mhurhangee/patent-ind-claim-en huggingface dataset:
A method of amplification and identification of the nucleic acid sequence(s) in a sample by sequencing, comprising the steps of: (a) placing the sample in a first-stage amplification chamber, wherein the first-stage amplification chamber is configured for amplifying a plurality of individual nucleic acids that may be present in the sample; (b) subjecting the first-stage amplification chamber to amplification conditions; (c) moving the sample to an array of second-stage amplification wells, each second-stage amplification well configured for further amplifying one individual nucleic acid that may be present in the sample, such that a portion of the sample is moved to each of the second-stage amplification wells; (d) performing second-stage amplification in the second-stage amplification wells to generate an amplicon in each second-stage amplification well if the individual nucleic acid is present in the sample; and (e) directly sequencing the sample in at least one second-stage amplification well. (a) placing the sample in a first-stage amplification chamber, wherein the first-stage amplification chamber is configured for amplifying a plurality of individual nucleic acids that may be present in the sample; (b) subjecting the first-stage amplification chamber to amplification conditions; (c) moving the sample to an array of second-stage amplification wells, each second-stage amplification well configured for further amplifying one individual nucleic acid that may be present in the sample, such that a portion of the sample is moved to each of the second-stage amplification wells; (d) performing second-stage amplification in the second-stage amplification wells to generate an amplicon in each second-stage amplification well if the individual nucleic acid is present in the sample; and (e) directly sequencing the sample in at least one second-stage amplification well.
A process for obtaining an extract from peach flower (Prunus persica L.) comprising: (i) adding water to peach flower to make a mixture, (ii) agitating the said mixture for 2 hours by maintaining temperature from RT to 50°C. (iii) filtering the mixture to remove the solid flower part to obtain the extract. (iv) pasteurizing the extract overnight at a temperature of 65°C. (i) adding water to peach flower to make a mixture, (ii) agitating the said mixture for 2 hours by maintaining temperature from RT to 50°C. (iii) filtering the mixture to remove the solid flower part to obtain the extract. (iv) pasteurizing the extract overnight at a temperature of 65°C.
Tyre having a radial carcass reinforcement comprising a crown reinforcement formed of at least two working crown layers of reinforcing elements , a layer (C) of rubber compound being arranged between at least the ends of said at least two working crown layers , said crown reinforcement being capped radially with a tread , said tread being joined to two beads via two sidewalls, the crown reinforcement comprising at least one layer of circumferential reinforcing elements , said tread comprising a tread surface intended to come into contact with a road surface and form a contact surface, the distance d between the end of the axially narrowest working layer and the working layer separated from the axially narrowest working layer by the layer (C) of rubber compound being such that 1.10 < d < 2.2ø, ø being the diameter of the reinforcing elements of said at least one layer of circumferential reinforcing elements , in a meridian plane, and the thickness of the layer (C) of rubber compound being substantially constant over the axial width between the axially inner end of the layer (C) and the end of the axially narrowest working layer , characterized in that said tread is constituted of at least one central part extending at least in the region of the equatorial plane and two axially exterior parts and has, at least in said central part, at least one longitudinally-oriented cut , in that the depth, measured on a new tyre in at least said central part, of said at least one longitudinally-oriented cut is greater than or equal to 40% of the thickness of the tread, and in that the ratio of the width (D f ) measured at the bottom of said at least one longitudinally-oriented cut to the width (d S ) measured at the surface of the tread on a new tyre of said at least one longitudinally-oriented cut is greater than 2.
Device for producing food brochettes, characterized in that it comprises at least one mechanical assembly comprising: - a mold and - a counter-mold equipped with a tamping assembly comprised of: a rack holder holding a tamping rack , a locking bolt for locking the rack holder, a means for locking the tamping and rack holder and the tamping assembly incorporated in the counter-mold making it possible to size and adjust the level of tamping and to hold the foodstuffs during the skewering; and - a holder for skewers . - a mold and - a counter-mold equipped with a tamping assembly comprised of: a rack holder holding a tamping rack , a locking bolt for locking the rack holder, a means for locking the tamping and rack holder and the tamping assembly incorporated in the counter-mold making it possible to size and adjust the level of tamping and to hold the foodstuffs during the skewering; and a rack holder holding a tamping rack , a locking bolt for locking the rack holder, a means for locking the tamping and rack holder and the tamping assembly incorporated in the counter-mold making it possible to size and adjust the level of tamping and to hold the foodstuffs during the skewering; and - a holder for skewers .
A method for providing a channel response, h, of a channel of interest comprising the steps of: (a) Receiving (S1) a channel modified signal in response to a sensing signal, transmitted through said channel of interest ; (b) Performing (S2) different first order channel estimations on the received channel modified signal to calculate first order channel estimates, ĥ , of the channel response, h, of said channel of interest without performing a matrix inversion; and (c) Combining (S3) the calculated first order channel estimates, ĥ , to calculate the channel response, h, of said channel of interest , wherein a linear combination of the first order channel estimates, ĥ , is calculated using weight factors, α, to provide the channel response, h, of said channel of interest . (a) Receiving (S1) a channel modified signal in response to a sensing signal, transmitted through said channel of interest ; (b) Performing (S2) different first order channel estimations on the received channel modified signal to calculate first order channel estimates, ĥ , of the channel response, h, of said channel of interest without performing a matrix inversion; and (c) Combining (S3) the calculated first order channel estimates, ĥ , to calculate the channel response, h, of said channel of interest , wherein a linear combination of the first order channel estimates, ĥ , is calculated using weight factors, α, to provide the channel response, h, of said channel of interest .
An oral pharmaceutical composition comprising an enteric soft capsule encapsulating monomethyl fumarate suspended in a one-phase controlled release liquid matrix comprising a lipid or lipophilic vehicle.
A method for operating a virtual assistant, the method comprising: at an electronic device: receiving , at the electronic device, an audio input comprising user speech, wherein the audio input is associated with a contextual data, the contextual data including a location where the audio input was received and/or a time that the audio input was received; performing speech-to-text conversion on the audio input and determining whether the user speech contains one or more predetermined words; and in response to determining that the user speech contains one or more predetermined words: determining whether a speaker of the user speech is a predetermined user based at least in part on a speaker profile for the predetermined user; and in accordance with a determination that the speaker of the user speech is the predetermined user, adding the audio input comprising user speech to the speaker profile for the predetermined user, wherein adding the audio input comprising user speech to the speaker profile includes generating a voice print from the audio input and storing the voice print in association with the speaker profile and annotating the stored voice print with the contextual data. receiving , at the electronic device, an audio input comprising user speech, wherein the audio input is associated with a contextual data, the contextual data including a location where the audio input was received and/or a time that the audio input was received; performing speech-to-text conversion on the audio input and determining whether the user speech contains one or more predetermined words; and in response to determining that the user speech contains one or more predetermined words: determining whether a speaker of the user speech is a predetermined user based at least in part on a speaker profile for the predetermined user; and in accordance with a determination that the speaker of the user speech is the predetermined user, adding the audio input comprising user speech to the speaker profile for the predetermined user, wherein adding the audio input comprising user speech to the speaker profile includes generating a voice print from the audio input and storing the voice print in association with the speaker profile and annotating the stored voice print with the contextual data. determining whether a speaker of the user speech is a predetermined user based at least in part on a speaker profile for the predetermined user; and in accordance with a determination that the speaker of the user speech is the predetermined user, adding the audio input comprising user speech to the speaker profile for the predetermined user, wherein adding the audio input comprising user speech to the speaker profile includes generating a voice print from the audio input and storing the voice print in association with the speaker profile and annotating the stored voice print with the contextual data.
A filter assembly comprising a housing defining an interior region and exterior region , the interior region and the exterior region being in communication through a first aperture and a second aperture ; a filter adapted for filtering an aqueous urea solution, the filter within the housing , the filter separating the housing into an upstream region upstream of the filter , the upstream region communicating with the second aperture and a downstream region downstream of the filter , the downstream region communicating with the first aperture ; a heater extending into the interior region of the housing ; a first hose fitting communicating with the first aperture , the first hose fitting formed of a material having a thermal conductivity of at least 16 W/(m*K); a second hose fitting communicating with the second aperture the second hose fitting formed of material having a thermal conductivity of at least 16 W/(m*K); a heat bridge formed of a conductive material having a thermal conductivity of at least 16 W/(m*K), thermally connecting the heater to the first hose fitting and thermally connecting the heater to the second hose fitting ; and a first insulator formed of a material having a thermal conductivity of at most 0.25 W/(m*K), the first insulator at least partially covering the first hose fitting ; and a second insulator formed of a material having a thermal conductivity of at most 0.25 W/(m*K), the second insulator at least partially covering the second hose fitting . formed of a conductive material having a thermal conductivity of at least 16 W/(m*K), thermally connecting the heater to the first hose fitting and thermally connecting the heater to the second hose fitting ; formed of a material having a thermal conductivity of at most 0.25 W/(m*K), the first insulator at least partially covering the first hose fitting ; and
A pool cleaner comprising: a drive mechanism for moving the pool cleaner; a housing that has a first fluid opening and a second fluid opening; a filtering unit that comprises a filter enclosure and a filtering element; and a fluid flow mechanism for inducing a flow of fluid through the filtering unit in a first direction during a filtering process; wherein the fluid flow mechanism comprises: multiple fluid flow control elements that surround the filtering unit and are configured to direct fluid towards sidewalls of the filtering unit during a backwash process; characterized in that the pool cleaner further comprises a scanning mechanism that is configured to lower and elevate the multiple fluid flow control elements in relation to the filtering element during the backwash process. a drive mechanism for moving the pool cleaner; a housing that has a first fluid opening and a second fluid opening; a filtering unit that comprises a filter enclosure and a filtering element; and a fluid flow mechanism for inducing a flow of fluid through the filtering unit in a first direction during a filtering process; wherein the fluid flow mechanism comprises: multiple fluid flow control elements that surround the filtering unit and are configured to direct fluid towards sidewalls of the filtering unit during a backwash process; characterized in that the pool cleaner further comprises a scanning mechanism that is configured to lower and elevate the multiple fluid flow control elements in relation to the filtering element during the backwash process. multiple fluid flow control elements that surround the filtering unit and are configured to direct fluid towards sidewalls of the filtering unit during a backwash process; characterized in that the pool cleaner further comprises a scanning mechanism that is configured to lower and elevate the multiple fluid flow control elements in relation to the filtering element during the backwash process.
A sample cell for a respired gas sensor, the sample cell comprising: a single-piece injection molded main body defining a gas flow path including (i) an optical sampling bore with opposite inlet and outlet ends, (ii) a gas inlet lumen connected with the inlet end of the optical sampling bore, and (iii) a gas outlet lumen connected with the outlet end of the optical sampling bore, wherein the optical sampling bore defines an optical axis , and the gas inlet lumen and the gas outlet lumen are parallel to each other and are both orthogonal to the optical axis; an inlet optical window attached to the single-piece injection molded main body and covering the inlet end of the optical sampling bore, the inlet optical window being oriented transverse to the optical axis; and an outlet optical window attached to the single-piece injection molded main body and covering the outlet end of the optical sampling bore, the outlet optical window being oriented transverse to the optical axis. a single-piece injection molded main body defining a gas flow path including (i) an optical sampling bore with opposite inlet and outlet ends, (ii) a gas inlet lumen connected with the inlet end of the optical sampling bore, and (iii) a gas outlet lumen connected with the outlet end of the optical sampling bore, wherein the optical sampling bore defines an optical axis , and the gas inlet lumen and the gas outlet lumen are parallel to each other and are both orthogonal to the optical axis; an inlet optical window attached to the single-piece injection molded main body and covering the inlet end of the optical sampling bore, the inlet optical window being oriented transverse to the optical axis; and an outlet optical window attached to the single-piece injection molded main body and covering the outlet end of the optical sampling bore, the outlet optical window being oriented transverse to the optical axis.
A device with a rotating magnet, characterized by comprising a vertically driven revolving axle positioned along a vertical axis and rotatable in a horizontal plane, wherein the vertically driven revolving axle is connected to a motor , a upper end of the vertically driven revolving axle is connected to a gear set , the gear set meshes with a driving gear , a base revolving plate is fixed on an upper portion of the driving gear , and a magnetic assembly is installed on the base revolving plate .
A contact sensor for monitoring activity at a body surface, comprising: a body contacting layer of knitted fabric having a body surface contacting area; and a base layer of knitted fabric, wherein the stitch density of the body contacting layer is higher than that of the base layer and wherein the base layer is knitted with native threads of a first thickness , characterized in that the base layer is knitted with extra thread introduced to the base layer during the knitting process to form a localized area that has a second thickness greater than the first thickness and the localized area is congruent with the body surface contacting area of the body contacting layer such as to urge the body contacting layer into the forming of a raised outer surface for projection against a body surface. a body contacting layer of knitted fabric having a body surface contacting area; and a base layer of knitted fabric, wherein the stitch density of the body contacting layer is higher than that of the base layer and wherein the base layer is knitted with native threads of a first thickness , characterized in that the base layer is knitted with extra thread introduced to the base layer during the knitting process to form a localized area that has a second thickness greater than the first thickness and the localized area is congruent with the body surface contacting area of the body contacting layer such as to urge the body contacting layer into the forming of a raised outer surface for projection against a body surface.
A route generation method being executed by a route generation device comprising a route generation processor, the method comprising the following steps: generating a plurality of work routes (R1) where a work vehicle travels straight in a first direction (Da) that is a travel direction of the work vehicle , in a work area (F1) where a work object (V) is arranged; generating a first movement route (R3) that is a route continuous with each of the work routes (R1) and that includes a straight route (R3b) where the work vehicle travels straight, in a first non-work area (Fa) adjacent to the work area (F1) in the first direction, in non-work areas surrounding the work area (F1), where the work object (V) is not arranged; and generating a second movement route (R4) that is a single route continuous with the first movement route (R3) and that guides the work vehicle to each of the plurality of work routes (R1). generating a plurality of work routes (R1) where a work vehicle travels straight in a first direction (Da) that is a travel direction of the work vehicle , in a work area (F1) where a work object (V) is arranged; generating a first movement route (R3) that is a route continuous with each of the work routes (R1) and that includes a straight route (R3b) where the work vehicle travels straight, in a first non-work area (Fa) adjacent to the work area (F1) in the first direction, in non-work areas surrounding the work area (F1), where the work object (V) is not arranged; and generating a second movement route (R4) that is a single route continuous with the first movement route (R3) and that guides the work vehicle to each of the plurality of work routes (R1).
A system for cryogenically treating a nerve, the system_comprising: a probe body ; an elongated probe having a cryogenic treating portion and a blunt distal tip ; and a cryogen supply tube extending within the elongated probe from a proximal end of the elongated probe to the cryogenic treating portion, wherein the elongated probe and cryogen supply tube are configured to resiliently bend and the elongated probe is configured to laterally traverse along a fascia layer adjacent to the nerve when the elongated probe is inserted into an access site laterally displaced from the nerve, and wherein the cryogenic treating portion configured to receive a cryogen from the cryogen supply tube and cause a therapeutic effect in the nerve when the cryogenic treating portion is positioned adjacent to the nerve, characterised by a hub connector detachably coupled to the probe body, whereby said elongated probe extends from said hub connector , whereby said blunt distal tip is configured to bluntly dissect the fascia layer so as to position the cryogenic treating portion of the elongated probe adjacent to the nerve. a probe body ; an elongated probe having a cryogenic treating portion and a blunt distal tip ; and a cryogen supply tube extending within the elongated probe from a proximal end of the elongated probe to the cryogenic treating portion, wherein the elongated probe and cryogen supply tube are configured to resiliently bend and the elongated probe is configured to laterally traverse along a fascia layer adjacent to the nerve when the elongated probe is inserted into an access site laterally displaced from the nerve, and wherein the cryogenic treating portion configured to receive a cryogen from the cryogen supply tube and cause a therapeutic effect in the nerve when the cryogenic treating portion is positioned adjacent to the nerve, characterised by a hub connector detachably coupled to the probe body, whereby said elongated probe extends from said hub connector , whereby said blunt distal tip is configured to bluntly dissect the fascia layer so as to position the cryogenic treating portion of the elongated probe adjacent to the nerve.
A method for processing signals of active sensor systems to prevent emulating or tempering reflections of the signals by a malicious entity, said method being implemented by a monitoring device and involving the steps of: processing a signal emitted by an active sensor system to include at least one distinguishing feature in the signal, wherein the active sensor system comprises a receiver adapted to intercept at least a portion of the emitted signal or of a reflection of the emitted signal, and to analyze the reflection of the emitted signal for determining at least one parameter of at least one object located in a space; decoding or demodulating, and analyzing at least the intercepted portion to identify when the at least one distinguishing feature is present in the at least the intercepted portion; classifying the signal as an unverified signal when the distinguishing feature is identified as not present in the intercepted signal; and as a response to identification of the presence of the at least one distinguishing feature in the decoded or demodulated signal, processing the reflection of the emitted signal as a verified signal. processing a signal emitted by an active sensor system to include at least one distinguishing feature in the signal, wherein the active sensor system comprises a receiver adapted to intercept at least a portion of the emitted signal or of a reflection of the emitted signal, and to analyze the reflection of the emitted signal for determining at least one parameter of at least one object located in a space; decoding or demodulating, and analyzing at least the intercepted portion to identify when the at least one distinguishing feature is present in the at least the intercepted portion; classifying the signal as an unverified signal when the distinguishing feature is identified as not present in the intercepted signal; and as a response to identification of the presence of the at least one distinguishing feature in the decoded or demodulated signal, processing the reflection of the emitted signal as a verified signal.