mhurhangee/ep-ind-claims huggingface dataset:
A method for identifying the presence or absence of a pathogen in a biological sample, comprising detecting the presence or absence of a Chlamydophila pneumoniae Cpn0980 gene fragment comprising at least 15 nucleotides from the sequence of SEQ ID NO: 7, or a complement thereof.
A multiwell microplate carrier comprising: a body defining a plurality of regions configured to hold a plurality of multiwell microplates in parallel, each multiwell microplate defining a single column of wells, and each of the regions defining a plurality of openings that are adapted to mate with the single columns of wells, characterized by a collar for surrounding a bottom region of each microplate well when installed, wherein each collar forms an opening for positioning and light blockage. a body defining a plurality of regions configured to hold a plurality of multiwell microplates in parallel, each multiwell microplate defining a single column of wells, and each of the regions defining a plurality of openings that are adapted to mate with the single columns of wells, characterized by a collar for surrounding a bottom region of each microplate well when installed, wherein each collar forms an opening for positioning and light blockage.
A system for controlling the trajectory and the execution of the grass cutting operations of a lawn mower robot comprising an autonomous lawn mower robot and at least one personal wireless device, wherein the lawn mower robot comprises: - motor means designed to allow the movement of the robot in a substantially automatic fashion along a cutting trajectory inside a cutting area; - grass cutting means; - an antenna configured to receive wireless signals from the at least one personal wireless device which can be coupled with said antenna and which is configured to receive and transmit wireless signals from and to the antenna of the robot; - a control unit configured for determining a relative distance of the at least one personal wireless device with respect to the robot as a function of the wireless signals received by the antenna and for determining the cutting trajectory and activating/deactivating the cutting means as a function of said relative distance; said antenna being configured for transmitting a warning signal to the at least one personal wireless device when the relative distance between the robot and the at least one personal wireless device becomes less than a predetermined response value; characterised in that said control unit is configured for determining a position of the at least one personal wireless device inside the cutting area and for storing a plurality of positioning data representing said position at successive moments in time. - motor means designed to allow the movement of the robot in a substantially automatic fashion along a cutting trajectory inside a cutting area; - grass cutting means; - an antenna configured to receive wireless signals from the at least one personal wireless device which can be coupled with said antenna and which is configured to receive and transmit wireless signals from and to the antenna of the robot; - a control unit configured for determining a relative distance of the at least one personal wireless device with respect to the robot as a function of the wireless signals received by the antenna and for determining the cutting trajectory and activating/deactivating the cutting means as a function of said relative distance;
Outage detection circuit for detecting a defective LED, the outage detection circuit being adapted to be coupled across the LED, the outage detection circuit comprising: - a top voltage detector coupled to the LED for detecting a voltage across the LED, the top voltage detector having a top voltage terminal (Tout) for supplying a top voltage signal; - a differential amplifier coupled to the top voltage terminal for receiving the top voltage signal as a first input signal, and coupled to a reference voltage terminal, the reference voltage terminal being configured to supply a reference voltage (Vref) as a second input signal, the differential amplifier comprising an output terminal (Vout) for supplying an outage detection signal, characterized in that said top voltage signal is substantially equal to a maximum voltage of the voltage across the LED, and in that for detecting a defective LED which is adapted to be coupled across a DC-DC converter circuit for receiving a power signal, the outage detection circuit is adapted to supply the outage detection signal having one voltage when the LED is not defective to another voltage when the LED becomes a short circuit when defective. - a top voltage detector coupled to the LED for detecting a voltage across the LED, the top voltage detector having a top voltage terminal (Tout) for supplying a top voltage signal; - a differential amplifier coupled to the top voltage terminal for receiving the top voltage signal as a first input signal, and coupled to a reference voltage terminal, the reference voltage terminal being configured to supply a reference voltage (Vref) as a second input signal, the differential amplifier comprising an output terminal (Vout) for supplying an outage detection signal,
A device, comprising: one or more processors adapted to: receive physiological data from one or more sensor devices, the device applying a model to analyze the physiological data; detect a trigger condition, that triggers an update to the model used to analyze the physiological data, based on receiving the physiological data, the trigger condition including at least one of: a change in a type of data included in the physiological data, a change in an entity being monitored in association with the physiological data, or a change in a frequency with which the physiological data is received from the one or more sensor devices, and wherein detecting the at least one trigger condition allows the device to identify that the model is insufficient to analyze the physiological data; transmit to a cloud computing device a request to update the model to account for the change in the type of data, the change in the entity, or the change in the frequency based on detecting the trigger condition; receive from the cloud computing device an updated model, that accounts for the change in the type of data, the change in the entity, or the change in the frequency based on transmitting the request to update the model; and analyze the physiological data and/or subsequent physiological data received from the one or more sensor devices using the updated model. receive physiological data from one or more sensor devices, the device applying a model to analyze the physiological data; detect a trigger condition, that triggers an update to the model used to analyze the physiological data, based on receiving the physiological data, the trigger condition including at least one of: a change in a type of data included in the physiological data, a change in an entity being monitored in association with the physiological data, or a change in a frequency with which the physiological data is received from the one or more sensor devices, and wherein detecting the at least one trigger condition allows the device to identify that the model is insufficient to analyze the physiological data; a change in a type of data included in the physiological data, a change in an entity being monitored in association with the physiological data, or a change in a frequency with which the physiological data is received from the one or more sensor devices, and wherein detecting the at least one trigger condition allows the device to identify that the model is insufficient to analyze the physiological data; transmit to a cloud computing device a request to update the model to account for the change in the type of data, the change in the entity, or the change in the frequency based on detecting the trigger condition; receive from the cloud computing device an updated model, that accounts for the change in the type of data, the change in the entity, or the change in the frequency based on transmitting the request to update the model; and analyze the physiological data and/or subsequent physiological data received from the one or more sensor devices using the updated model.
A method for treating wood, in which method a hydrophobation agent is applied onto the surface of untreated wood, characterized in that an aqueous dispersion of fortified coniferous wood rosin or saponified coniferous wood rosin is used as the hydrophobation agent, and the coniferous wood rosin binds onto the surface of wood, forming onto the surface of wood a coniferous wood rosin coating, which leaves the wood surface permeable to water vapor and by means of which the water-repellency of the surface of wood is improved and penetration of micro-organisms, such as mold, algal and/or blue stain fungi, into the wood is mechanically inhibited, and wherein the aqueous dispersion of coniferous wood rosin contains one or more agents that improve the stability of the aqueous dispersion, which agents are selected from a group consisting of starch, cationic starch, a cationic synthetic polymer, an aliphatic amine and a copolymer of epichlorohydrin and dimethylamine, and wherein the aqueous dispersion of coniferous wood rosin contains a fixing agent that improves the binding of the coniferous wood rosin to wood, wherein the fixing agent is aluminum sulfate or polyaluminum chloride.
A composition in the form of an oil-in-water emulsion having a pH ranging from 3 to 5, comprising: a) from 15% to 70% by weight of oil; b) from 0.1% to 10% by weight of acid; c) from 0.1% to 10% by weight of an oil-in-water emulsifier; d) from 0.5% to 8% by weight of wheat flour, and e) from 0.5% to 7% by weight of physically modified starch, wherein the composition is obtainable by the method according to any one of claims 12 to 14. a) from 15% to 70% by weight of oil; b) from 0.1% to 10% by weight of acid; c) from 0.1% to 10% by weight of an oil-in-water emulsifier; d) from 0.5% to 8% by weight of wheat flour, and e) from 0.5% to 7% by weight of physically modified starch,
A method for data processing by a mobile terminal (201, 202) comprising several antennas (203, 204, 205, 206) in a communication network comprising multiple base stations (101, 102, 103, BS 1, BS 2) organized as a collaboration area in particular providing a coherent transmission, comprising the steps of: - the mobile terminal (201, 202), receives several input signals from at least one base station (BS 1, BS 2); - the mobile terminal (201, 202) selects a preferred receive strategy independently from other mobile terminals (201, 202) in the communication network, and - processes said several input signals into feedback information that is conveyed to the mobile terminal's serving base station in the collaboration area (BS 1, BS 2) characterized in that the feedback information conveyed is an effective multiple-input single-output channel determined from the processed several input signals. - the mobile terminal (201, 202), receives several input signals from at least one base station (BS 1, BS 2); - the mobile terminal (201, 202) selects a preferred receive strategy independently from other mobile terminals (201, 202) in the communication network, and - processes said several input signals into feedback information that is conveyed to the mobile terminal's serving base station in the collaboration area (BS 1, BS 2) characterized in that the feedback information conveyed is an effective multiple-input single-output channel determined from the processed several input signals.
A push button switch device with a lever including: a case (1, 2), a lever rotatably supported by the case, at least pair of fixed contacts (4, 5, 6) erected in the case, an operating member movably held by the case and having an operating portion to which the pressing force of the lever is to be applied, a movable contact held by the operating member, having at least a pair of elastic arms (8a, 8b), and contact portions (8a1, 8b1) respectively formed in the elastic arms to sandwich the fixed contacts, and performing switching of ON and OFF as the contact portions slide on the fixed contacts, and a biasing member which biases the operating member toward its initial position, characterized in that the movable contact has a connecting portion connecting at least the pair of elastic arms, wherein the contact portions formed in each of the elastic arms of the movable contact are distributively arranged on both sides of a position corresponding to the operating portion of the operating member, and wherein the biasing member is arranged on a bottom surface of the connecting portion of the movable contact. a case (1, 2), a lever rotatably supported by the case, at least pair of fixed contacts (4, 5, 6) erected in the case, an operating member movably held by the case and having an operating portion to which the pressing force of the lever is to be applied, a movable contact held by the operating member, having at least a pair of elastic arms (8a, 8b), and contact portions (8a1, 8b1) respectively formed in the elastic arms to sandwich the fixed contacts, and performing switching of ON and OFF as the contact portions slide on the fixed contacts, and a biasing member which biases the operating member toward its initial position, characterized in that the movable contact has a connecting portion connecting at least the pair of elastic arms, wherein the contact portions formed in each of the elastic arms of the movable contact are distributively arranged on both sides of a position corresponding to the operating portion of the operating member, and wherein the biasing member is arranged on a bottom surface of the connecting portion of the movable contact.
A method of determining timers for use by a High Level Data Link Control Traffic Manager "HTM" state machine in an optical communication network, the method comprising: sending from a first node a first packet having a delay measurement byte to a second node that is on a link between the first node and the second node; receiving a second packet with the delay measurement byte from the second node, the delay measurement byte being adjusted by the second node to indicate its receipt by the second node; determining a measured delay value between a time of sending the first packet to the second node and receiving the second packet from the second node, the measured delay value being determined by hardware of the first node; and setting timer values of the HTM state machine based on the determined measured delay value, wherein the timer values of the HTM machine are calculated to prevent loss of messages transmitted over the optical communication network, wherein the HTM state machine transitions between states based on the timer values, and wherein the first node includes the HTM state machine to recover from a frame slip event. sending from a first node a first packet having a delay measurement byte to a second node that is on a link between the first node and the second node; receiving a second packet with the delay measurement byte from the second node, the delay measurement byte being adjusted by the second node to indicate its receipt by the second node; determining a measured delay value between a time of sending the first packet to the second node and receiving the second packet from the second node, the measured delay value being determined by hardware of the first node; and setting timer values of the HTM state machine based on the determined measured delay value, wherein the timer values of the HTM machine are calculated to prevent loss of messages transmitted over the optical communication network, wherein the HTM state machine transitions between states based on the timer values, and wherein the first node includes the HTM state machine to recover from a frame slip event.
An IC card substrate, comprising: a main body with a rectangular plate shape; a recessed portion which is provided on the main body, and in which an IC card having an IC chip and a contact pattern is to be fitted; and a groove portion which is provided on the main body, and ranges from the recessed portion to a side of the main body, characterized in that the groove portion is provided at an area corresponding to a track of a contact terminal, when the IC card substrate is inserted into a slot of a card reader/writer having the contact terminal configured to come in contact with the contact pattern in the slot. a main body with a rectangular plate shape; a recessed portion which is provided on the main body, and in which an IC card having an IC chip and a contact pattern is to be fitted; and a groove portion which is provided on the main body, and ranges from the recessed portion to a side of the main body, characterized in that the groove portion is provided at an area corresponding to a track of a contact terminal, when the IC card substrate is inserted into a slot of a card reader/writer having the contact terminal configured to come in contact with the contact pattern in the slot.
A method of calibrating force in a dynamic mode atomic force microscope, the method comprising - providing an AFM tip disposed on a first cantilever - actuating the first cantilever to oscillate the AFM tip in a dynamic mode; - providing a first sensor configured to measure a first parameter of the oscillating AFM tip, wherein the first parameter is a function of one or more of an amplitude, frequency, and/or phase (φ) of the oscillation of the AFM tip; - providing a resilient element with a force constant, wherein a fundamental frequency of the resilient element is at least a factor ten higher than a fundamental frequency of the first cantilever; - providing a second sensor configured to measure a second parameter of the resilient element, wherein the second parameter is a function of a deflection and/or displacement of the resilient element; - moving the oscillating AFM tip in proximity to the resilient element while measuring the first parameter of the AFM tip and the second parameter of the resilient element; - calculating a force between the oscillating AFM tip and the resilient element based on the measured second parameter and calibrated force constant of the resilient element; and - storing a correlation between the calculated force and the measured first parameter of the oscillating AFM tip. - providing an AFM tip disposed on a first cantilever - actuating the first cantilever to oscillate the AFM tip in a dynamic mode; - providing a first sensor configured to measure a first parameter of the oscillating AFM tip, wherein the first parameter is a function of one or more of an amplitude, frequency, and/or phase (φ) of the oscillation of the AFM tip; - providing a resilient element with a force constant, wherein a fundamental frequency of the resilient element is at least a factor ten higher than a fundamental frequency of the first cantilever; - providing a second sensor configured to measure a second parameter of the resilient element, wherein the second parameter is a function of a deflection and/or displacement of the resilient element; - moving the oscillating AFM tip in proximity to the resilient element while measuring the first parameter of the AFM tip and the second parameter of the resilient element; - calculating a force between the oscillating AFM tip and the resilient element based on the measured second parameter and calibrated force constant of the resilient element; and - storing a correlation between the calculated force and the measured first parameter of the oscillating AFM tip.
An apparatus for capturing a water content from air, the apparatus comprising: a housing having an inlet into which the air can flow; a water adsorbent enclosed within the housing, the water adsorbent comprising at least one water adsorbent metal organic framework composite capable of adsorbing a water content from the air, the metal organic framework composite comprising: at least 50 wt% water adsorbent metal organic framework; from 0.2 to 10 wt% magnetic particles having a mean particle diameter of less than 200 nm; and at least 0.1 wt % hydrophilic binder consisting of a hydrophilic cellulose derivative; and a water desorption arrangement in contact with and/or surrounding the water adsorbent, the water desorption arrangement being selectively operable between (i) a deactivated state, and (ii) an activated state in which the arrangement is configured to apply heat to the water adsorbent to desorb a water content from the water adsorbent, wherein the water desorption arrangement comprises an alternating current magnetic field generator located within and/or around the water adsorbent configured to apply an AC magnetic field to the water adsorbent. a housing having an inlet into which the air can flow; a water adsorbent enclosed within the housing, the water adsorbent comprising at least one water adsorbent metal organic framework composite capable of adsorbing a water content from the air, the metal organic framework composite comprising: at least 50 wt% water adsorbent metal organic framework; from 0.2 to 10 wt% magnetic particles having a mean particle diameter of less than 200 nm; and at least 0.1 wt % hydrophilic binder consisting of a hydrophilic cellulose derivative; and a water desorption arrangement in contact with and/or surrounding the water adsorbent, the water desorption arrangement being selectively operable between (i) a deactivated state, and (ii) an activated state in which the arrangement is configured to apply heat to the water adsorbent to desorb a water content from the water adsorbent, wherein the water desorption arrangement comprises an alternating current magnetic field generator located within and/or around the water adsorbent configured to apply an AC magnetic field to the water adsorbent.
Hoist that can be installed in a room of a building and has a support * that has a foot that can be set up on a floor of that room * and that incorporates a head that can be placed against a ceiling of that room from underneath and has a slide rail * that is retained on the support * and extends horizontally * and extends beyond the base area of the support and has a rope * that is held on the slide rail * and can be displaced along the slide rail, where the slide rail can be demounted from the support, characterised in that the support incorporates a base frame and two arched bars, that are arranged upright and spaced part from each other and are constructed in the form of a gate arch and can be arranged so as to be joined to the base frame, where the slide rail is retained on the two arched bars so as to join the two arched bars together and is arranged so as to be suspended underneath the arched bars. * that has a foot that can be set up on a floor of that room * and that incorporates a head that can be placed against a ceiling of that room from underneath * that is retained on the support * and extends horizontally * and extends beyond the base area of the support * that is held on the slide rail * and can be displaced along the slide rail,
A multi-layer laminates comprising at least one layer of a polymeric adhesive matrix consisting essentially of a substantially uniform thickness nonwoven web consisting essentially of continuous filaments traversing the width of the web, said matrix consisting essentially of an amine-terminated polyamide, consisting essentially of an amine-terminated Nylon 12 or amine-terminated Nylon 11 polymer, or blends thereof with at least five and up to forty weight percent of another compatible thermoplastic polymeric material, said polymeric adhesive matrix positioned between a plurality of reinforcing fibrous layers impregnated with a binder resin.