mhurhangee/ep-ind-claims huggingface dataset:
Tilting device for the cab of a heavy goods vehicle, having a linear drive, especially a hydraulic cylinder/piston unit, which has, at one end, a coupling for attachment to the chassis of the heavy goods vehicle and, at the opposite end, a coupling in the form of a coupling eyelet for attachment to the cab, and having a coupling pin for the cab-side coupling eyelet of the linear drive, which coupling pin is to be mounted on the cab so as to be fixed against rotation, the coupling pin having an elongate cross-section with a first, larger transverse dimension and a second, smaller transverse dimension, characterised in that the eyelet opening of the cab-side coupling eyelet (5, 5a, 5b) has a circular eyelet region, the internal diameter of which corresponds to at least the larger transverse dimension of the coupling pin and which is adjoined in the longitudinal direction of the linear drive by a slot-like guideway region the slot width of which corresponds to the smaller transverse dimension of the coupling eyelet.
A hybrid vehicle comprising: an internal combustion engine and an electric motor generating vehicle driving force, a power storage device, a driving device driving said electric motor, a voltage conversion device provided between said driving device and said power storage device, and configured to boost an input voltage of said driving device to a level higher than a voltage of said power storage device, and a control device controlling said voltage conversion device, characterized by said control device controlling said voltage conversion device to set, in a first running mode (EV running mode) running with said internal combustion engine stopped, said input voltage to become lower by setting of an upper limit of said input voltage, as compared to the setting of said input voltage upper limit for a second running mode (HV running mode) using said internal combustion engine and said electric motor with said internal combustion engine operated, said control device shifting said first running mode to said second running mode when the revolution speed and/or torque of said electric motor is increased, said control device controlling said voltage conversion device to set, in said first running mode, said input voltage lower than said input voltage for said second running mode having an identical operating state of said electric motor generating vehicle driving force, and said electric motor being driven under rectangular wave voltage control of high modulation factor by lowering the upper limit setting of said input voltage. an internal combustion engine and an electric motor generating vehicle driving force, a power storage device, a driving device driving said electric motor, a voltage conversion device provided between said driving device and said power storage device, and configured to boost an input voltage of said driving device to a level higher than a voltage of said power storage device, and a control device controlling said voltage conversion device, characterized by said control device controlling said voltage conversion device to set, in a first running mode (EV running mode) running with said internal combustion engine stopped, said input voltage to become lower by setting of an upper limit of said input voltage, as compared to the setting of said input voltage upper limit for a second running mode (HV running mode) using said internal combustion engine and said electric motor with said internal combustion engine operated, said control device shifting said first running mode to said second running mode when the revolution speed and/or torque of said electric motor is increased, said control device controlling said voltage conversion device to set, in said first running mode, said input voltage lower than said input voltage for said second running mode having an identical operating state of said electric motor generating vehicle driving force, and said electric motor being driven under rectangular wave voltage control of high modulation factor by lowering the upper limit setting of said input voltage.
A device comprising: a transceiver (308, 400, 450) comprising a first section and a second section; wherein the first section comprises an antenna (306, 902), wherein signals received at the first section are conveyed to the second section; and a controller configured to: receive an uplink reflected power measurement and a downlink power measurement, the measurements being taken at the same time, calculate an impedance associated with the first section based on the uplink power measurement and the downlink power measurement, wherein the calculated impedance associated with the first section is the complex impedance of the antenna (306, 902) in substantially real-time, and provide a tuning parameter to the second section to match an impedance of the second section with the impedance of the first section. a transceiver (308, 400, 450) comprising a first section and a second section; wherein the first section comprises an antenna (306, 902), wherein signals received at the first section are conveyed to the second section; and a controller configured to: receive an uplink reflected power measurement and a downlink power measurement, the measurements being taken at the same time, calculate an impedance associated with the first section based on the uplink power measurement and the downlink power measurement, wherein the calculated impedance associated with the first section is the complex impedance of the antenna (306, 902) in substantially real-time, and provide a tuning parameter to the second section to match an impedance of the second section with the impedance of the first section. receive an uplink reflected power measurement and a downlink power measurement, the measurements being taken at the same time, calculate an impedance associated with the first section based on the uplink power measurement and the downlink power measurement, wherein the calculated impedance associated with the first section is the complex impedance of the antenna (306, 902) in substantially real-time, and provide a tuning parameter to the second section to match an impedance of the second section with the impedance of the first section.
A communications device configured to transmit signals to and/or receive signals from an infrastructure equipment of a mobile communications network, the communications device comprising a receiver configured to receive signals transmitted by the infrastructure equipment, a transmitter configured to transmit signals to the infrastructure equipment, and a controller configured to control the transmitter and the receiver to receive data from the infrastructure equipment, wherein the mobile communications network forms a wireless access interface, and the transmitter and the receiver are configured to transmit and receive signals via the wireless access interface using predetermined narrowband carriers of different types provided by one or more cells, and characterized by the controller being configured in a combination with the transmitter and the receiver to receive from the mobile communications network an indication listing narrowband carriers provided by one or more infrastructure equipment forming one or more cells of the mobile communications network, and an indication of the type of the narrowband carriers, to receive from the mobile communications network an indication of an offset value for adjusting a received signal metric dependent on the type of the narrowband carrier, the received signal metric representing a strength or quality of signals received from a narrowband carrier, to generate the received signal metric representing a strength or quality of signals received from one or more cells on each of the narrowband carriers, to combine the offset value with the generated received signal metric for each of the cells on the narrowband carriers of the type for which the offset should be applied, to form for each such cell an adjusted received signal metric, and to select one of the cells on one of the narrowband carriers from the list of the narrowband carriers with the largest received signal metric or adjusted received signal metric, the cell on the selected narrowband carrier being used by the communications device for receiving data from the mobile communications network via the selected narrowband carrier, wherein the offset is to bias the selection of the narrowband carrier to be of one of the types of the narrowband carriers depending on the value of the offset.
A method for detection and imaging of ultrasound contrast agent in a region, where: - at least two ultrasound pulses are transmitted consecutively toward said region along a given radial image line, - at least one of said transmitted pulses induces a physical movement and/or at least transiently alters the acoustic scattering properties of the contrast agent, - the received signals (101, 104) from said at least two transmitted pulses are used as imaging signals to detect and image the contrast agent, and - the imaging signals are for each depth along said radial image line combined such that the signal components from the contrast agent are, at least to some degree, preserved for detection and imaging of the contrast agent while other signal components are suppressed; characterized in that: one or more of the transmitted pulses has a mechanical index greater than 0.3; and/or the imaging frequency is at least three times higher than the resonance frequency of the contrast agent. - at least two ultrasound pulses are transmitted consecutively toward said region along a given radial image line, - at least one of said transmitted pulses induces a physical movement and/or at least transiently alters the acoustic scattering properties of the contrast agent, - the received signals (101, 104) from said at least two transmitted pulses are used as imaging signals to detect and image the contrast agent, and - the imaging signals are for each depth along said radial image line combined such that the signal components from the contrast agent are, at least to some degree, preserved for detection and imaging of the contrast agent while other signal components are suppressed; characterized in that: one or more of the transmitted pulses has a mechanical index greater than 0.3; and/or the imaging frequency is at least three times higher than the resonance frequency of the contrast agent. one or more of the transmitted pulses has a mechanical index greater than 0.3; and/or the imaging frequency is at least three times higher than the resonance frequency of the contrast agent.
A compound of Formula I: in free or salt form, wherein: (i) R 3 is halo; and (ii) R 1 and R 2 together form a piperazine ring wherein said piperazine is optionally substituted with a C 1-6 alkyl. (i) R 3 is halo; and (ii) R 1 and R 2 together form a piperazine ring wherein said piperazine is optionally substituted with a C 1-6 alkyl.
A storage comprising: a first opening section through which a first article used in a board working machine configured to perform predetermined board work on a board is received or delivered; and a second opening section which is different from the first opening section and through which a second article is received or delivered when reception work or delivery work of the first article is performed through the first opening section, characterized by a moving section configured to move the first and the second articles to a predetermined storage section when the first article is received through the first opening section and when the second article is received through the second opening section, and to move the first article stored in the storage section to the first opening section when the first article is delivered and to move the second article stored in the storage section to the second opening section when the second article is delivered; and a permission section configured to permit the reception work of the first article by an operator through the first opening section, wherein the moving section is configured to perform the delivery work of the second article through the second opening section in parallel with the reception work by the operator through the first opening section when the reception work of the first article by the operator is permitted by the permission section. a first opening section through which a first article used in a board working machine configured to perform predetermined board work on a board is received or delivered; and a second opening section which is different from the first opening section and through which a second article is received or delivered when reception work or delivery work of the first article is performed through the first opening section, characterized by a moving section configured to move the first and the second articles to a predetermined storage section when the first article is received through the first opening section and when the second article is received through the second opening section, and to move the first article stored in the storage section to the first opening section when the first article is delivered and to move the second article stored in the storage section to the second opening section when the second article is delivered; and a permission section configured to permit the reception work of the first article by an operator through the first opening section, wherein the moving section is configured to perform the delivery work of the second article through the second opening section in parallel with the reception work by the operator through the first opening section when the reception work of the first article by the operator is permitted by the permission section.
A method of detecting a sample to be detected by an ion mobility spectrometer using dopants, wherein the ion mobility spectrometer comprises a drift tube having a sample feeding port and a gas passage system communicated therewith, wherein the gas passage system comprises a pump, a filtering device, and a gas inlet (310, 320) and a gas outlet provided on the drift tube for providing clean gas used as the drift gas and the sample carrier gas, and the detection method comprises the steps of: providing a sampling substrate for sample collection; preparing a solution of the dopants and before the dopants are mixed with the sample to be detected, combining the dopants with the sampling substrate; after the dopants have been combined with the sampling substrate, collecting the sample using the sampling substrate combined with the dopants; and introducing the sampling substrate that has collected the sample to the sample feeding port of the ion mobility spectrometer for detection. providing a sampling substrate for sample collection; preparing a solution of the dopants and before the dopants are mixed with the sample to be detected, combining the dopants with the sampling substrate; after the dopants have been combined with the sampling substrate, collecting the sample using the sampling substrate combined with the dopants; and introducing the sampling substrate that has collected the sample to the sample feeding port of the ion mobility spectrometer for detection.
A method at a first communication node providing communication of Network Access Stratum, NAS, messages with a second communication node of a wireless communication network, the method comprising: communicating a first NAS message between the first communication node and the second communication node over a first NAS connection, wherein communicating the first NAS message comprises performing integrity protection for the first NAS message using a first NAS connection identification; and performing the integrity protection for the first NAS message by generating a first message authentication code based on the first NAS connection identification, a master key of a NAS security context, and the first NAS message, and transmitting the first NAS message with the first message authentication code over the first NAS connection to the second communication node; communicating a second NAS message between the first communication node and the second communication node over a second NAS connection, wherein communicating the second NAS message comprises performing integrity protection for the second NAS message using a second NAS connection identification, wherein the first and second NAS connections are different and share the master key, and performing the integrity protection for the second NAS message by generating a second message authentication code based on the second NAS connection identification, the master key, and the second NAS message, and transmitting the second NAS message with the second message authentication code over the second NAS connection to the second communication node. communicating a first NAS message between the first communication node and the second communication node over a first NAS connection, wherein communicating the first NAS message comprises performing integrity protection for the first NAS message using a first NAS connection identification; and performing the integrity protection for the first NAS message by generating a first message authentication code based on the first NAS connection identification, a master key of a NAS security context, and the first NAS message, and transmitting the first NAS message with the first message authentication code over the first NAS connection to the second communication node; communicating a second NAS message between the first communication node and the second communication node over a second NAS connection, wherein communicating the second NAS message comprises performing integrity protection for the second NAS message using a second NAS connection identification, wherein the first and second NAS connections are different and share the master key, and performing the integrity protection for the second NAS message by generating a second message authentication code based on the second NAS connection identification, the master key, and the second NAS message, and transmitting the second NAS message with the second message authentication code over the second NAS connection to the second communication node.
A gas system comprising: a container configured to store a combustible natural gas under pressure, the container having an opening and a length; a fitting attached to the container and configured to engage the opening, the fitting defining a flow path into the container; a gas tube extending from the fitting flow path and into the container, wherein the gas tube includes a plurality of holes; a quantity of a particulate adsorbent located in the container and outside of the gas tube, wherein the adsorbent comprises particles having a characteristic minimum size, and further wherein the adsorbent is selected to adsorb the combustible natural gas; a filter coupled to the gas tube and configured to cover the plurality of holes in the gas tube, wherein the filter is configured to permit passage of natural gas into and out of the gas tube and to prevent the passage of adsorbent particles into the gas tube; a temperature probe disposed in the container and imbedded in the particulate adsorbent and configured to monitor a temperature of the absorbent, and to provide a signal indicative of the monitored temperature; a thermal loop having a first end extending into the container, and a loop portion disposed in the container and away from the gas tube, and a second end extending out of the container, wherein the thermal loop is configured to: (a) heat the adsorbent to facilitate desorption of the natural gas from the adsorbent, or (b) cool the adsorbent to facilitate adsorption of natural gas to the adsorbent. a container configured to store a combustible natural gas under pressure, the container having an opening and a length; a fitting attached to the container and configured to engage the opening, the fitting defining a flow path into the container; a gas tube extending from the fitting flow path and into the container, wherein the gas tube includes a plurality of holes; a quantity of a particulate adsorbent located in the container and outside of the gas tube, wherein the adsorbent comprises particles having a characteristic minimum size, and further wherein the adsorbent is selected to adsorb the combustible natural gas; a filter coupled to the gas tube and configured to cover the plurality of holes in the gas tube, wherein the filter is configured to permit passage of natural gas into and out of the gas tube and to prevent the passage of adsorbent particles into the gas tube; a temperature probe disposed in the container and imbedded in the particulate adsorbent and configured to monitor a temperature of the absorbent, and to provide a signal indicative of the monitored temperature; a thermal loop having a first end extending into the container, and a loop portion disposed in the container and away from the gas tube, and a second end extending out of the container, wherein the thermal loop is configured to: (a) heat the adsorbent to facilitate desorption of the natural gas from the adsorbent, or (b) cool the adsorbent to facilitate adsorption of natural gas to the adsorbent.
An apparatus comprising: a first transfer roller with a first length to provide a coating fluid to a medium; a first pickup roller including a first contact part which applies the coating fluid to a first portion of the first transfer roller; a second pickup roller including a second contact part which applies the coating fluid to a second portion of the first transfer roller; and a coating applicator to provide the coating fluid to the first pickup roller and the second pickup roller; characterised in that the first contact part is moveable along a first longitudinal axis of the first pickup roller and the second contact part is movable along a second longitudinal axis of the second pickup roller such that the first contact part and the second contact part are positioned with respect to each other as to apply coating fluid of a continuous total longitudinal length to the first transfer roller at a certain location. a first transfer roller with a first length to provide a coating fluid to a medium; a first pickup roller including a first contact part which applies the coating fluid to a first portion of the first transfer roller; a second pickup roller including a second contact part which applies the coating fluid to a second portion of the first transfer roller; and a coating applicator to provide the coating fluid to the first pickup roller and the second pickup roller; characterised in that the first contact part is moveable along a first longitudinal axis of the first pickup roller and the second contact part is movable along a second longitudinal axis of the second pickup roller such that the first contact part and the second contact part are positioned with respect to each other as to apply coating fluid of a continuous total longitudinal length to the first transfer roller at a certain location.