mhurhangee/ep-ind-claims huggingface dataset:
A multisensor for measurement of both of the turbidity of liquid and the presence of liquid in a sensing volume, comprising: - an electronic light source and electronic light detector positioned at ends of an optical path through a channel open to receive a passage of fluid (33, 41, 48) therethrough; - at least one optical element positioned along the optical path in contact with the fluid (33, 41, 48) to change a transmission of light between the electronic light source and electronic light detector, wherein the light detector is placed at a focal plane of the at least one optical element with air within the passage, and wherein the transmission of light between the electronic light source and the electronic light detector is changed as a function of an index of refraction of the fluid (33, 41, 48) relative to material of the optical element to produce a first level of transmission of light from the electronic light source to the electronic light detector when the fluid in the passage is air and to produce a second level of transmission of light from the electronic light source to the electronic light detector when the fluid in the passage is clear water, the first level being greater than the second level; further including detection circuitry for detecting at least three levels of light transmission corresponding to the fluid in the passage being air, the fluid in the passage being water of low turbidity, and the fluid in the passage being water of high turbidity higher than the low turbidity. - an electronic light source and electronic light detector positioned at ends of an optical path through a channel open to receive a passage of fluid (33, 41, 48) therethrough; - at least one optical element positioned along the optical path in contact with the fluid (33, 41, 48) to change a transmission of light between the electronic light source and electronic light detector, wherein the light detector is placed at a focal plane of the at least one optical element with air within the passage, and wherein the transmission of light between the electronic light source and the electronic light detector is changed as a function of an index of refraction of the fluid (33, 41, 48) relative to material of the optical element to produce a first level of transmission of light from the electronic light source to the electronic light detector when the fluid in the passage is air and to produce a second level of transmission of light from the electronic light source to the electronic light detector when the fluid in the passage is clear water, the first level being greater than the second level; further including detection circuitry for detecting at least three levels of light transmission corresponding to the fluid in the passage being air, the fluid in the passage being water of low turbidity, and the fluid in the passage being water of high turbidity higher than the low turbidity.
Housing for an electrical machine, wherein the housing has an inner wall and an outer wall, wherein the inner wall and the outer wall are arranged concentrically with each other and are spaced apart from each other, wherein between the inner wall and the outer wall, a cavity bounded in a radial direction by the inner wall and the outer wall is formed for the fluid cooling of the electrical machine, the cavity having channels spaced apart in the circumferential direction, the housing having an inlet for introducing cooling fluid and an outlet for discharging the cooling fluid, wherein, seen in the flow direction between the inlet and the outlet, a connection region (20, 201, 202) is formed in each case between adjacent channels for guiding the cooling fluid between the adjacent channels, and wherein the connection regions are arranged alternately on opposite axial ends of the housing so that the cavity for fluid cooling is designed meandering, characterized in that an additional connection region (201, 202) is arranged in the housing, wherein the additional connection region (201, 202) connects the channels which are adjacent to the inlet and the outlet, and that the additional connection region (201, 202) has a smaller cross-section than the connecting regions and includes a groove in an end face of the housing or two intersecting and thus fluidically connected holes which are drilled diagonally from the adjacent channels.
Method for protecting passive components (14, 53, 54) which are connected to a high-frequency generator (11, 11.1, 51, 52), the method comprising the following steps: a. generating a high-frequency power at a fundamental frequency by means of the high-frequency generator (11, 11.1, 51, 52); b. transmitting the high-frequency power to a load by a high-frequency cable (14, 53, 54); c. determining a variable d. comparing the determined variable with a reference variable; e. adjusting the high-frequency power, generated by the high-frequency generator (11, 11.1, 51, 52) at the fundamental frequency, on the basis of the comparison result, characterised in that the variable is a variable related to the high frequency load of at least one passive component connected to the high frequency generator (11, 11.1, 51, 52), and in that the reference variable is a reference variable which describes the maximum load on at least one connected passive component. a. generating a high-frequency power at a fundamental frequency by means of the high-frequency generator (11, 11.1, 51, 52); b. transmitting the high-frequency power to a load by a high-frequency cable (14, 53, 54); c. determining a variable d. comparing the determined variable with a reference variable; e. adjusting the high-frequency power, generated by the high-frequency generator (11, 11.1, 51, 52) at the fundamental frequency, on the basis of the comparison result,
Module comprising a mechanical and electrical lock for a terminal module, wherein an interengaging arresting apparatus is arranged on the module and on the terminal module and is designed in such a way that three different contact-making states can be implemented between the module and the terminal module, wherein the arresting apparatus is formed on the module as a shaft which, at a first end, can be made to execute a rotary movement by means of a rotary knob and which, at the second end, has a locking pin, characterized in that the arresting apparatus is in the form of a sliding groove on the terminal module, it being possible for the shaft, including the locking pin, to be moved from a first position to a second position by means of the said sliding groove, and wherein the terminal module is in the form of a rail from which two insertion contours which are arranged parallel to one another and are at a distance from one another are arranged, wherein a slotted guide is arranged between the insertion contours, the sliding groove being located on the inside of the said slotted guide.
A tyre for a motorcycle for rough terrain comprising a tread portion, wherein in a region between at least one of tread edges (Te) of the tread portion and a tyre equator (c), the tread portion is provided with a plurality of middle blocks arranged between the tyre equator and the one of the tread edges (Te), a plurality of shoulder blocks arranged on an outer side in a tyre axial direction of the middle blocks, and tie bars each connecting between one of the middle blocks and its adjacent one of the shoulder blocks, the plurality of the shoulder blocks include first shoulder blocks whose outer ends in the tyre axial direction of ground contacting surfaces thereof form the one of the tread edges (Te) and second shoulder blocks whose outer ends in the tyre axial direction of ground contacting surfaces thereof arranged on an inner side in the tyre axial direction of the one of the tread edges (Te), and the tie bars include first tie bars each connecting between one of the middle blocks and its adjacent one of the first shoulder blocks and second tie bars each connecting between one of the middle blocks and its adjacent one of the second shoulder blocks, characterized in that each of the first tie bars and the second tie bars has a connecting portion with a respective one of the middle blocks, and a width (w2a) of the connecting portion of each of the second tie bars is larger than a width of the connecting portion of each of the first tie bars. each of the first tie bars and the second tie bars has a connecting portion with a respective one of the middle blocks, and a width (w2a) of the connecting portion of each of the second tie bars is larger than a width of the connecting portion of each of the first tie bars.
Fixing device for an air-tight covering in a bore in a projectile with the covering, a tracer (2, 3) or other components being located in the bore in the rear part of the projectile, characterized by • the projectile having a grooved contour in the rear part, • the covering being implemented as a covering ring which fixes a covering disc of the covering in the rear part, • a plunger as part of the fixing device, wherein • the plunger has a specific external contour which is matched to the grooved contour of the body of the projectile or vice versa, • the plunger, in a forward movement or in an axial movement, forces the radially reshaped material of the covering ring into the grooved contour of the body of the projectile. • the projectile having a grooved contour in the rear part, • the covering being implemented as a covering ring which fixes a covering disc of the covering in the rear part, • a plunger as part of the fixing device, wherein • the plunger has a specific external contour which is matched to the grooved contour of the body of the projectile or vice versa, • the plunger, in a forward movement or in an axial movement, forces the radially reshaped material of the covering ring into the grooved contour of the body of the projectile.
An active implantable medical device for treatment of heart failure by stimulation of the vagus nerve, VNS, synchronous with the heart activity, comprising: - a generator, adapted to produce bursts of VNS pulses; - heart rhythm analysis means, adapted to collect a signal representative of the heart electrical activity and to determine the duration of successive heart cycles; and - VNS sequencing means, adapted to determine a time of application of a burst of VNS pulses by the generator; the device being characterized in that the VNS sequencing means comprise: - estimator means, adapted to calculate during a given cycle an estimate (R prev) of the time position of the wave R of the following cycle; and - means for defining the time (T VNS) of application of the burst of VNS pulses as being a time corresponding to the calculated estimate of the time position of the wave R, anticipated by an estimated advance delay (Δ VNS). - a generator, adapted to produce bursts of VNS pulses; - heart rhythm analysis means, adapted to collect a signal representative of the heart electrical activity and to determine the duration of successive heart cycles; and - VNS sequencing means, adapted to determine a time of application of a burst of VNS pulses by the generator; - estimator means, adapted to calculate during a given cycle an estimate (R prev) of the time position of the wave R of the following cycle; and - means for defining the time (T VNS) of application of the burst of VNS pulses as being a time corresponding to the calculated estimate of the time position of the wave R, anticipated by an estimated advance delay (Δ VNS).
A surface mount security barrier, the barrier comprising: a non-metallic matrix supporting and substantially encapsulating metallic ballast, wherein said security barrier has a mass in excess of 6 tonnes and a ratio of metallic ballast to non-metallic matrix in excess of 1.5:1 by mass. a non-metallic matrix supporting and substantially encapsulating metallic ballast, wherein said security barrier has a mass in excess of 6 tonnes and a ratio of metallic ballast to non-metallic matrix in excess of 1.5:1 by mass.
A time-to-digital converter (300, 400) comprising: • a time register (305, 405) configured to receive a time-domain input signal (302, 403), wherein the digital-to-time converter (309, 409) is configured to provide a feed-back signal at a first node (308, 408) coupled to the time register (305, 405); • a time quantizer (307, 407) coupled to the time register (305, 405) for providing a digital output signal Dout (306, 406); and a digital-to-time converter (309, 409) coupled the time register (305, 405) for delaying an output signal of the time register (305, 405) in response to the digital output signal Dout ((306, 406). • a time register (305, 405) configured to receive a time-domain input signal (302, 403), wherein the digital-to-time converter (309, 409) is configured to provide a feed-back signal at a first node (308, 408) coupled to the time register (305, 405); • a time quantizer (307, 407) coupled to the time register (305, 405) for providing a digital output signal Dout (306, 406); and a digital-to-time converter (309, 409) coupled the time register (305, 405) for delaying an output signal of the time register (305, 405) in response to the digital output signal Dout ((306, 406).
A power supply system for driving a vehicle, comprising: a secondary battery; a voltage converter boosting a voltage of said secondary battery; a capacitor to which the voltage boosted by said voltage converter is applied across electrodes, characterized in that the power supply system further comprises a voltage sensor measuring a voltage of said capacitor; a first connecting portion (C-SMRP, C-SMRG) between said capacitor and an output of said voltage converter for connection and disconnection between said capacitor and said voltage converter; and a control device controlling said voltage converter and said first connecting portion, said control device, after giving an instruction for disconnection to said first connecting portion, causes said voltage converter to change a voltage of the output to determine whether said first connecting portion is normally disconnected based on the output of the voltage sensor. a secondary battery; a voltage converter boosting a voltage of said secondary battery; a capacitor to which the voltage boosted by said voltage converter is applied across electrodes, characterized in that the power supply system further comprises a voltage sensor measuring a voltage of said capacitor; a first connecting portion (C-SMRP, C-SMRG) between said capacitor and an output of said voltage converter for connection and disconnection between said capacitor and said voltage converter; and a control device controlling said voltage converter and said first connecting portion, said control device, after giving an instruction for disconnection to said first connecting portion, causes said voltage converter to change a voltage of the output to determine whether said first connecting portion is normally disconnected based on the output of the voltage sensor.
A method for communications in a non-geostationary orbit (NGSO) satellite network, comprising: identifying by a first NGSO satellite that an internet point of presence is not available in at least one of a plurality of beams (112, 114, 116) associated with the first NGSO satellite; receiving data at a relay node from the first NGSO satellite of the NGSO satellite network based on the identifying, wherein the relay node is located at a boundary or a common beam area associated with the first satellite and a second satellite of the NGSO satellite network; and relaying the data from the relay node to the second NGSO satellite of the NGSO satellite network, wherein an IPP is available in at least one of a plurality of beams associated with the second NGSO satellite. identifying by a first NGSO satellite that an internet point of presence is not available in at least one of a plurality of beams (112, 114, 116) associated with the first NGSO satellite; receiving data at a relay node from the first NGSO satellite of the NGSO satellite network based on the identifying, wherein the relay node is located at a boundary or a common beam area associated with the first satellite and a second satellite of the NGSO satellite network; and relaying the data from the relay node to the second NGSO satellite of the NGSO satellite network, wherein an IPP is available in at least one of a plurality of beams associated with the second NGSO satellite.
An injector device (100; 100a; 100b; 100c; 100d), comprising access means (110, 115) configured to selectively allow and prevent a cartridge from being removed from the injector device (100; 100a; 100b; 100c; 100d), characterized by a self-test unit configured to cause a self-test of at least one of an electronic component and an electronic assembly of the injector device (100; 100a; 100b; 100c; 100d); and a control unit configured to control the access means to allow the cartridge to be removed from the injector device (100; 100a; 100b; 100c; 100d) in case the self-test has failed, wherein the control unit is configured to control the access means to cause a door or a shutter of the injector device (100; 100a; 100b; 100c; 100d) to automatically open so that the cartridge may be removed from the injector device (100; 100a; 100b; 100c; 100d) in case the self-test has failed.
Method for optically measuring at least the stability and the aggregation of particles in a liquid sample, which is in a sample container, wherein the method comprises the following steps: resting the sample container on a tempering element, wherein the sample container is tempered by means of a tempering element, irradiating the sample with light of at least a first wavelength, to fluorescently excite the particles, irradiating the sample with light of at least a second wavelength to examine the scattering of the particles, measuring the fluorescence light emitted by the sample; and measuring the extinction light at the second wavelength, wherein the irradiated light of the second wavelength runs through the sample container, is reflected back, runs again through the sample container in opposite direction and exits as extinction light, wherein the stability is measured on the basis of the measured fluorescence light and the aggregation on the basis of the measured extinction light. resting the sample container on a tempering element, wherein the sample container is tempered by means of a tempering element, irradiating the sample with light of at least a first wavelength, to fluorescently excite the particles, irradiating the sample with light of at least a second wavelength to examine the scattering of the particles, measuring the fluorescence light emitted by the sample; and measuring the extinction light at the second wavelength, wherein the irradiated light of the second wavelength runs through the sample container, is reflected back, runs again through the sample container in opposite direction and exits as extinction light, wherein the stability is measured on the basis of the measured fluorescence light and the aggregation on the basis of the measured extinction light.
A gas purifier (105, 105a, 105b) for an electrolytic generator (101, 201), comprising a collection tank and a purification inlet for supplying a two-phase fluid comprising said gas to be purified into said collection tank, characterized in that it further comprises a plurality of washing dishes and a sprinkler adapted to distribute washing liquid onto said plurality of washing dishes, and that it further comprises a recondenser comprising at least one heat exchanger in which a refrigerating fluid circulates, and in that it further comprises a purification outlet adapted to convey a flow of said gas to be purified through said plurality of washing dishes and said at least one recondenser.
A magnetic field direction detector arranged for detecting whether a magnetic flux has a component of field from a first side or a second side of a detection axis; the magnetic field direction detector comprising: a first magneto-resistive sensor and a second magneto-resistive sensor; and characterized by a perturbation generator; wherein the perturbation generator is arranged to cause an external magnetic field to be perturbed so as to cause the apparent direction of flux to change by an angle θ 1 at the first magneto-resistive sensor; and wherein the perturbation generator is arranged to cause the apparent direction of flux to change by an angle θ 2 at the second magneto-resistive sensor such that the relative resistances of the first and second magneto-resistive sensors vary with respect to one another. a first magneto-resistive sensor and a second magneto-resistive sensor; and characterized by a perturbation generator; wherein the perturbation generator is arranged to cause an external magnetic field to be perturbed so as to cause the apparent direction of flux to change by an angle θ 1 at the first magneto-resistive sensor; and wherein the perturbation generator is arranged to cause the apparent direction of flux to change by an angle θ 2 at the second magneto-resistive sensor such that the relative resistances of the first and second magneto-resistive sensors vary with respect to one another.
A data transmission method, comprising: determining a first sending rate based on a network performance objective of first data and a status of a first transmission control protocol TCP connection, wherein the first TCP connection is used to send the first data; and sending the first data based on the first sending rate, wherein the determining the first sending rate based on the network performance objective of first data and the status of the first TCP connection comprises: determining the first sending rate based on the network performance objective of the first data, the status of the first TCP connection, and a first global measurement value, wherein the first global measurement value is a measurement value of one or more TCP connections corresponding to a transmit end, and wherein the global measurement value comprises one or more of the following: log(goodput of the transmit end/maximum goodput of the transmit end), and log(minimum RTT of the one or more TCP connections of the transmit end/smoothed value of a round trip time RTT of the one or more TCP connections of the transmit end). determining a first sending rate based on a network performance objective of first data and a status of a first transmission control protocol TCP connection, wherein the first TCP connection is used to send the first data; and sending the first data based on the first sending rate, wherein the determining the first sending rate based on the network performance objective of first data and the status of the first TCP connection comprises: determining the first sending rate based on the network performance objective of the first data, the status of the first TCP connection, and a first global measurement value, wherein the first global measurement value is a measurement value of one or more TCP connections corresponding to a transmit end, and wherein the global measurement value comprises one or more of the following: log(goodput of the transmit end/maximum goodput of the transmit end), and log(minimum RTT of the one or more TCP connections of the transmit end/smoothed value of a round trip time RTT of the one or more TCP connections of the transmit end). determining the first sending rate based on the network performance objective of the first data, the status of the first TCP connection, and a first global measurement value, wherein the first global measurement value is a measurement value of one or more TCP connections corresponding to a transmit end, and wherein the global measurement value comprises one or more of the following: log(goodput of the transmit end/maximum goodput of the transmit end), and log(minimum RTT of the one or more TCP connections of the transmit end/smoothed value of a round trip time RTT of the one or more TCP connections of the transmit end).
Composition for dermatologic or cosmetic use, comprising a mixture of Bacillus subtilis, Bacillus licheniformis, Bacillus megaterium and Bacillus amyloliquefaciens spores with a prebiotic sugar.