mhurhangee/ep-ind-claims huggingface dataset:
A method of detection and/or identification of protozoa of the Babesia genus including, in particular B. microti, B. venatorum, B. canis and/or B. divergens in samples containing nucleic acids characterized in that the method comprises the following steps: a) amplification of nucleic acids in a single reaction, using primers: Primer 1 of sequence consisting of SEQ ID NO: 1 and/or Primer 2 of sequence consisting of SEQ ID NO:2 and Primer 3 of sequence consiting of SEQ ID NO:3; b) detection; and optionally c) identification. a) amplification of nucleic acids in a single reaction, using primers: Primer 1 of sequence consisting of SEQ ID NO: 1 and/or Primer 2 of sequence consisting of SEQ ID NO:2 and Primer 3 of sequence consiting of SEQ ID NO:3; b) detection; and optionally c) identification.
Organic electronic device, comprising a first electrode, a second electrode, and a sub-stantially organic layer comprising a compound according to formula between the first and the second electrode: characterised in that M is a metal ion selected from Mg or Li, each of A 1 -A 4 is independently selected from H, substituted or unsubstituted C6-C20 aryl and substituted or unsubstituted C2-C20 heteroaryl wherein at least three groups selected from A 1 -A 4 are nitrogen containing heteroaryls and n is valency of the metal ion.
An integrated circuit device comprising: a first receiver having a first sampling circuit (207) to generate samples of a first input signal in response to transitions of a first clock signal and a first clock recovery circuit (205) operative to adjust the first clock signal to track timing transitions in the first input signal; a second receiver having a second sampling circuit (207) to generate samples of a second input signal in response to transitions of a second clock signal and a second clock recovery circuit (205) operative in a self-correcting mode to adjust the second clock signal to track timing transitions oin the first input signal, the second clock recovery circuit also operative in a slave mode to adjust phase of the second clock signal as a function of phase adjustments made by the first clock recovery circuit. a first receiver having a first sampling circuit (207) to generate samples of a first input signal in response to transitions of a first clock signal and a first clock recovery circuit (205) operative to adjust the first clock signal to track timing transitions in the first input signal; a second receiver having a second sampling circuit (207) to generate samples of a second input signal in response to transitions of a second clock signal and a second clock recovery circuit (205) operative in a self-correcting mode to adjust the second clock signal to track timing transitions oin the first input signal, the second clock recovery circuit also operative in a slave mode to adjust phase of the second clock signal as a function of phase adjustments made by the first clock recovery circuit.
A pulley for a forestry winch, the pulley being provided with a mechanism for terminating winding of a rope, wherein said pulley comprises: - a housing of the pulley, to which a guide of a pulling rope is mounted, said guide being movable in an axis of a drive sheave of the pulley, - the guide of the pulling rope with an orifice having an opening along which the rope runs, - a pushing element having a smaller opening than an end part of the pulling rope, so that the end part of the pulling rope can hit the pushing element arranged to be moved towards the orifice of the rope guide, - between the pushing element and far end of the orifice a spring is installed for ensuring return movement of the pushing element into its initial position - a switch or a sensor arranged to terminate winding of the rope and consequently load pulling upon contact of the end part of the rope and the pushing element, - the guide has the fixed orifice having: ∘ at least a first part arranged to receive at least a part of the pushing element, and ∘ on an upper side at least one groove arranged for installation of the sensor, the switch, a magnet or a similar element, and is characterized in that - the pushing element is mounted in a linearly movable manner on said orifice with a two-part safety-guiding assembly (16a, 16b), which prevents rotation of the pushing element on the orifice, wherein one part of the two-part assembly is on the orifice, and the second part is on the pushing element. - a housing of the pulley, to which a guide of a pulling rope is mounted, said guide being movable in an axis of a drive sheave of the pulley, - the guide of the pulling rope with an orifice having an opening along which the rope runs, - a pushing element having a smaller opening than an end part of the pulling rope, so that the end part of the pulling rope can hit the pushing element arranged to be moved towards the orifice of the rope guide, - between the pushing element and far end of the orifice a spring is installed for ensuring return movement of the pushing element into its initial position - a switch or a sensor arranged to terminate winding of the rope and consequently load pulling upon contact of the end part of the rope and the pushing element, - the guide has the fixed orifice having: ∘ at least a first part arranged to receive at least a part of the pushing element, and ∘ on an upper side at least one groove arranged for installation of the sensor, the switch, a magnet or a similar element, and is characterized in that ∘ at least a first part arranged to receive at least a part of the pushing element, and ∘ on an upper side at least one groove arranged for installation of the sensor, the switch, a magnet or a similar element, - the pushing element is mounted in a linearly movable manner on said orifice with a two-part safety-guiding assembly (16a, 16b), which prevents rotation of the pushing element on the orifice, wherein one part of the two-part assembly is on the orifice, and the second part is on the pushing element.
A fiber-reinforced resin molding material including a chopped fiber bundle and a matrix resin, wherein, when divided into n layers along a thickness direction of the fiber-reinforced resin molding material, a number-average fiber length [Lk] of a chopped fiber bundle [Ak] constituting each layer Fk (1≤ k ≤ n) gradually increases from one outermost layer F1 of the fiber-reinforced resin molding material toward the other outermost layer Fn, characterized in that, when divided into n layers along the thickness direction of the fiber-reinforced resin molding material, a number-average fiber bundle width [Wk] of the chopped fiber bundle [Ak] constituting each layer Fk gradually increases from one outermost layer F1 of the fiber-reinforced resin molding material toward the other outermost layer Fn.
A method for handover between distributed access points, AP, in a wireless local area network (WLAN) comprising: making, by a central AP, a handover decision on a wireless terminal, and when the wireless terminal meets a handover condition, determining that the wireless terminal is handed over from a first distributed AP to a second distributed AP, and sending a first instruction to the second distributed AP, wherein the first instruction comprises an identifier of the wireless terminal, wherein the first instruction is used to instruct the second distributed AP to start receiving a data frame from the wireless terminal, and forbid the second distributed AP to return an acknowledgement frame to the wireless terminal; and sending, by the central AP, a handover success notification message to the first distributed AP and the second distributed AP, wherein the handover success notification message comprises the identifier of the wireless terminal, wherein the handover success notification message is used to instruct the first distributed AP to stop receiving the data frame from the wireless terminal, and is used to instruct the second distributed AP to return the acknowledgement frame to the wireless terminal. making, by a central AP, a handover decision on a wireless terminal, and when the wireless terminal meets a handover condition, determining that the wireless terminal is handed over from a first distributed AP to a second distributed AP, and sending a first instruction to the second distributed AP, wherein the first instruction comprises an identifier of the wireless terminal, wherein the first instruction is used to instruct the second distributed AP to start receiving a data frame from the wireless terminal, and forbid the second distributed AP to return an acknowledgement frame to the wireless terminal; and sending, by the central AP, a handover success notification message to the first distributed AP and the second distributed AP, wherein the handover success notification message comprises the identifier of the wireless terminal, wherein the handover success notification message is used to instruct the first distributed AP to stop receiving the data frame from the wireless terminal, and is used to instruct the second distributed AP to return the acknowledgement frame to the wireless terminal.
A connector comprising: a rear connector that includes a rear housing; and a front connector that includes a front housing and that is assembled to the rear connector, wherein the rear housing contains a terminal of a cable end, and the front housing able to contain a mating terminal to be connected to the terminal, and wherein the rear housing is provided with a checking window through which the terminal is exposed to outside, and a voltage of the terminal can be checked in a state in which the terminal is connected to the mating terminal, characterized by a waterproof lid which closes the checking window in a sealed state. a rear connector that includes a rear housing; and a front connector that includes a front housing and that is assembled to the rear connector, wherein the rear housing contains a terminal of a cable end, and the front housing able to contain a mating terminal to be connected to the terminal, and wherein the rear housing is provided with a checking window through which the terminal is exposed to outside, and a voltage of the terminal can be checked in a state in which the terminal is connected to the mating terminal, characterized by a waterproof lid which closes the checking window in a sealed state.
A diagnostic device comprising: - an image acquiring module adapted to receive an image comprising at least a portion of animal or human tissue; - a delineation module adapted to indicate an analysis zone in said acquired image; - a feature extractor module adapted to extract quantitative information from said analysis zone; - a machine learning module adapted to receive said extracted information and apply at least one detection algorithm to assess a condition of said tissue. wherein the feature extractor module comprises at least a rotation compensation module to compensate for the rotation of the analysis zone, wherein the feature extractor module is further arranged to extract quantitative information corresponding to at least one of the following: - characteristics calculated from a co-occurrence matrix of said analysis zone; - first and second order statistical characteristics of the analysis zone; - characteristics obtained by gradients of the analysis zone either in the whole of or in portions thereof; - characteristics obtained by cascading; - a characteristic orientation and a local phase of at least a portion of the analysis zone wherein the machine learning module is arranged to select from a plurality of algorithms depending on the characteristics used by the feature extractor module, and wherein the machine learning module is further arranged to combine a plurality of algorithms to assess said condition of said tissue. - an image acquiring module adapted to receive an image comprising at least a portion of animal or human tissue; - a delineation module adapted to indicate an analysis zone in said acquired image; - a feature extractor module adapted to extract quantitative information from said analysis zone; - a machine learning module adapted to receive said extracted information and apply at least one detection algorithm to assess a condition of said tissue. - characteristics calculated from a co-occurrence matrix of said analysis zone; - first and second order statistical characteristics of the analysis zone; - characteristics obtained by gradients of the analysis zone either in the whole of or in portions thereof; - characteristics obtained by cascading; - a characteristic orientation and a local phase of at least a portion of the analysis zone
A system comprising: a control panel device; an access point device; and a sensor device, wherein the control panel device is configured to periodically transmits a time signal to the access point device, wherein the access point device is configured to periodically receive the time signal from the control panel device and use the time signal to synchronize with the control panel device, wherein the access point is configured to periodically transmit a wireless beacon that includes a starting point of a temporal pattern alarm cadence and a timestamp of the access point device to the sensor device, wherein the sensor device is configured to periodically exit a sleep mode to receive the wireless beacon from the access point device; and wherein the sensor device is configured to use the wireless beacon to synchronize with the access point device by calculating a current phase of the temporal pattern alarm cadence and wherein the sensor device is configured to calculate the current phase of the temporal pattern alarm cadence by calculating a gap between the starting point of the temporal pattern alarm cadence and a time of the local clock of the sensor device. a control panel device; an access point device; and a sensor device, wherein the control panel device is configured to periodically transmits a time signal to the access point device, wherein the access point device is configured to periodically receive the time signal from the control panel device and use the time signal to synchronize with the control panel device, wherein the access point is configured to periodically transmit a wireless beacon that includes a starting point of a temporal pattern alarm cadence and a timestamp of the access point device to the sensor device, wherein the sensor device is configured to periodically exit a sleep mode to receive the wireless beacon from the access point device; and wherein the sensor device is configured to use the wireless beacon to synchronize with the access point device by calculating a current phase of the temporal pattern alarm cadence and wherein the sensor device is configured to calculate the current phase of the temporal pattern alarm cadence by calculating a gap between the starting point of the temporal pattern alarm cadence and a time of the local clock of the sensor device.
Charge pump circuit, comprising: a first stage and at least a second stage, each having a capacitor (130, 230) and a current source (100, 200), wherein the charge pump circuit is configured such that, in a first phase of operation, the capacitor of the first stage is switched in series to the current source of the first stage for charging the capacitor of the first stage and the capacitor of the second stage is switched in series to the current source of the second stage for charging the capacitor of the second stage and wherein in a second phase of operation, the capacitor of the first stage and the capacitor of the second stage are switched in series for providing a supply voltage at an output of the charge pump circuit, characterized in that the charge pump circuit comprises a comparator having - a first input which is coupled to an electrode of the capacitor (130, 230) of one of the first and the at least a second stages (31, 32), - a second input for receiving a reference voltage and - an output for generating a comparator signal (SCOM), wherein the first and the second phase (A, B) are set depending on the comparator signal (SCOM). a first stage and at least a second stage, each having a capacitor (130, 230) and a current source (100, 200), wherein the charge pump circuit is configured such that, in a first phase of operation, the capacitor of the first stage is switched in series to the current source of the first stage for charging the capacitor of the first stage and the capacitor of the second stage is switched in series to the current source of the second stage for charging the capacitor of the second stage and wherein in a second phase of operation, the capacitor of the first stage and the capacitor of the second stage are switched in series for providing a supply voltage at an output of the charge pump circuit, characterized in - a first input which is coupled to an electrode of the capacitor (130, 230) of one of the first and the at least a second stages (31, 32), - a second input for receiving a reference voltage and - an output for generating a comparator signal (SCOM), wherein the first and the second phase (A, B) are set depending on the comparator signal (SCOM).
Method for adjusting transmission parameters of a cell, the method comprising: - operating the cell with a first cell ID, defining a first set of transmission parameters, and serving at least one user equipment (UE1, UE2); - starting transmitting at the cell in the name of a second cell ID, the second cell ID defining a second set of transmission parameters different from the first set,; - simultaneously operating, during a transition period, the first cell ID and the second cell ID; - handing over all of the at least one user equipment (UE1, UE2) from the first cell ID to the second cell ID; - stop transmitting with the first cell ID after the at least one user equipment has been handed over. - operating the cell with a first cell ID, defining a first set of transmission parameters, and serving at least one user equipment (UE1, UE2); - starting transmitting at the cell in the name of a second cell ID, the second cell ID defining a second set of transmission parameters different from the first set,; - simultaneously operating, during a transition period, the first cell ID and the second cell ID; - handing over all of the at least one user equipment (UE1, UE2) from the first cell ID to the second cell ID; - stop transmitting with the first cell ID after the at least one user equipment has been handed over.
A computer-implemented method for remote photoplethysmography facilitating obtaining a final signal (42;50a-n;76) for analysis to characterize a periodic component thereof, the periodic component corresponding to a biological phenomenon in a living being, including: tracking a region of interest in a sequence of image frames representative of intensities of captured electromagnetic radiation, each corresponding to a respective different radiation frequency range over a series of points in time, the region of interest being selected to correspond to a part of the images representing exposed skin of the living being, obtaining input signals (18-20;55-57) from the tracked region of interest, deriving an output signal (31; 72) from at least one of the input signals (18-20;55-57) by applying a transformation (22,26,30;59,63,67,71) to the at least one of the input signals (18-20;55-57) such that any value of the output signal (31;72) is based on values from each respective input signal (18-20;55-57) at corresponding points in time, the final signal (42;50a-n;76) being derivable from the output signal (31;72); wherein the transformation includes analyzing the input signal and, for each input signal, calculating a time-varying factor based on values of the input signal over a part of the series of points in time and, at for each point in time in that part of the series of points in time, normalising the input signal by using the time-varying factor. tracking a region of interest in a sequence of image frames representative of intensities of captured electromagnetic radiation, each corresponding to a respective different radiation frequency range over a series of points in time, the region of interest being selected to correspond to a part of the images representing exposed skin of the living being, obtaining input signals (18-20;55-57) from the tracked region of interest, deriving an output signal (31; 72) from at least one of the input signals (18-20;55-57) by applying a transformation (22,26,30;59,63,67,71) to the at least one of the input signals (18-20;55-57) such that any value of the output signal (31;72) is based on values from each respective input signal (18-20;55-57) at corresponding points in time, the final signal (42;50a-n;76) being derivable from the output signal (31;72); wherein the transformation includes analyzing the input signal and, for each input signal, calculating a time-varying factor based on values of the input signal over a part of the series of points in time and, at for each point in time in that part of the series of points in time, normalising the input signal by using the time-varying factor.
A power conversion system comprising: an input terminal (32, 34) adapted to receive variable power having an input voltage from a variable power source having a source impedance; an output terminal (36, 38) adapted to provide converted power having an output voltage to a variable impedance load, the variable impedance load receiving a load voltage based on the output voltage; a power converter including a switching controller, power switches (Q 1, Q 2) controlled by the switching controller, a transformer coupled to the power switches, a rectification circuit configured to rectify an alternating current output from the transformer, and input and output capacitors (C 1, C 2), characterized in that the switching controller is configured to switch the power switches in an alternating unregulated manner to increase the input voltage to the output voltage, the power converter is configured to reflect the source impedance of the variable power source to the variable impedance load. an input terminal (32, 34) adapted to receive variable power having an input voltage from a variable power source having a source impedance; an output terminal (36, 38) adapted to provide converted power having an output voltage to a variable impedance load, the variable impedance load receiving a load voltage based on the output voltage; a power converter including a switching controller, power switches (Q 1, Q 2) controlled by the switching controller, a transformer coupled to the power switches, a rectification circuit configured to rectify an alternating current output from the transformer, and input and output capacitors (C 1, C 2), characterized in that the switching controller is configured to switch the power switches in an alternating unregulated manner to increase the input voltage to the output voltage, the power converter is configured to reflect the source impedance of the variable power source to the variable impedance load.
A method for conveying in translation, in a transport zone, glass containers held in a suspended position between two slide rails on which slides a counter-ring arranged on each container which has a ring surface defining the opening of the container, the method consisting of ensuring the movement in translation of the containers by a bearing surface of at least one belt driven in translation in a translation direction and exerting mechanical pressure on each ring surface of the containers in a direction substantially perpendicular to the direction of movement to create a bond by adherence between each ring surface of the containers and the bearing surface of the belt.