mhurhangee/patent-ind-claim-en huggingface dataset:
A bridge inspection and maintenance system comprising a platform slidably mounted below said bridge , said platform consisting of two structures positioned symmetrically with respect to the longitudinal axis (A) of the bridge , each structure comprising a first part configured to move along a longitudinal axis of the bridge on a corresponding longitudinal guide integral with said bridge and a second part configured to translate transversely with respect to said longitudinal axis on said first part on a corresponding transverse guide, the two said structures being movable from a closed configuration, wherein the corresponding second parts are coupled to each other at the central longitudinal axis of the bridge , to an open configuration, wherein the two said second parts are separated from each other in the opposite direction with respect to the central longitudinal axis of the bridge , until they are decoupled from each other, by a transverse translational movement, characterized in that said platform comprises one or more sensors for acquiring images of said bridge and in that said one or more sensors are provided on each of said second parts , Said two structures being configured to be independently moved along the bridge. said platform consisting of two structures positioned symmetrically with respect to the longitudinal axis (A) of the bridge , each structure comprising a first part configured to move along a longitudinal axis of the bridge on a corresponding longitudinal guide integral with said bridge and a second part configured to translate transversely with respect to said longitudinal axis on said first part on a corresponding transverse guide, the two said structures being movable from a closed configuration, wherein the corresponding second parts are coupled to each other at the central longitudinal axis of the bridge , to an open configuration, wherein the two said second parts are separated from each other in the opposite direction with respect to the central longitudinal axis of the bridge , until they are decoupled from each other, by a transverse translational movement, characterized in that said platform comprises one or more sensors for acquiring images of said bridge and in that said one or more sensors are provided on each of said second parts , Said two structures being configured to be independently moved along the bridge.
Method of parametrizing an environment model for a driver assistance system of a vehicle , wherein the method comprises the steps of: defining a reference point (R) on a predicted trajectory (T) of the vehicle , wherein the reference point (R) is defined in relation to a detected object (OBJ) in an environment of the vehicle ; determining an angle (α x ) between a tangent (tan) to the trajectory (T) in the reference point (R) and a first coordinate axis (x) of a vehicle coordinate system (K) and a relative distance between the object (OBJ) and the reference point (R) with reference to the vehicle coordinate system (K), in order to obtain object-related information ; and transforming the object-related information according to the determined angle (α x ) to a new coordinate system (K*) with its first coordinate axis (x*) tangential to the trajectory (T) in the reference point (R), in order to obtain parametrization data for parametrizing the environment model , wherein the parametrization data represents the trajectory (T) as a straight movement with respect to the object (OBJ). defining a reference point (R) on a predicted trajectory (T) of the vehicle , wherein the reference point (R) is defined in relation to a detected object (OBJ) in an environment of the vehicle ; determining an angle (α x ) between a tangent (tan) to the trajectory (T) in the reference point (R) and a first coordinate axis (x) of a vehicle coordinate system (K) and a relative distance between the object (OBJ) and the reference point (R) with reference to the vehicle coordinate system (K), in order to obtain object-related information ; and transforming the object-related information according to the determined angle (α x ) to a new coordinate system (K*) with its first coordinate axis (x*) tangential to the trajectory (T) in the reference point (R), in order to obtain parametrization data for parametrizing the environment model , wherein the parametrization data represents the trajectory (T) as a straight movement with respect to the object (OBJ).
A multiple-part curable composition comprising: a) a part A comprising an oxalamido-containing compound having a molecular weight of at least 250 grams/mole and having at least two oxalamido groups of formula -NR 2 -(CO)-(CO)-OR 1 , wherein R 1 is a hydrocarbyl; and R 2 is hydrogen or hydrocarbyl; and b) a part B comprising a derivatized polyethylene imine comprising a reaction product of a polyethylene imine with a glycidyl ether, the derivatized polyethylene imine comprising monomeric units of Formula (VI) wherein R 3 is an alkyl having at least 4 carbon atoms, an aryl, an aralkyl, or an alkaryl; and each asterisk (*) is an attachment site to another monomeric unit of the derivatized polyethylene imine. a) a part A comprising an oxalamido-containing compound having a molecular weight of at least 250 grams/mole and having at least two oxalamido groups of formula -NR 2 -(CO)-(CO)-OR 1 , wherein R 1 is a hydrocarbyl; and R 2 is hydrogen or hydrocarbyl; and R 1 is a hydrocarbyl; and R 2 is hydrogen or hydrocarbyl; and b) a part B comprising a derivatized polyethylene imine comprising a reaction product of a polyethylene imine with a glycidyl ether, the derivatized polyethylene imine comprising monomeric units of Formula (VI) wherein R 3 is an alkyl having at least 4 carbon atoms, an aryl, an aralkyl, or an alkaryl; and each asterisk (*) is an attachment site to another monomeric unit of the derivatized polyethylene imine. R 3 is an alkyl having at least 4 carbon atoms, an aryl, an aralkyl, or an alkaryl; and each asterisk (*) is an attachment site to another monomeric unit of the derivatized polyethylene imine.
A pressure-sensitive adhesive composition for forming a re-detachable sheet by being applied to a first sheet surface and a second sheet surface after printing, being dried, and then press-bonding the first sheet surface and the second sheet surface together so as to closely adhere the first sheet surface and the second sheet surface, comprising: a rubber latex; a water-soluble styrene-acrylic acid copolymer; and a wax, wherein the rubber latex includes a methacrylic acid ester-natural rubber copolymer. a rubber latex; a water-soluble styrene-acrylic acid copolymer; and a wax, wherein the rubber latex includes a methacrylic acid ester-natural rubber copolymer.
A device for closing an opening in a tissue, comprising: a fastening element ; a closure body comprising a channel and closure body openings configured to receive the fastening element ; and a capture strip coupleable to the closure body , comprising capture strip openings and receptacles , each of the capture strip openings configured to receive the fastening element , wherein the channel extends through the closure body to receive the capture strip , wherein, when the capture strip is positioned at a first position relative to the closure body so that the capture strip openings align with the closure body openings respectively, the fastening element is threaded through the closure body openings and the capture strip openings , wherein, when the capture strip moves from the first position to a second position relative to the closure body , the fastening element affixes to the closure body , so that the closure body can be urged toward the tissue, wherein, when the capture strip is positioned at the second position relative to the closure body , the capture strip is removed from the channel , and wherein the capture strip includes a recess configured to receive an actuator configured to move the capture strip from the first position to the second position, the recess disposed approximately at the longitudinal center of the capture strip . a fastening element ; a closure body comprising a channel and closure body openings configured to receive the fastening element ; and a capture strip coupleable to the closure body , comprising capture strip openings and receptacles , each of the capture strip openings configured to receive the fastening element , wherein the channel extends through the closure body to receive the capture strip , wherein, when the capture strip is positioned at a first position relative to the closure body so that the capture strip openings align with the closure body openings respectively, the fastening element is threaded through the closure body openings and the capture strip openings , wherein, when the capture strip moves from the first position to a second position relative to the closure body , the fastening element affixes to the closure body , so that the closure body can be urged toward the tissue, wherein, when the capture strip is positioned at the second position relative to the closure body , the capture strip is removed from the channel , and wherein the capture strip includes a recess configured to receive an actuator configured to move the capture strip from the first position to the second position, the recess disposed approximately at the longitudinal center of the capture strip .
A moisture measuring system adapted to measure moisture in structural materials, in that the system comprises a moisture measuring device and a reading device wherein the moisture measuring device comprises: - a body part comprising an upper part and an embeddable tube , and further comprising a separated space with moisture conveying medium; - said body part provided with guiding wings comprising horizontal and vertical sections provided adjacent the upper part ; - at least one hole or opening in the body part , - measuring means comprising a sensor for measuring humidity and temperature in said separated space and electronics for transferring data wirelessly between the measuring means and said reading device; both the sensor and the electronics being provided in said body part of said moisture measuring device; - wherein the sensor is placed adjacent the hole or opening ; - wherein the hole or opening is placed on a selected height of the tubular part such that the distance between the hole/opening and the top surface of the device is equal to the measuring depth in said structural materials; wherein said body part is adapted to be embedded in the material to be measured during casting so that the top surface of the device is on the level of the cast surface, and wherein said measuring means is functionally connected to the body part , and said data transfer being provided in a non-invasive manner so that measured data may be transferred to said reading device through said wireless link. - a body part comprising an upper part and an embeddable tube , and further comprising a separated space with moisture conveying medium; - said body part provided with guiding wings comprising horizontal and vertical sections provided adjacent the upper part ; - at least one hole or opening in the body part , - measuring means comprising a sensor for measuring humidity and temperature in said separated space and electronics for transferring data wirelessly between the measuring means and said reading device; both the sensor and the electronics being provided in said body part of said moisture measuring device; - wherein the sensor is placed adjacent the hole or opening ; - wherein the hole or opening is placed on a selected height of the tubular part such that the distance between the hole/opening and the top surface of the device is equal to the measuring depth in said structural materials;
A method for wireless communications, comprising: identifying, by a first wireless device in a sidelink system, a first packet for transmission during a transmission time interval within the sidelink system; determining that a second packet is reserved for transmission by a second wireless device during at least a portion of the transmission time interval within the sidelink system ; communicating with the second wireless device, in resources reserved for negative acknowledgement messaging, a reservation for the transmission time interval; determining whether the first packet or the second packet has a higher relative priority ; characterised by : communicating in the sidelink system during the transmission time interval by either transmitting the first packet or receiving the second packet based at least in part on which of the first packet or second packet has the higher relative priority , including: refraining from transmitting the first packet during the transmission time interval in response to a determination that the second packet comprises an initial transmission of a packet with a higher relative priority than the first packet and having received a reservation for the second packet in the resources reserved for negative acknowledgement messaging; receiving the second packet within a pre-determined preemption time period that is at least partially within the transmission time interval; and refraining from transmitting a negative acknowledgement message in the resources reserved for negative acknowledgement message. identifying, by a first wireless device in a sidelink system, a first packet for transmission during a transmission time interval within the sidelink system; determining that a second packet is reserved for transmission by a second wireless device during at least a portion of the transmission time interval within the sidelink system ; communicating with the second wireless device, in resources reserved for negative acknowledgement messaging, a reservation for the transmission time interval; determining whether the first packet or the second packet has a higher relative priority ; refraining from transmitting the first packet during the transmission time interval in response to a determination that the second packet comprises an initial transmission of a packet with a higher relative priority than the first packet and having received a reservation for the second packet in the resources reserved for negative acknowledgement messaging; receiving the second packet within a pre-determined preemption time period that is at least partially within the transmission time interval; and refraining from transmitting a negative acknowledgement message in the resources reserved for negative acknowledgement message.
An energy management device coupled to a power supply device , which is operable in a device detection mode where the power supply device periodically applies a voltage between a first and second threshold, and in a power supply mode for providing power to load devices wherein the voltage is above the second threshold, and coupled to a load device operable in accordance with a predetermined power-acceptance criterion, in either an accepting operational state or a non-accepting operational state with respect to receiving power from the power supply device, the energy management device comprising: an energy buffer unit , a buffer controller , characterized in that the buffer controller is configured to detect that the load device is in the accepting operational state and the voltage provided by the power supply device has dropped below the second threshold and is between the first and second threshold, and to connect the energy buffer unit with the load device upon detecting that the load device is in the accepting operational state and the voltage provided by the power supply device has dropped below the second threshold and is between the first and second threshold and to maintain connecting the energy buffer unit with the load device for a predetermined time after the voltage provided by the power supply device has dropped below the second threshold. an energy buffer unit , a buffer controller , characterized in that the buffer controller is configured to detect that the load device is in the accepting operational state and the voltage provided by the power supply device has dropped below the second threshold and is between the first and second threshold, and to connect the energy buffer unit with the load device upon detecting that the load device is in the accepting operational state and the voltage provided by the power supply device has dropped below the second threshold and is between the first and second threshold and to maintain connecting the energy buffer unit with the load device for a predetermined time after the voltage provided by the power supply device has dropped below the second threshold.
A vehicle, comprising: a power storage device configured to transmit electric power to and from a motor for driving; a solar power generation system configured to generate electric power using sunlight and to perform solar charging that charges the power storage device with the generated electric power; and a control device configured to control the solar power generation system , the vehicle being configured to perform external charging that charges the power storage device with electric power from an external power supply apparatus , characterized in that the control device prohibits the solar charging until a standby time has elapsed since an off operation of an ignition switch and permits the solar charging when the standby time has elapsed; wherein the control device does not permit the solar charging during execution or during preparation of the external charging, even when the standby time has elapsed since an off operation of the ignition switch . a power storage device configured to transmit electric power to and from a motor for driving; a solar power generation system configured to generate electric power using sunlight and to perform solar charging that charges the power storage device with the generated electric power; and a control device configured to control the solar power generation system , the vehicle being configured to perform external charging that charges the power storage device with electric power from an external power supply apparatus , characterized in that the control device prohibits the solar charging until a standby time has elapsed since an off operation of an ignition switch and permits the solar charging when the standby time has elapsed; wherein the control device does not permit the solar charging during execution or during preparation of the external charging, even when the standby time has elapsed since an off operation of the ignition switch .
A method for performing, by a first apparatus , long-term evolution, LTE, sidelink, SL, transmission, the method comprising: receiving (S1410), from a new radio, NR, base station through a physical downlink control channel, PDCCH, downlink control information, DCI, characterized by the DCI including i) information regarding a first timing offset, ii) information regarding a second timing offset related to the LTE SL transmission, iii) index information of a sidelink, SL, semi persistent scheduling, SPS, configuration, and iv) information representing activation or release of the SL SPS configuration; and wherein the method further comprises performing (S1430) the LTE SL transmission, based on the DCI, wherein a time after a lapse of the first timing offset from a time when the first apparatus receives the DCI from the NR base station is equal to a time when it is determined that the first apparatus receives LTE dedicated DCI from an LTE base station with respect to the LTE SL transmission. receiving (S1410), from a new radio, NR, base station through a physical downlink control channel, PDCCH, downlink control information, DCI, characterized by the DCI including i) information regarding a first timing offset, ii) information regarding a second timing offset related to the LTE SL transmission, iii) index information of a sidelink, SL, semi persistent scheduling, SPS, configuration, and iv) information representing activation or release of the SL SPS configuration; and wherein the method further comprises performing (S1430) the LTE SL transmission, based on the DCI, wherein a time after a lapse of the first timing offset from a time when the first apparatus receives the DCI from the NR base station is equal to a time when it is determined that the first apparatus receives LTE dedicated DCI from an LTE base station with respect to the LTE SL transmission.
A transparent glass article, comprising: a glass substrate ; and an antireflective layer having a total reflectance of less than about 2% at wavelengths in a range from about 450 nanometers to about 1000 nanometers disposed on a surface of the glass substrate ; wherein the antireflective layer comprises a plurality of nominally hexagonally packed nanoparticles disposed in a monolayer on the surface of the glass substrate , wherein at least a portion of the plurality of nominally hexagonally packed nanoparticles are separated from each other by a gap ; and wherein at least a portion of the plurality of nominally hexagonally packed nanoparticles is partially embedded in the surface of the glass substrate . a glass substrate ; and an antireflective layer having a total reflectance of less than about 2% at wavelengths in a range from about 450 nanometers to about 1000 nanometers disposed on a surface of the glass substrate ; wherein the antireflective layer comprises a plurality of nominally hexagonally packed nanoparticles disposed in a monolayer on the surface of the glass substrate , wherein at least a portion of the plurality of nominally hexagonally packed nanoparticles are separated from each other by a gap ; and wherein at least a portion of the plurality of nominally hexagonally packed nanoparticles is partially embedded in the surface of the glass substrate .