mhurhangee/patent-ind-claim-en huggingface dataset:
A kit for determining the receptivity status of an endometrium comprising means for quantifying the expression of the following genes: AREG, ATP5B, CAPN6, CIR1, CMTM5, CTNNA2, CXCL6, FOXP3, HBA1, HBG1, HMBS, HOXB7, IL1R1, IL4, IL5, ITGB1, MAPK1, NFKBIA, PGRMC1, PLA2G4A, RHOA, SDHA, SERPIN1, wherein said kit comprises means for quantifying the expression of up to 100 genes, preferably up to 48 genes.
A diagnostic apparatus for switching device to diagnose whether an anomaly occurs in a switching device including an operation shaft that opens and closes a contact , the diagnostic apparatus comprising: a gradient calculation unit configured to calculate a gradient of a waveform indicating motion of the operation shaft , the waveform representing a relationship between a position of the operation shaft and a time that elapses since input of an operating command to the switching device ; and an anomaly diagnosis unit configured to extract, from a relationship between the time and the gradient calculated, a first feature value, a second feature value and a third feature value, the features values each representing a motion characteristic of the operation shaft , and to diagnose whether an anomaly occurs and a factor behind the anomaly that occurs, on the basis of a result of comparison between each of the feature values extracted and a respective preset reference value; wherein the first feature value is a value indicating the time at an inflection point where the gradient is maximum in the relationship between the time and the gradient, wherein the feature value is a value indicating the gradient at an inflection point where the gradient is maximum in the relationship between the time and the gradient, and wherein the feature value is a value indicating the time when variation of the gradient settles in the relationship between the time and the gradient. a gradient calculation unit configured to calculate a gradient of a waveform indicating motion of the operation shaft , the waveform representing a relationship between a position of the operation shaft and a time that elapses since input of an operating command to the switching device ; and an anomaly diagnosis unit configured to extract, from a relationship between the time and the gradient calculated, a first feature value, a second feature value and a third feature value, the features values each representing a motion characteristic of the operation shaft , and to diagnose whether an anomaly occurs and a factor behind the anomaly that occurs, on the basis of a result of comparison between each of the feature values extracted and a respective preset reference value; wherein the first feature value is a value indicating the time at an inflection point where the gradient is maximum in the relationship between the time and the gradient, wherein the feature value is a value indicating the gradient at an inflection point where the gradient is maximum in the relationship between the time and the gradient, and wherein the feature value is a value indicating the time when variation of the gradient settles in the relationship between the time and the gradient.
A welded structure having a TIG welded crevice structure obtained by welding, while omitting an Ar gas shield at an anti-torch side, together ferritic stainless steel sheets by TIG welding, wherein the composition of said ferritic stainless steel sheet consists of, by mass%, C: 0.002 to 0.020%, Si: 0.05 to 0.30%, Mn: 0.01 to 0.50%, Cr: 16.0 to 25.0%, Mo: 0.30 to 3.00%, Al: 0.005 to 0.150%, Ti: 0.05 to 0.30%, Nb: 0.10 to 0.50%, N: 0.002 to 0.025%, P: 0.035% or less, S: 0.0100% or less, and V: 0.05 to 1.00%, and further optionally one or more of, by mass%: Cu: 0.10 to 0.50%, Ni: 0.05 to 2.00%, Sn: 0.05 to 1.00%, Sb: 0.05 to 1.00%, Zr: 0.03 to 0.20%, and B: 0.0001 to 0.0050%; and a balance of Fe and unavoidable impurities, wherein the contents of Si, Al, and Ti satisfy formula , and wherein a bead width Wb of weld metal exposed at a back surface of said ferritic stainless steel sheet at said TIG welded part and a sheet thickness "t" of said ferritic stainless steel sheet satisfy formula : Si + 2.5 Al + 3 Ti ≤ 1.50 0 < Wb / 2 t ≤ 1.50 wherein the symbols of the elements of formula mean the mass% of content of those elements, characterized in that Nb and V in the composition of said ferritic stainless steel satisfy formula : Nb × V ≥ 0.01 wherein the symbols of the elements of formula mean the mass% of content of those elements. Cu: 0.10 to 0.50%, Ni: 0.05 to 2.00%, Sn: 0.05 to 1.00%, Sb: 0.05 to 1.00%, Zr: 0.03 to 0.20%, and B: 0.0001 to 0.0050%; and
An electronically scanned array comprising: an injection molded nose cone formed of a dielectric material and defining an axis; a plurality of radiating horns , each disposed around the axis defined by the nose cone; and a feed layer connected to each of the radiating horns, wherein: the plurality of radiating horns is embedded in the dielectric material of the nose cone; and the feed layer is configured to simultaneously activate each of the plurality of radiating horns to produce a limited scan steerable radiation pattern. an injection molded nose cone formed of a dielectric material and defining an axis; a plurality of radiating horns , each disposed around the axis defined by the nose cone; and a feed layer connected to each of the radiating horns, wherein: the plurality of radiating horns is embedded in the dielectric material of the nose cone; and the feed layer is configured to simultaneously activate each of the plurality of radiating horns to produce a limited scan steerable radiation pattern. the plurality of radiating horns is embedded in the dielectric material of the nose cone; and the feed layer is configured to simultaneously activate each of the plurality of radiating horns to produce a limited scan steerable radiation pattern.
System for detecting vehicle body damage caused to a body of a vehicle , wherein the system comprises numerous sensor devices , wherein the numerous sensor devices are arranged in connection with an exterior surface of the vehicle body , wherein the sensor devices comprises a sensor module provided with at least one acoustic sensor , and a sensor control device provided with means and/or software performing coarse pre-filtering of sensor data, and a communication device , wherein the system further comprises a data acquisition unit comprising a local communication module for communication with the sensor devices and an external communication module for communication with an external cloud or local server , characterized in that the sensor control device is provided with a database containing acoustic signatures of body damages and the sensor control device is provided with means and/or software for comparing measurements of the acoustic sensor(s) of the sensor module with the stored acoustic signatures in the database to detect damages to the body of the vehicle .
A method of frequency-selective quadrature baseband coupling cancellation, the method comprising: receiving and converting radio frequency (RF) signals into an inphase (I) channel and a quadrature (Q) channel of a quadrature baseband signal; performing an estimation as to an amount of coupling between the in-phase (I) and quadrature-phase (Q) channels of the quadrature baseband signal, wherein the coupling is represented by a first coupling factor (a) from the I channel to the Q channel and a second coupling factor (b) from the Q channel to the I channel, wherein the first coupling factor (a) depends on a first resistance (R q ) from the Q channel to ground and a first capacitance (C qi ) from the I channel to the Q channel, and wherein the second coupling factor (b) depends on a second resistance (R i ) from the I channel to ground and a second capacitance (C iq ) from the Q channel to the I channel; converting the quadrature baseband signals into digital baseband signal by using an analog-to-digital (ADC) converter, wherein estimating the amount of coupling comprises: directly measuring one of the first (a) or second (b) coupling factor by disabling one of the Q channel or the I channel and measuring a ratio between output signals of the analog-to-digital (ADC) converter, wherein the direct measurement further comprises an injection of a single tone that is a representative of a wideband signal; and applying a digital compensation on the digital baseband signal based on the estimated amount of coupling. receiving and converting radio frequency (RF) signals into an inphase (I) channel and a quadrature (Q) channel of a quadrature baseband signal; performing an estimation as to an amount of coupling between the in-phase (I) and quadrature-phase (Q) channels of the quadrature baseband signal, wherein the coupling is represented by a first coupling factor (a) from the I channel to the Q channel and a second coupling factor (b) from the Q channel to the I channel, wherein the first coupling factor (a) depends on a first resistance (R q ) from the Q channel to ground and a first capacitance (C qi ) from the I channel to the Q channel, and wherein the second coupling factor (b) depends on a second resistance (R i ) from the I channel to ground and a second capacitance (C iq ) from the Q channel to the I channel; converting the quadrature baseband signals into digital baseband signal by using an analog-to-digital (ADC) converter, wherein estimating the amount of coupling comprises: directly measuring one of the first (a) or second (b) coupling factor by disabling one of the Q channel or the I channel and measuring a ratio between output signals of the analog-to-digital (ADC) converter, wherein the direct measurement further comprises an injection of a single tone that is a representative of a wideband signal; and applying a digital compensation on the digital baseband signal based on the estimated amount of coupling.
Notching equipment for a steel strip for forming notches at both edge portions of a joint in a steel-strip width direction, the joint at which a trailing end of a preceding steel strip and a leading end of a succeeding steel strip are joined to each other, the equipment comprising: a shearing device that is configured to perform shearing on both edge portions in the steel-strip width direction including the joint to form first notch; the notching equipment characterised in that it further comprises: a grinding device that is configured to grind end surfaces of both the edge portions of the joint in the steel-strip width direction to form second notch.
A device for delivering a neural stimulation therapy to an autonomic neural target of a patient, comprising: a neural stimulator configured to deliver the neural stimulation therapy to the autonomic neural target, wherein: the neural stimulation therapy includes a plurality of neural stimulation bursts; each neural stimulation burst includes a plurality of neural stimulation pulses according to programmed parameters; and successive neural stimulation bursts include the plurality of neural stimulation pulses according to the programmed parameters and are separated by a time without neural stimulation pulses; characterized in a sensor (1129; 1130) and a response extractor configured to cooperate to evaluate an evoked response to the neural stimulation bursts, wherein : the sensor is configured to sense the evoked response to the neural stimulation bursts, wherein sensing the evoked response includes sensing at least one physiological parameter affected by the neural stimulation bursts; the response extractor is configured to compare the sensed evoked response against a baseline, and determine if the evoked response substantially returns to the baseline between neural stimulation bursts. a neural stimulator configured to deliver the neural stimulation therapy to the autonomic neural target, wherein: the neural stimulation therapy includes a plurality of neural stimulation bursts; each neural stimulation burst includes a plurality of neural stimulation pulses according to programmed parameters; and successive neural stimulation bursts include the plurality of neural stimulation pulses according to the programmed parameters and are separated by a time without neural stimulation pulses; characterized in the neural stimulation therapy includes a plurality of neural stimulation bursts; each neural stimulation burst includes a plurality of neural stimulation pulses according to programmed parameters; and successive neural stimulation bursts include the plurality of neural stimulation pulses according to the programmed parameters and are separated by a time without neural stimulation pulses; characterized in a sensor (1129; 1130) and a response extractor configured to cooperate to evaluate an evoked response to the neural stimulation bursts, wherein : the sensor is configured to sense the evoked response to the neural stimulation bursts, wherein sensing the evoked response includes sensing at least one physiological parameter affected by the neural stimulation bursts; the response extractor is configured to compare the sensed evoked response against a baseline, and determine if the evoked response substantially returns to the baseline between neural stimulation bursts. the sensor is configured to sense the evoked response to the neural stimulation bursts, wherein sensing the evoked response includes sensing at least one physiological parameter affected by the neural stimulation bursts; the response extractor is configured to compare the sensed evoked response against a baseline, and determine if the evoked response substantially returns to the baseline between neural stimulation bursts.
A terminal apparatus comprising: a reception unit configured to receive information through higher layer signaling indicating two subframe sets including a first uplink subframe set and a second uplink subframe set that is different from the first uplink subframe set; a configuration unit configured to configure the first uplink subframe set and the second uplink subframe set based on the received information; a determination unit configured to determine the number of modulation coded symbols for channel state information based on a value of an offset; and a transmission unit configured to transmit the channel state information to a base station apparatus on a physical uplink shared channel in a subframe, wherein the determination unit is configured to configure a first value as the value of the offset for the subframe in a case that the subframe belongs to the first uplink subframe set, and to configure a second value as the value of the offset for the subframe in a case that the subframe belongs to the second uplink subframe set. a reception unit configured to receive information through higher layer signaling indicating two subframe sets including a first uplink subframe set and a second uplink subframe set that is different from the first uplink subframe set; a configuration unit configured to configure the first uplink subframe set and the second uplink subframe set based on the received information; a determination unit configured to determine the number of modulation coded symbols for channel state information based on a value of an offset; and a transmission unit configured to transmit the channel state information to a base station apparatus on a physical uplink shared channel in a subframe, wherein the determination unit is configured to configure a first value as the value of the offset for the subframe in a case that the subframe belongs to the first uplink subframe set, and to configure a second value as the value of the offset for the subframe in a case that the subframe belongs to the second uplink subframe set.
Ink composition for deflected continuous jet printing, liquid at ambient temperature, comprising: a) a solvent comprising, preferably constituted by, one or more organic solvent compound(s), and optionally water; b) a binder, comprising at least one binding resin; c) at least one plasticizer of said binding resin; d) at least one dye which belongs to the family of anthraquinone dyes; e) at least one or more other dye(s) and/or pigment(s) which do not belong to the family of anthraquinone dyes; said ink composition being characterized in that it comprises a dye belonging to the family of anthraquinone dyes, which is of a first color, for example blue, and another dye and/or pigment not belonging to the family of anthraquinone dyes, which is of a second color, different from the first color, for example black; preferably the dye belonging to the family of anthraquinone dyes is the dye Solvent Blue 104, and the other dye is the dye Solvent Black 3; and further being characterized in that the binder is constituted by a cellulosic resin, such as a cellulose acetobutyrate resin. a) a solvent comprising, preferably constituted by, one or more organic solvent compound(s), and optionally water; b) a binder, comprising at least one binding resin; c) at least one plasticizer of said binding resin; d) at least one dye which belongs to the family of anthraquinone dyes; e) at least one or more other dye(s) and/or pigment(s) which do not belong to the family of anthraquinone dyes;
A plate-like resin powder comprising an aromatic polyetherketone resin, wherein said plate-like resin powder has a ratio of an average thickness and an average major axis of 1/3 to 1/50 in the former/the latter determined from an electron micrograph.
A drum sputtering device comprising: a vacuum container arranged to contain particles; a tubular drum that is arranged inside the vacuum container and at least one end face of which is open; a sputtering target that is arranged inside the drum; and a rotation mechanism arranged to rotate the drum around an axis of the drum; wherein the drum sputtering device further comprises: a swing mechanism arranged to swing the drum so that, in use, one end portion and the other end portion in an axial direction of the drum are relatively vertically switched. a vacuum container arranged to contain particles; a tubular drum that is arranged inside the vacuum container and at least one end face of which is open; a sputtering target that is arranged inside the drum; and a rotation mechanism arranged to rotate the drum around an axis of the drum; wherein the drum sputtering device further comprises: a swing mechanism arranged to swing the drum so that, in use, one end portion and the other end portion in an axial direction of the drum are relatively vertically switched.
A system for refilling a vial, characterized in that it comprises: - at least a first vial (S) containing liquid and comprising a bottom at one end and an opening for removing liquid from the bottom at an opposite end, - at least one second vial (R) to be refilled with the liquid from the first vial (S), the second vial comprising a bottom at one end and a pump mounted on the vial at an opposite end, the pump being equipped with at least one venting orifice that is able to be opened or closed depending on the position of the pump, the second vial (R) being in the inverted position with the pump located below the bottom of said vial, - a filling interface (I) connecting the two vials, the interface comprising, on the one hand, at least one liquid passage (P1) arranged between the two vials for the transfer of the pressurized liquid, from the first vial (S) to the inverted second vial (R) through said at least one open venting orifice of said second vial and, on the other hand, at least one gas passage (P2) for the discharge of the gas contained in the inverted second vial (R) toward the outside of said vial. - at least a first vial (S) containing liquid and comprising a bottom at one end and an opening for removing liquid from the bottom at an opposite end, - at least one second vial (R) to be refilled with the liquid from the first vial (S), the second vial comprising a bottom at one end and a pump mounted on the vial at an opposite end, the pump being equipped with at least one venting orifice that is able to be opened or closed depending on the position of the pump, the second vial (R) being in the inverted position with the pump located below the bottom of said vial, - a filling interface (I) connecting the two vials, the interface comprising, on the one hand, at least one liquid passage (P1) arranged between the two vials for the transfer of the pressurized liquid, from the first vial (S) to the inverted second vial (R) through said at least one open venting orifice of said second vial and, on the other hand, at least one gas passage (P2) for the discharge of the gas contained in the inverted second vial (R) toward the outside of said vial.
A glittering resin composition, comprising: a polycarbonate resin that contains structural units derived from a dihydroxy compound represented by the following formula : and glittering particles in an amount of 0.1 parts by weight or more and 10 parts by weight or less per 100 parts by weight of the polycarbonate resin, wherein the glittering particles are inorganic particles (excluding metal particles) coated with a metal or a metal oxide or are metal particles; the glittering particles have an average particle diameter of from 20 μm to 100 μm; the content of the structural unit derived from the dihydroxy compound represented by formula is from 30% by mole to 90% by mole; and a retention of a weight-average molecular weight of the glittering resin composition is 90% or more of a weight-average molecular weight of the polycarbonate resin. a polycarbonate resin that contains structural units derived from a dihydroxy compound represented by the following formula : and glittering particles in an amount of 0.1 parts by weight or more and 10 parts by weight or less per 100 parts by weight of the polycarbonate resin, wherein the glittering particles are inorganic particles (excluding metal particles) coated with a metal or a metal oxide or are metal particles; the glittering particles have an average particle diameter of from 20 μm to 100 μm; the content of the structural unit derived from the dihydroxy compound represented by formula is from 30% by mole to 90% by mole; and a retention of a weight-average molecular weight of the glittering resin composition is 90% or more of a weight-average molecular weight of the polycarbonate resin.