mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing integrated circuits having one or more layers with a respective layout design at least partially formed using a direct write lithography step, said method comprising the steps of: measuring one or more performance characteristics of an at least partially formed integrated circuit; changing said layout design of at least one of said one or more layers to be formed using said direct write lithography step in dependence upon said one or more performance characteristics to generate a changed layout design; and forming said at least one of said one or more layers using said step of direct write lithography in accordance with said changed layout design, wherein said one or more performance characteristics include a speed of operation of at least a portion of said integrated circuit and said changed layout design provides a changed nominal speed of operation of said at least a portion of said integrated circuit. measuring one or more performance characteristics of an at least partially formed integrated circuit; changing said layout design of at least one of said one or more layers to be formed using said direct write lithography step in dependence upon said one or more performance characteristics to generate a changed layout design; and forming said at least one of said one or more layers using said step of direct write lithography in accordance with said changed layout design, wherein said one or more performance characteristics include a speed of operation of at least a portion of said integrated circuit and said changed layout design provides a changed nominal speed of operation of said at least a portion of said integrated circuit.
A process for the preparation of a hydrogel prodrug, comprising the steps of: (a) providing a reactive biodegradable hydrogel, wherein said hydrogel comprises backbone moieties which are linked together through crosslinker moieties, each crosslinker moiety being terminated by at least two hydrolytically degradable bonds, and wherein a backbone moiety comprises a branching core, from which branching core 3 to 16 linear PEG-based polymeric chains extend and wherein one terminus of said polymeric chains is connected to the branching core and the other to a hyperbranched dendritic moiety; wherein each said hyperbranched dendritic moiety has at least 3 branchings and at least 4 reactive functional groups and at most 63 branchings and 64 reactive functional groups; (b) conjugating a prodrug linker to a biologically active moiety, resulting in a biologically active moiety-prodrug linker conjugate; and (c) reacting the biologically active moiety-prodrug linker conjugate from step (b) with the reactive functional groups of the hydrogel of step (a). (a) providing a reactive biodegradable hydrogel, wherein said hydrogel comprises backbone moieties which are linked together through crosslinker moieties, each crosslinker moiety being terminated by at least two hydrolytically degradable bonds, and wherein a backbone moiety comprises a branching core, from which branching core 3 to 16 linear PEG-based polymeric chains extend and wherein one terminus of said polymeric chains is connected to the branching core and the other to a hyperbranched dendritic moiety; wherein each said hyperbranched dendritic moiety has at least 3 branchings and at least 4 reactive functional groups and at most 63 branchings and 64 reactive functional groups; (b) conjugating a prodrug linker to a biologically active moiety, resulting in a biologically active moiety-prodrug linker conjugate; and (c) reacting the biologically active moiety-prodrug linker conjugate from step (b) with the reactive functional groups of the hydrogel of step (a).
A decellularized or synthetic tissue matrix comprising human placental stem cells that are (a) SSEA3 -, SSEA4 -, OCT-4 + and ABC-p +; or (b) CD10 +, CD29 +, CD34 -, CD44 +, CD45 -, CD54 +, CD90 +, SH2 +, SH3 +, SH4 +, SSEA3 -, SSEA4 -, OCT-4 +, and ABC-p +. (a) SSEA3 -, SSEA4 -, OCT-4 + and ABC-p +; or (b) CD10 +, CD29 +, CD34 -, CD44 +, CD45 -, CD54 +, CD90 +, SH2 +, SH3 +, SH4 +, SSEA3 -, SSEA4 -, OCT-4 +, and ABC-p +.
A method to control the use of applications which are loaded on a mobile device based on a network to which the mobile device is connected to, the mobile device being a two-way cellular telephone communication device having at least voice and data communication capabilities, the method comprising the steps, at the mobile device, of: connecting to said network and receiving a network identifier from the network; using a processor to correlate the received network identifier with application limitations stored on the mobile device, wherein the correlating is performed in a look up table which includes a correlation between a network identifier and allowed applications and/ or a correlation between a network identifier and restricted applications, the applications comprising one of a speakerphone and a camera; and in response to a user trying to start a speakerphone or camera application, using an application launcher to limit application usage based on the results of the correlating step by having the application launcher check whether the speakerphone or camera application is allowed to be run prior to launching the application and thus either block or allow the launching of the speakerphone or camera application. connecting to said network and receiving a network identifier from the network; using a processor to correlate the received network identifier with application limitations stored on the mobile device, wherein the correlating is performed in a look up table which includes a correlation between a network identifier and allowed applications and/ or a correlation between a network identifier and restricted applications, the applications comprising one of a speakerphone and a camera; and in response to a user trying to start a speakerphone or camera application, using an application launcher to limit application usage based on the results of the correlating step by having the application launcher check whether the speakerphone or camera application is allowed to be run prior to launching the application and thus either block or allow the launching of the speakerphone or camera application.
A kinematic system for actuating the work unit of a bender machine designed to bend and shape sheet metal, wherein the machine comprises a blade holder unit having a "C" shaped section, which is mobile and moves in two directions, both of which are at right angles to a fixed bench, and where the unit is fitted with one or more bending blades, wherein: - servomotors and planetary gear reducers are used for moving the blade holder unit; - the blade holder unit uses a jointed mechanism comprising two mechanical units (20, 20a; 30, 30a) which form a closed kinematic chain of five components connected by five kinematic pairs all of which are revolute; - the mechanical unit (20, 20a) for moving the blade holder unit in a substantially vertical direction comprises a pair of servomotors coupled respectively to two gear reducers, which operate respective cranks (9, 9a) on which respective connecting rods (8, 8a) are hinged, and where the other end of each connecting rod is connected by respective pins (7, 7a) to a respective base (10, 10a) fixed to the blade holder unit; this system being characterised in that the mechanical unit (30, 30a) for moving the blade holder unit in a substantially horizontal direction comprises one pair of servomotors (6, 6a) coupled to corresponding planetary gear reducers, each of which operates a respective camshaft (3, 3a), in that the camshafts (3, 3a) are hinged on the rear supports (2, 2a) of the blade holder unit, in that the camshafts (3, 3a) act as rotation pins for the tilting movement of the blade holder unit and also as a crankshaft which generates the approximately horizontal movement of the blade holder unit, and in that vertical and horizontal movements implemented respectively by the first and second mechanical units (20, 20a; 30, 30a) are independent and different from each other. - servomotors and planetary gear reducers are used for moving the blade holder unit; - the blade holder unit uses a jointed mechanism comprising two mechanical units (20, 20a; 30, 30a) which form a closed kinematic chain of five components connected by five kinematic pairs all of which are revolute; - the mechanical unit (20, 20a) for moving the blade holder unit in a substantially vertical direction comprises a pair of servomotors coupled respectively to two gear reducers, which operate respective cranks (9, 9a) on which respective connecting rods (8, 8a) are hinged, and where the other end of each connecting rod is connected by respective pins (7, 7a) to a respective base (10, 10a) fixed to the blade holder unit;
A time display device, comprising: an indication display unit which displays a content according to an indicating operation, and a processor, wherein in a case where a remaining time with respect to a reference set time of an elapsed time from a measuring start timing is greater than a predetermined reference remaining time, the processor makes the indication display unit display a ratio of the remaining time with respect to the reference set time, and in a case where the remaining time is equal to or less than the predetermined reference remaining time, the processor makes the indication display unit display the remaining time. an indication display unit which displays a content according to an indicating operation, and a processor, wherein in a case where a remaining time with respect to a reference set time of an elapsed time from a measuring start timing is greater than a predetermined reference remaining time, the processor makes the indication display unit display a ratio of the remaining time with respect to the reference set time, and in a case where the remaining time is equal to or less than the predetermined reference remaining time, the processor makes the indication display unit display the remaining time.
A method for locating an animal by means of radio waves, wherein the animal is provided with a node of a radio wave location system to be located and wherein a plurality of further nodes of the radio wave location system are provided at known positions, wherein the radio wave signals are transmitted between the node to be located and the nodes having known positions and wherein individual distances and/or individual distance differences between the individual nodes having known positions on the one hand and the node to be located on the other hand are calculated from the parameters measured during the signal transmission and wherein, by a data processing device, possible positions of the node to be located are calculated from several such calculation results, characterised in that stochastic calculations are used in order to, based on the results of preceding measurements and calculations regarding the possible position of the node to be located, the one result out of the plurality of the current position calculation results is filtered out which with maximum likelihood actually describes the current position, wherein there is included the constraint that at least from a certain limiting distance between the position defined by a current calculation result and the latest assumed position of the node to be located, upon increasing distance between the two positions, the likelihood decreases that the position according to the current calculation result is the actual position of the node to be located, wherein there are also measured acceleration data on the animal provided with the node to be located and the measured acceleration data are transmitted to the data processing device, wherein the assumption of said likelihood depends on the measured acceleration data, wherein, for greater measured acceleration values, the likelihood for greater distances between two temporally subsequently adopted positions is assumed to be increased at the detriment of the likelihood for a smaller distance between two temporally subsequently adopted positions.
A head set comprising a brain electrical activity sensing device comprising EEG sensors configured to be mounted on a head of a wearer so as to position the EEG sensors at selected positions of interest over the wearers scalp, the EEG sensing device comprising a sensor support and a flexible circuit assembled to the sensor support, wherein said flexible circuit and support are configured to be bent to conform to a generally spherical or ellipsoid three dimensional form corresponding essentially to the general morphology of a top half of a human head, the sensor support and flexible circuit comprising a central stem (4a, 6a) configured to extend along a center plane of the top of the head in a direction from nasion to inion, a front lateral branch (4b, 6b) configured to extend across a front portion of a wearer's head extending laterally from the central stem, a center lateral branch (4c, 6c) configured to extend across a top portion of a wearer's head essentially between the wearer's ears, and a rear lateral branch (4d, 6d) configured to extend across a back portion of a wearer's head, characterized in that the sensor support comprises a base wall having a first side to contact the head of the wearer and side walls extending along edges of an opposite side of the base wall to form an essentially flat "U" shaped channel in which the flexible circuit is inserted and the base wall comprises EEG sensor orifices to receive a gel to allow electrical contact to be established between the scalp of the wearer and contacts of EEG sensors on the flexible circuit.
A method for a transmitter of a multiple-input multiple-output communication system including the transmitter for transmitting a signal via four transmission antennas each having unique indexes and at least one receiver for receiving the signal, the method comprising: generating a transmission symbol by adding one parity symbol to three BPSK modulated symbols when the transmitter uses Binary Phase Shift Keying, BPSK, as modulation scheme, or by adding two parity symbols to two QPSK modulated symbols when the transmitter uses Quadrature Phase Shift Keying, QPSK, as modulation scheme; generating a preprocessed symbol by multiplying the transmission symbol by a 4x4 preprocessing matrix, wherein the preprocessing matrix is a Hadamard matrix when the modulation scheme of the transmitter is BPSK or a Fourier matrix when the modulation scheme of the transmitter is QPSK, the Hadamard matrix being 1 1 1 1 1 - 1 1 - 1 1 1 - 1 - 1 1 - 1 - 1 1, the Fourier matrix being = 1 1 1 1 1 - i - 1 i 1 - 1 1 - 1 1 i - 1 - i; selecting a transmission antenna associated with a non-zero element among the elements constituting the preprocessed symbol; and transmitting the preprocessed symbol via the selected transmission antenna; characterized by multiplying the preprocessed symbol by a space correlation coefficient before transmitting the preprocessed symbol, wherein the space correlation coefficient is given as exp(i*(j-1)*θ), where j denotes a transmission antenna index (j=1,...,4), θ denotes an angle of 22,5°, and i denotes the imaginary number. generating a transmission symbol by adding one parity symbol to three BPSK modulated symbols when the transmitter uses Binary Phase Shift Keying, BPSK, as modulation scheme, or by adding two parity symbols to two QPSK modulated symbols when the transmitter uses Quadrature Phase Shift Keying, QPSK, as modulation scheme; generating a preprocessed symbol by multiplying the transmission symbol by a 4x4 preprocessing matrix, wherein the preprocessing matrix is a Hadamard matrix when the modulation scheme of the transmitter is BPSK or a Fourier matrix when the modulation scheme of the transmitter is QPSK, the Hadamard matrix being 1 1 1 1 1 - 1 1 - 1 1 1 - 1 - 1 1 - 1 - 1 1, the Fourier matrix being = 1 1 1 1 1 - i - 1 i 1 - 1 1 - 1 1 i - 1 - i; selecting a transmission antenna associated with a non-zero element among the elements constituting the preprocessed symbol; and transmitting the preprocessed symbol via the selected transmission antenna; characterized by multiplying the preprocessed symbol by a space correlation coefficient before transmitting the preprocessed symbol, wherein the space correlation coefficient is given as exp(i*(j-1)*θ), where j denotes a transmission antenna index (j=1,...,4), θ denotes an angle of 22,5°, and i denotes the imaginary number.
A steering device for an aircraft landing gear having a leg including a main fitting, the steering device comprising a steering collar for rotatably mounting on the outside of the main fitting, at least one actuator having an actuator body and an actuator arm arranged to move between an extended position and retracted position with respect to the actuator body, the actuator arm having a distal end for pivotal connection to the main fitting, a bracket having a first pivot location for pivotal connection to the main fitting, a second pivot location pivotally connected to the actuator body, and a third pivot location pivotally connected to one end of a steering arm, the steering arm is pivotally connected at its other end to the steering collar, wherein the steering collar has a lateral lug and the steering arm is pivotally connected to the lug.
An anhydrous polymorph of a compound of formula 1, characterized by: (i) a powdered X-ray diffraction pattern having peaks expressed in degrees 2-theta ± 0.2° of 8.4, 11.2, 17.8, 19.1, and 22.3; or (ii) a DSC thermogram showing an endotherm at 101-108 °C. (i) a powdered X-ray diffraction pattern having peaks expressed in degrees 2-theta ± 0.2° of 8.4, 11.2, 17.8, 19.1, and 22.3; or (ii) a DSC thermogram showing an endotherm at 101-108 °C.
A computing node (102-1-102-5, 302, 402, 1200) for a safety relevant system, said node being characterized by comprising: a computing circuit configured to receive each of at least one input-data message that the node is to operate on to perform a redundant task; a list of identifiers (201, 303, 404) of each of the at least one input-data messages; a comparing circuit (807, 1010) configured to compare each of the at least one received input-data message to the list of input-data-message identifiers; and an indicator circuit (809, 1009) configured, for each of the at least one input-data message that corresponds to a respective input-data-message identifier, to generate a respective portion of a first status message (202, 304, 401, 403,501, 503), the respective portion indicating that the input-data message was received, the computing node being configured to compare the first status message to a second status message (202, 304, 401, 403,501, 503) from another node (102-1-102-5, 302, 402, 1200) to determine whether the computing node has received the same input-data message as the other node. a computing circuit configured to receive each of at least one input-data message that the node is to operate on to perform a redundant task; a list of identifiers (201, 303, 404) of each of the at least one input-data messages; a comparing circuit (807, 1010) configured to compare each of the at least one received input-data message to the list of input-data-message identifiers; and an indicator circuit (809, 1009) configured, for each of the at least one input-data message that corresponds to a respective input-data-message identifier, to generate a respective portion of a first status message (202, 304, 401, 403,501, 503), the respective portion indicating that the input-data message was received, the computing node being configured to compare the first status message to a second status message (202, 304, 401, 403,501, 503) from another node (102-1-102-5, 302, 402, 1200) to determine whether the computing node has received the same input-data message as the other node.
A field effect transistor, comprising: an active region comprising a plurality of semiconductor layers; drain and source electrodes formed in contact with said active region; a gate electrode formed on said active region between said source and drain electrodes, said gate comprising a protective layer formed on the upper surface of said gate and a contact portion made from a material having a Schottky barrier, said contact portion being in contact with said active region; first and second spacer layers, said first spacer layer covering at least part of the surface of said active region, said second spacer layer covering said gate electrode and at least part of said first spacer layer; and a field plate on said second spacer layer. an active region comprising a plurality of semiconductor layers; drain and source electrodes formed in contact with said active region; a gate electrode formed on said active region between said source and drain electrodes, said gate comprising a protective layer formed on the upper surface of said gate and a contact portion made from a material having a Schottky barrier, said contact portion being in contact with said active region; first and second spacer layers, said first spacer layer covering at least part of the surface of said active region, said second spacer layer covering said gate electrode and at least part of said first spacer layer; and a field plate on said second spacer layer.
Multipole electrical connector part, comprising a connector housing and a protective cap which can be latched to the connector housing, having an input port, and a fixing device for a plurality of connecting leads (6, 6a, 6b, 6c) having a clamping body, wherein on the clamping body at least two clamping surfaces (16a, 16b) are arranged or formed in an elastically resilient or elastically yielding manner, and wherein between the clamping surfaces (16a, 16b) of the clamping body and inner wall portions (20a, 20b) of the connector housing connecting lines (6, 6a, 6b, 6c) can be fixed in a force-fitting manner, characterized in that in that the at least two clamping surfaces (16a, 16b) are not aligned parallel to one another, in that the clamping body consists of a rubber-elastic material, in that the clamping body is of V-shaped design, and in that the connector housing and the protective cap can be positioned axially with respect to one another in a plurality of latching steps by means of integrally formed latching elements (24, 25), and in that, depending on the positioning, different distances are produced between at least one of the clamping surfaces (16a, 16b) of the clamping body and at least one inner wall section (20a, 20b) of the connector housing.