inserts that are removably attached to the tool holder, the active cutting edges of said cutting inserts having a common cutting circle which is coaxial to the tool axis, wherein the tool holder has an insert seat shell for radially positioning the cutting inserts, said insert seat shell extending circumferentially around the tool axis, wherein the cutting inserts have at least one contact surface that can be brought into contact with the insert seat shell, characterized in that the cutting inserts are provided on their contact surfaces with respective two linear contact sites for abutting on the cylinder-type insert seat shell, which are separated from each other by an angular distance with respect to the tool axis.
A method for detecting a logic level of a rotor of a motor, characterized by, comprising: obtaining an analog voltage, through a method of analog sampling, output by a position sensor for a winding of the motor, wherein the analog voltage is a continuous voltage; setting a first commutation voltage and a second commutation voltage; generating a logic level according to the analog voltage, the first commutation voltage and the second commutation voltage; and performing angle correction on the logic level according to a first angle corresponding to the first commutation voltage and a second angle corresponding to the second commutation voltage, wherein the first commutation voltage is a commutation voltage for triggering a rising edge, and the second commutation voltage is a commutation voltage for triggering a falling edge. obtaining an analog voltage, through a method of analog sampling, output by a position sensor for a winding of the motor, wherein the analog voltage is a continuous voltage; setting a first commutation voltage and a second commutation voltage; generating a logic level according to the analog voltage, the first commutation voltage and the second commutation voltage; and performing angle correction on the logic level according to a first angle corresponding to the first commutation voltage and a second angle corresponding to the second commutation voltage, wherein the first commutation voltage is a commutation voltage for triggering a rising edge, and the second commutation voltage is a commutation voltage for triggering a falling edge.
A spinal band clamp comprising a housing; a screw that extends through a top surface of the housing and into a cavity defined by the housing; a band opening located within the housing and configured and dimensioned to receive a band; an inserter opening located within the housing and configured and dimensioned to receive an inserter; and an anvil located within the cavity of the housing, and a ledge located on a bottom surface of the cavity. a housing; a screw that extends through a top surface of the housing and into a cavity defined by the housing; a band opening located within the housing and configured and dimensioned to receive a band; an inserter opening located within the housing and configured and dimensioned to receive an inserter; and an anvil located within the cavity of the housing, and a ledge located on a bottom surface of the cavity.
An antibody having an antigen-binding domain and an FcRn-binding region, wherein said antibody has a KD(pH5.8)/KD(pH7.4) value, defined as the ratio of KD for the antigen at pH5.8 and KD for the antigen at pH7.4, of 40 or higher; wherein at least one amino acid of a CDR of said antibody has been substituted with histidine; and wherein the KD(pH5.8)/KD(pH7.4) value is higher than the KD(pH5.8)/KD(pH7.4) value of the antibody before said histidine substitution.
A ventilation apparatus for a sliding window, comprising: a main body adapted to be installed on at least one end of a window including a window frame and a glass pane, the main body having a plurality of ventilation holes formed in each of an indoor side surface and an outdoor side surface, finishing caps fitted into both side ends of the main body; an indoor cover detachably coupled to the indoor side surface of the main body; an outdoor cover detachably coupled to the outdoor side surface of the main body; a glass pane-fixing rim detachably coupled to the lower sill of the indoor side surface of the main body so as to fix the glass pane; characterized in that: the main body has an upper sill and a lower sill formed at an upper portion and a lower portion of each of the indoor and outdoor side surfaces (101, 102), respectively; wherein the indoor cover and the outdoor cover are formed with a plurality of slits; and wherein outdoor air is introduceable into an indoor through the slits of the indoor cover and the ventilation holes of the main body. a main body adapted to be installed on at least one end of a window including a window frame and a glass pane, the main body having a plurality of ventilation holes formed in each of an indoor side surface and an outdoor side surface, finishing caps fitted into both side ends of the main body; an indoor cover detachably coupled to the indoor side surface of the main body; an outdoor cover detachably coupled to the outdoor side surface of the main body; a glass pane-fixing rim detachably coupled to the lower sill of the indoor side surface of the main body so as to fix the glass pane; characterized in that: the main body has an upper sill and a lower sill formed at an upper portion and a lower portion of each of the indoor and outdoor side surfaces (101, 102), respectively; wherein the indoor cover and the outdoor cover are formed with a plurality of slits; and wherein outdoor air is introduceable into an indoor through the slits of the indoor cover and the ventilation holes of the main body.
An amine-based white rust corrosion-inhibiting compound of the formula: 2 N-R1 x -N 2; wherein R is [-CH 2 CH CH 2]; R1 includes -[CH 2 CH 2 -N -CH 2 CH 2], oxypropylene, oxyethylene, polyether, or combinations thereof; R2 includes H, alkyl groups, alkylated carboxylates, alkylated sulfonates, mono-hydroxylated alkyl groups, or poly-hydroxylated alkyl groups; and X is from 1 to about 20.
A composite cemented carbide roll comprising an inner layer made of steel, an outer layer made of cemented carbide, and an intermediate layer made of cemented carbide which is metallurgically bonded to said inner layer and said outer layer; the cemented carbide forming said outer layer comprises 55 to 90 parts by mass of WC particles, wherein WC is a sintered alloy of tungsten carbide, and 10 to 45 parts by mass of a binder phase comprising Fe as a main component, the binder phase of said outer layer having a chemical composition comprising 0.5 to 10% by mass of Ni, 0.2 to 2.0% by mass of C, 0.5 to 5% by mass of Cr, and 0.1 to 5% by mass of W, the balance being Fe and inevitable impurities; the cemented carbide forming said intermediate layer comprises 30 to 65 parts by mass of WC particles, and 35 to 70 parts by mass of a binder phase comprising Fe as a main component, the binder phase of said intermediate layer having a chemical composition comprising 0.5 to 10% by mass of Ni, 0.2 to 2.0% by mass of C, 0.5 to 5% by mass of Cr, and 0.1 to 5% by mass of W, the balance being Fe and inevitable impurities; and the amount c1 (parts by mass) of WC particles in said outer layer and the amount c2 (parts by mass) of WC particles in said intermediate layer meet 0.45 ≤ c2/c1 ≤ 0.85; wherein the outer layer is as thick as 5 to 40 mm, and said intermediate layer is as thick as 3 to 15 mm, at an initial diameter of the composite cemented carbide roll at the start of use. the cemented carbide forming said outer layer comprises 55 to 90 parts by mass of WC particles, wherein WC is a sintered alloy of tungsten carbide, and 10 to 45 parts by mass of a binder phase comprising Fe as a main component, the binder phase of said outer layer having a chemical composition comprising 0.5 to 10% by mass of Ni, 0.2 to 2.0% by mass of C, 0.5 to 5% by mass of Cr, and 0.1 to 5% by mass of W, the balance being Fe and inevitable impurities; the cemented carbide forming said intermediate layer comprises 30 to 65 parts by mass of WC particles, and 35 to 70 parts by mass of a binder phase comprising Fe as a main component, the binder phase of said intermediate layer having a chemical composition comprising 0.5 to 10% by mass of Ni, 0.2 to 2.0% by mass of C, 0.5 to 5% by mass of Cr, and 0.1 to 5% by mass of W, the balance being Fe and inevitable impurities; and the amount c1 (parts by mass) of WC particles in said outer layer and the amount c2 (parts by mass) of WC particles in said intermediate layer meet 0.45 ≤ c2/c1 ≤ 0.85; wherein the outer layer is as thick as 5 to 40 mm, and said intermediate layer is as thick as 3 to 15 mm, at an initial diameter of the composite cemented carbide roll at the start of use.
Device (30, 40) for handling a load such as a sheet metal coil, comprising a holder capable of supporting said load, said holder moving rotationally on a frame between at least one first position in which the axis of the load is vertical, called the vertical axis position, and a second position in which the axis of the load is horizontal, called the horizontal axis position, and conversely, said frame being connected to a drive means (35, 41) in order to be mobile to load and/or discharge said load onto another machine, such as a reel, and said holder comprising a means for maintaining and positioning said load designed to hold said load while its position is being changed and to place and/or to take said load on or from said machine, characterized in that said holder comprises a central opening to be traversed by a chuck on a reel during the operations of loading and unloading said load and in that said maintenance and positioning means move in radial and/or axial translation along said holder to align the axis of the load with the axis of the chuck of a reel during said operations.