mhurhangee/ep-ind-claims huggingface dataset:
A redundant, load-sharing system to distribute electrical power to components in a vehicle, the system comprising: a plurality of components; a plurality of power sources; at least two power distribution buses, wherein each of the power distribution buses is electrically coupled to one or more of the power sources; a plurality of switching devices, wherein each of the switching devices is configured to electrically couple and/or decouple one or more of the components to at least one of the power distribution buses; and at least two channel controllers, wherein each of the channel controllers is configured to receive power from at least one of the power distribution buses and provide power allocation instructions to one or more of the switching devices; a means for in-situ noise measurement, configured to measure the electric noise generated by each of the components and power sources in-situ during the operation of the vehicle, and wherein the switching devices isolate the components and the power sources that are determined to be electrically noisy from the components and the power sources that are sensitive to electric noise. a plurality of components; a plurality of power sources; at least two power distribution buses, wherein each of the power distribution buses is electrically coupled to one or more of the power sources; a plurality of switching devices, wherein each of the switching devices is configured to electrically couple and/or decouple one or more of the components to at least one of the power distribution buses; and at least two channel controllers, wherein each of the channel controllers is configured to receive power from at least one of the power distribution buses and provide power allocation instructions to one or more of the switching devices; a means for in-situ noise measurement, configured to measure the electric noise generated by each of the components and power sources in-situ during the operation of the vehicle, and wherein the switching devices isolate the components and the power sources that are determined to be electrically noisy from the components and the power sources that are sensitive to electric noise.
A device for dispensing an aerosolized liquid comprising: a flow pathway extending between an upstream gas intake and a downstream aerosol egress; at least one nozzle having a supply end and a forward spray end, said nozzle disposed within said flow pathway and adapted to spray an aerosolized liquid toward said downstream aerosol egress; a voltage power source having a first pole and a second pole; at least one discharge electrode operatively connected to the first pole of said voltage power source, said discharge electrode disposed within said flow pathway upstream of said nozzle; characterized by a conductive electric field shield (14, 15) disposed between said nozzle and said discharge electrode, said shield operatively connected to ground or to the second pole of said power source; an insulator disposed between said discharge electrode and said conductive electric field shield; a liquid supplier operatively connected to the supply end of said at least one nozzle; and a liquid to be aerosolized, said liquid electrically connected to ground or to the second pole of said power source.
Spectacles, in particular sports spectacles, comprising a) a spectacle frame; b) at least one spectacle lens (2, 3) which is detachably locked by the spectacle frame; c) a locking means (8; 23) for securing the spectacle lens (2, 3) to the spectacle frame, wherein the locking means (8; 23) - is displaceable relative of the spectacle frame between a spectacle lens locking position and a spectacle lens unlocking position; - interacts with the spectacle lens (2, 3) in the spectacle lens locking position and retains the spectacle lens (2, 3) in the spectacle frame; and - unlocks the spectacle lens (2, 3) in the spectacle lens unlocking position in such a way that the spectacle lens (2, 3) is removable from the spectacle frame; and d) a locking counter-means (13; 24) interacting with the locking means (8; 23), wherein the locking counter means (13; 24) is arranged on the spectacle frame, characterised in that e) each of the locking means (8; 23) and the locking counter-means (13; 24) comprises a magnetic element (15, 16), wherein the first magnetic element of the locking means (8; 23) interacts with the second magnetic element of the locking counter-means, and f) in the spectacle lens unlocking position, the first magnetic element overlaps with the second magnetic element in a remaining overlap region. a) a spectacle frame; b) at least one spectacle lens (2, 3) which is detachably locked by the spectacle frame; c) a locking means (8; 23) for securing the spectacle lens (2, 3) to the spectacle frame, wherein the locking means (8; 23) - is displaceable relative of the spectacle frame between a spectacle lens locking position and a spectacle lens unlocking position; - interacts with the spectacle lens (2, 3) in the spectacle lens locking position and retains the spectacle lens (2, 3) in the spectacle frame; and - unlocks the spectacle lens (2, 3) in the spectacle lens unlocking position in such a way that the spectacle lens (2, 3) is removable from the spectacle frame; and - is displaceable relative of the spectacle frame between a spectacle lens locking position and a spectacle lens unlocking position; - interacts with the spectacle lens (2, 3) in the spectacle lens locking position and retains the spectacle lens (2, 3) in the spectacle frame; and - unlocks the spectacle lens (2, 3) in the spectacle lens unlocking position in such a way that the spectacle lens (2, 3) is removable from the spectacle frame; and d) a locking counter-means (13; 24) interacting with the locking means (8; 23), wherein the locking counter means (13; 24) is arranged on the spectacle frame, e) each of the locking means (8; 23) and the locking counter-means (13; 24) comprises a magnetic element (15, 16), wherein the first magnetic element of the locking means (8; 23) interacts with the second magnetic element of the locking counter-means, and f) in the spectacle lens unlocking position, the first magnetic element overlaps with the second magnetic element in a remaining overlap region.
A wireless power transfer apparatus (900, 1000, 1100), comprising: an amplifier circuit (950, 1020) operably coupled to a coil configured to wirelessly transfer power to a receiver, the amplifier circuit (950, 1020) comprising a switching element; and a monitoring circuit (920, 1010, 1110) configured to: cause the switching element to be in an open position during a first phase, cause the switching element to be in a closed position during a second phase in response to determining that a voltage across the switching element falls below a threshold value, wherein the threshold value is greater than zero, and cause the switching element to be in a closed position during a third phase. an amplifier circuit (950, 1020) operably coupled to a coil configured to wirelessly transfer power to a receiver, the amplifier circuit (950, 1020) comprising a switching element; and a monitoring circuit (920, 1010, 1110) configured to: cause the switching element to be in an open position during a first phase, cause the switching element to be in a closed position during a second phase in response to determining that a voltage across the switching element falls below a threshold value, wherein the threshold value is greater than zero, and cause the switching element to be in a closed position during a third phase. cause the switching element to be in an open position during a first phase, cause the switching element to be in a closed position during a second phase in response to determining that a voltage across the switching element falls below a threshold value, wherein the threshold value is greater than zero, and cause the switching element to be in a closed position during a third phase.
Concentrate for colouring polyester preforms and/or containers, comprising 20-90 % of polymethylpentene, and 10-80 % of titanium dioxide, based on total weight of the concentrate, wherein 98 % or more by total weight of the concentrate comprises polymethylpentene and titanium dioxide together.
An inkjet recording apparatus comprising: an inkjet portion A having a recording head 11 for applying ink to a recording medium 1 and a distribution tank 12 for supplying ink to the recording head 11; an ink supply means B having a main tank 21 for supplying ink to the distribution tank 12; and an air supply means C having an air chamber 31 communicating with a space 12a in the distribution tank 12, and a pressure adjustment mechanism provided on the air chamber 31 via a solenoid valve, wherein: the pressure adjustment mechanism is characterized by: a vacuum pump 35a attached to the air chamber 31 via a pressure-reducing solenoid valve 32a; an air filter 35b attached to the air chamber 31 via an ambient-air solenoid valve 32b so as to communicate with ambient air; and a pressurizing pump 35c attached to the air chamber 31 via a pressurizing solenoid valve 32c; and pressure of the space 12a and internal pressure of the air chamber 31 are equal to each other. an inkjet portion A having a recording head 11 for applying ink to a recording medium 1 and a distribution tank 12 for supplying ink to the recording head 11; an ink supply means B having a main tank 21 for supplying ink to the distribution tank 12; and an air supply means C having an air chamber 31 communicating with a space 12a in the distribution tank 12, and a pressure adjustment mechanism provided on the air chamber 31 via a solenoid valve, wherein: the pressure adjustment mechanism is characterized by: a vacuum pump 35a attached to the air chamber 31 via a pressure-reducing solenoid valve 32a; an air filter 35b attached to the air chamber 31 via an ambient-air solenoid valve 32b so as to communicate with ambient air; and a pressurizing pump 35c attached to the air chamber 31 via a pressurizing solenoid valve 32c; and a vacuum pump 35a attached to the air chamber 31 via a pressure-reducing solenoid valve 32a; an air filter 35b attached to the air chamber 31 via an ambient-air solenoid valve 32b so as to communicate with ambient air; and a pressurizing pump 35c attached to the air chamber 31 via a pressurizing solenoid valve 32c; and pressure of the space 12a and internal pressure of the air chamber 31 are equal to each other.
A control device comprising: an interface for outputting a command value to a motor driver adapted to drive a motor; a storage portion adapted to store one or more commands for specifying a behavior of the motor driven by the motor driver; and a processing portion including a first arithmetic circuit and a second arithmetic circuit; characterized in that the first arithmetic circuit is adapted to execute a first process for successively interpreting the one or more commands stored in the storage portion and for successively calculating a parameter set which defines a function relating to calculation of the command value, and the second arithmetic circuit is adapted to execute a second process for calculating the command value based on the successively-calculated parameter set, in each predetermined control cycle, independently of the first process. an interface for outputting a command value to a motor driver adapted to drive a motor; a storage portion adapted to store one or more commands for specifying a behavior of the motor driven by the motor driver; and a processing portion including a first arithmetic circuit and a second arithmetic circuit; characterized in that the first arithmetic circuit is adapted to execute a first process for successively interpreting the one or more commands stored in the storage portion and for successively calculating a parameter set which defines a function relating to calculation of the command value, and the second arithmetic circuit is adapted to execute a second process for calculating the command value based on the successively-calculated parameter set, in each predetermined control cycle, independently of the first process.
Method to forward a packet according to predefined protocol steps in a sensor personal area network comprising data communication sensor devices (SN1, SN2, SN3, SN4, SN5,...), said method comprises - assigning a predefined compression value (cv) to a compression field (C-F) in said packet for indicating that a source network identifier of the originator of said packet being assumed equal to a destination network identifier of an intended recipient of said packet, wherein said method further comprises - assigning a predefined label switching value (lsv) to an addressing mode field (DAM-F) in said packet for indicating that said protocol steps further comprises a label switching principle that must be applied to forward said packet; and - using a source network identifier field (SNI-F) of said packet for storing and retrieving a label value for application of said label switching principle based thereon. - assigning a predefined compression value (cv) to a compression field (C-F) in said packet for indicating that a source network identifier of the originator of said packet being assumed equal to a destination network identifier of an intended recipient of said packet, wherein said method further comprises - assigning a predefined label switching value (lsv) to an addressing mode field (DAM-F) in said packet for indicating that said protocol steps further comprises a label switching principle that must be applied to forward said packet; and - using a source network identifier field (SNI-F) of said packet for storing and retrieving a label value for application of said label switching principle based thereon.
A method for providing phase synchronization to non-phase synchronized cellular base stations, comprising at least one phase synchronized cellular base station having at least one transmit antenna for transmitting a signal to a at least one non-phase synchronized cellular base station, said method comprises the step of transmitting by said at least one transmit antenna of said phased-synchronized cellular base station a beacon signal to said at least one non-phase synchronized cellular base station, included as part of said transmitted signal, said beacon signal comprising two orthogonal length-8 Walsh-Hadamard sequences, mapped on unused Resource Elements at the slots symbols where Primary and Secondary Synchronization Signals are transmitted, to be broadcasted by said at least one phase synchronized cellular base station in order to provide said phase synchronization.
A computer-implemented method for providing a digital certificate (CERT-1) to a device, comprising: - receiving (REC-DID) a device identification dataset, the device identification dataset uniquely identifying the device, - determining (DET-KCD) a key creation dataset comprising a certificate identifier (IDF-CERT-1), the certificate identifier (IDF-CERT-1) being based on the device identification dataset, wherein the key creation dataset comprises information necessary for the device to initiate the creation of the digital certificate (CERT-1), - sending (SND-KCD) the key creation dataset to the device, - receiving (REC-CCR) a certificate creation request related to a first domain name (DN-1) based on the key creation dataset from the device, wherein the first domain name (DN-1) comprises the certificate identifier (IDF-CERT-1), - sending (SND-CCR) the certificate creation request or a modified certificate creation request (CCR') to a certificate authority, - providing (PROV-CERT-1) the digital certificate (CERT-1) to the device, wherein the digital certificate (CERT-1) is a wildcard certificate based on the first domain name (DN-1) signed by the certificate authority. - receiving (REC-DID) a device identification dataset, the device identification dataset uniquely identifying the device, - determining (DET-KCD) a key creation dataset comprising a certificate identifier (IDF-CERT-1), the certificate identifier (IDF-CERT-1) being based on the device identification dataset, wherein the key creation dataset comprises information necessary for the device to initiate the creation of the digital certificate (CERT-1), - sending (SND-KCD) the key creation dataset to the device, - receiving (REC-CCR) a certificate creation request related to a first domain name (DN-1) based on the key creation dataset from the device, wherein the first domain name (DN-1) comprises the certificate identifier (IDF-CERT-1), - sending (SND-CCR) the certificate creation request or a modified certificate creation request (CCR') to a certificate authority, - providing (PROV-CERT-1) the digital certificate (CERT-1) to the device, - sending (SND-CCR) the certificate creation request or a modified certificate creation request (CCR') to a certificate authority, - providing (PROV-CERT-1) the digital certificate (CERT-1) to the device, wherein the digital certificate (CERT-1) is a wildcard certificate based on the first domain name (DN-1) signed by the certificate authority.
An implantable medical device configured to provide for an intracardiac function, the implantable medical device comprising: a body; a sensor arrangement arranged on the body and configured to receive a cardiac sense signal; and a processing circuitry operatively connected to the sensor arrangement, wherein the processing circuitry is configured to process the cardiac sense signal received using the sensor arrangement to monitor the cardiac sense signal to detect whether a start criterion is fulfilled, wherein the start criterion is fulfilled if at least one signal sample (s(i-3)...s(i+3)) of the cardiac sense signal is smaller than a start threshold; and to start an atrial detection window (T sense) for detecting, within the atrial detection window (T sense), a signal deflection of the cardiac sense signal potentially indicative of an atrial event (As), based on whether said start criterion is fulfilled. a body; a sensor arrangement arranged on the body and configured to receive a cardiac sense signal; and a processing circuitry operatively connected to the sensor arrangement, wherein the processing circuitry is configured to process the cardiac sense signal received using the sensor arrangement to monitor the cardiac sense signal to detect whether a start criterion is fulfilled, wherein the start criterion is fulfilled if at least one signal sample (s(i-3)...s(i+3)) of the cardiac sense signal is smaller than a start threshold; and to start an atrial detection window (T sense) for detecting, within the atrial detection window (T sense), a signal deflection of the cardiac sense signal potentially indicative of an atrial event (As), based on whether said start criterion is fulfilled. to monitor the cardiac sense signal to detect whether a start criterion is fulfilled, wherein the start criterion is fulfilled if at least one signal sample (s(i-3)...s(i+3)) of the cardiac sense signal is smaller than a start threshold; and to start an atrial detection window (T sense) for detecting, within the atrial detection window (T sense), a signal deflection of the cardiac sense signal potentially indicative of an atrial event (As), based on whether said start criterion is fulfilled.
Use of a sheet of composite material for the manufacture of a non-invasive immobilization element for the immobilization of a body part in a predetermined position, wherein the sheet of composite material is made from a material comprising a thermoplastic polymer containing carbon nanotubes as the fibrous reinforcing material, wherein the composite material is obtainable by - dispersing carbon nanotubes in a dispersing liquid in which the thermoplastic polymer does not dissolve; - subjecting the dispersion to an ultrasonic treatment; - adding particulate thermoplastic polymer to the dispersion and mixing the thermoplastic polymer with the dispersion of carbon nanotubes; - removing the dispersing liquid; - forming of thermoplastic polymer impregnated with carbon nanotubes to form a sheet having a thickness of 0.5 to 3.2 mm - heating the sheet to a temperature which corresponds to the melting or softening temperature of the thermoplastic polymer by applying an electric voltage to the material to heat the material in a direct manner such that the sheet is heated to a deformable sheet, - forming the element by placing the heated sheet on the body part to be immobilized or in a positive mold in such a way that the body part to be immobilized can be tightly enclosed. - dispersing carbon nanotubes in a dispersing liquid in which the thermoplastic polymer does not dissolve; - subjecting the dispersion to an ultrasonic treatment; - adding particulate thermoplastic polymer to the dispersion and mixing the thermoplastic polymer with the dispersion of carbon nanotubes; - removing the dispersing liquid; - forming of thermoplastic polymer impregnated with carbon nanotubes to form a sheet having a thickness of 0.5 to 3.2 mm - heating the sheet to a temperature which corresponds to the melting or softening temperature of the thermoplastic polymer by applying an electric voltage to the material to heat the material in a direct manner such that the sheet is heated to a deformable sheet, - forming the element by placing the heated sheet on the body part to be immobilized or in a positive mold in such a way that the body part to be immobilized can be tightly enclosed.
A quick connector coupling for forming a severable connection in a fluid line comprising: a connector body defining a through bore extending axially rearward from a male member reception end of said connector body, said connector body includes locking pads extending radially inward; a male member extending through said male member reception end of connector body and into said bore, said male member having a tubular surface and an annular upset, said upset having a diameter greater than the diameter of said tubular surface; a primary retainer to releasably secure said male member within said connector body and including spaced apart legs movable between a locked position and a released position in which the spacing between said legs is increased; characterized in that the locking pads are located and sized that - if the male member is pulled in the axially forward direction after the male member has been fully inserted into the connector body - the legs of the primary retainer will be forced axially forward to an axially forward position where said legs are located inward of said locking pads preventing said legs from moving to the released position if said male member is pulled axially forward. a connector body defining a through bore extending axially rearward from a male member reception end of said connector body, said connector body includes locking pads extending radially inward; a male member extending through said male member reception end of connector body and into said bore, said male member having a tubular surface and an annular upset, said upset having a diameter greater than the diameter of said tubular surface; a primary retainer to releasably secure said male member within said connector body and including spaced apart legs movable between a locked position and a released position in which the spacing between said legs is increased; characterized in that the locking pads are located and sized that - if the male member is pulled in the axially forward direction after the male member has been fully inserted into the connector body - the legs of the primary retainer will be forced axially forward to an axially forward position where said legs are located inward of said locking pads preventing said legs from moving to the released position if said male member is pulled axially forward.
A negative electrode active material, comprising: granulated particles, the granulated particles comprising: primary particles containing at least a silicon material and a cationic polymer; and a fluorine-based polymer. primary particles containing at least a silicon material and a cationic polymer; and a fluorine-based polymer.