mhurhangee/patent-ind-claim-en huggingface dataset:
A method for gas detection comprising: exposing a gas detector comprising a sensor to an environment, the sensor comprising a sensor housing , wherein the gas detector comprises: a pressure equalizing element coupled to a top surface of the sensor , wherein the pressure equalizing element comprises a first section located on a top surface of the sensor housing and one or more second sections , wherein the one or more second sections comprise one or more tabs extending from the first section and configured to extend within the housing ; and a housing , wherein the housing of the gas detector is sealed around the sensor , wherein at least a portion of the pressure equalizing element is exposed on an exterior of the housing , and wherein at least a portion of the pressure equalizing element is located within an interior of the housing ; detecting a sample gas by the sensor , wherein detecting the gas sample by the sensor comprises allowing the sample gas to enter the sensor housing via an opening , wherein the pressure equalizing element is sealed around the opening and wherein the sample gas passes through the thickness of the pressure equalizing element into the sensor housing ; and equalizing a pressure within the sealed housing with an external pressure of the environment via the pressure equalizing element , wherein gas flow travels the lateral length of at least a portion of the pressure equalizing element , and wherein the lateral length is greater than the thickness of the pressure equalizing element . a pressure equalizing element coupled to a top surface of the sensor , wherein the pressure equalizing element comprises a first section located on a top surface of the sensor housing and one or more second sections , wherein the one or more second sections comprise one or more tabs extending from the first section and configured to extend within the housing ; and a housing , wherein the housing of the gas detector is sealed around the sensor , wherein at least a portion of the pressure equalizing element is exposed on an exterior of the housing , and wherein at least a portion of the pressure equalizing element is located within an interior of the housing ; detecting a sample gas by the sensor , wherein detecting the gas sample by the sensor comprises allowing the sample gas to enter the sensor housing via an opening , wherein the pressure equalizing element is sealed around the opening and wherein the sample gas passes through the thickness of the pressure equalizing element into the sensor housing ; and equalizing a pressure within the sealed housing with an external pressure of the environment via the pressure equalizing element , wherein gas flow travels the lateral length of at least a portion of the pressure equalizing element , and wherein the lateral length is greater than the thickness of the pressure equalizing element .
A method for audio signal generation implemented on a computing apparatus, the computing apparatus including at least one processor and at least one storage device, comprising: obtaining first audio data collected by a bone conduction sensor; obtaining second audio data collected by an air conduction sensor, the first audio data and the second audio data representing a speech of a user, with differing frequency components; and generating, based on the first audio data and the second audio data, third audio data, wherein frequency components of the third audio data higher than a first frequency point increase with respect to frequency components of the first audio data higher than the first frequency point, characterized in that the generating, based on the first audio data and the second audio data, third audio data includes: determining multiple frequency ranges; determining a first weight and a second weight for a portion of the first audio data and a portion of the second audio data located within each of the multiple frequency ranges, respectively; and determining the third audio data by weighting the portion of the first audio data and the portion of the second audio data located within each of the multiple frequency ranges using the first weight and the second weight, respectively. obtaining first audio data collected by a bone conduction sensor; obtaining second audio data collected by an air conduction sensor, the first audio data and the second audio data representing a speech of a user, with differing frequency components; and generating, based on the first audio data and the second audio data, third audio data, wherein frequency components of the third audio data higher than a first frequency point increase with respect to frequency components of the first audio data higher than the first frequency point, characterized in that the generating, based on the first audio data and the second audio data, third audio data includes: determining multiple frequency ranges; determining a first weight and a second weight for a portion of the first audio data and a portion of the second audio data located within each of the multiple frequency ranges, respectively; and determining the third audio data by weighting the portion of the first audio data and the portion of the second audio data located within each of the multiple frequency ranges using the first weight and the second weight, respectively. determining multiple frequency ranges; determining a first weight and a second weight for a portion of the first audio data and a portion of the second audio data located within each of the multiple frequency ranges, respectively; and determining the third audio data by weighting the portion of the first audio data and the portion of the second audio data located within each of the multiple frequency ranges using the first weight and the second weight, respectively.
An adaptive assistive and/or rehabilitation device (B), comprising: an upper support for supporting a wearable assistive device on a user side; and a lower support coupled to a lower side of the upper support to move and support the upper support , wherein the lower support includes a base frame extending on the user side and a sub-frame extending on an assistant side opposite to the user side, characterized in that the device further comprises a lower housing provided in the lower support , wherein the lower housing is coupled to the base frame and the sub-frame to support the base frame and the sub-frame , and wherein the lower housing includes: an outer shell through which the base frame and the sub-frame are inserted, an inner shell provided inside of the outer shell , wherein the base frame and the sub-frame are coupled to the inner shell , and a balance weight provided inside of the outer shell and arranged below, inside or surrounding the inner shell to add weight to the lower support . an upper support for supporting a wearable assistive device on a user side; and a lower support coupled to a lower side of the upper support to move and support the upper support , wherein the lower support includes a base frame extending on the user side and a sub-frame extending on an assistant side opposite to the user side, characterized in that the device further comprises a lower housing provided in the lower support , wherein the lower housing is coupled to the base frame and the sub-frame to support the base frame and the sub-frame , and wherein the lower housing includes: an outer shell through which the base frame and the sub-frame are inserted, an inner shell provided inside of the outer shell , wherein the base frame and the sub-frame are coupled to the inner shell , and a balance weight provided inside of the outer shell and arranged below, inside or surrounding the inner shell to add weight to the lower support . an outer shell through which the base frame and the sub-frame are inserted, an inner shell provided inside of the outer shell , wherein the base frame and the sub-frame are coupled to the inner shell , and a balance weight provided inside of the outer shell and arranged below, inside or surrounding the inner shell to add weight to the lower support .
Method for transmitting messages of an energy autonomous radio system, wherein electrical energy for the radio system is provided by an energy converter which converts non-electrical primary energy from the environment into electrical energy, comprising the following steps: a.) storing at least two transmission channels in a predetermined frequency range in the radio system, b.) presetting a transmission unit of the radio system to a preferred stored transmission channel, c.) checking whether the preferred transmission channel is occupied by other radio systems, d.) changing from the preferred transmission channel to a different stored transmission channel if the preferred transmission channel is occupied, and e.) transmitting a predetermined radio message by the transmission unit on the preferred or the other transmission channel depending on step d.), wherein the energy converter is excited by a mechanical actuation of an actuating element of the radio system, whereby electrical energy for carrying out the method is provided, and wherein, at each actuation of the actuating element, at least steps c.) to e.) are carried out, wherein one or more of steps c.) to e.) are carried out repeatedly for the preferred transmission channel and/or for at least one further stored transmission channel, and wherein, for each stored transmission channel, a statistical probability of occupation is determined by repeatedly checking the occupancy according to step c.), and a stored transmission channel with the lowest probability of occupancy is set as the preferred transmission channel according to step b.). a.) storing at least two transmission channels in a predetermined frequency range in the radio system, b.) presetting a transmission unit of the radio system to a preferred stored transmission channel, c.) checking whether the preferred transmission channel is occupied by other radio systems, d.) changing from the preferred transmission channel to a different stored transmission channel if the preferred transmission channel is occupied, and e.) transmitting a predetermined radio message by the transmission unit on the preferred or the other transmission channel depending on step d.),
A recording device , comprising: a determination reference value obtaining section configured to obtain a determination reference value on a basis of signal values during a reference time period, the reference time period being a predetermined time period after a start of input of time-series signal values, the determination reference value indicating a feature of the signal values during the reference time period, and a recording control section configured to (i) obtain information on a recording start condition on a basis of the determination reference value, the recording start condition indicating whether, as compared to the signal values during the reference time period, there has been a large change among signal values during a timing determining process period which starts after the reference time period has elapsed, and (ii) start recording signal values in response to the recording start condition becoming satisfied, wherein the determination reference value obtaining section is configured to obtain, as the determination reference value, a difference between a maximum value (Vmax) and a minimum value (Vmin) of the signal values during the reference time period, and the recording control section is configured to determine that the recording start condition has become satisfied, on a basis of a difference between a maximum value (Vmax) and a minimum value (Vmin) of the signal values during the timing determining process period exceeding a threshold value (Vth 1). a determination reference value obtaining section configured to obtain a determination reference value on a basis of signal values during a reference time period, the reference time period being a predetermined time period after a start of input of time-series signal values, the determination reference value indicating a feature of the signal values during the reference time period, and a recording control section configured to (i) obtain information on a recording start condition on a basis of the determination reference value, the recording start condition indicating whether, as compared to the signal values during the reference time period, there has been a large change among signal values during a timing determining process period which starts after the reference time period has elapsed, and (ii) start recording signal values in response to the recording start condition becoming satisfied, wherein the determination reference value obtaining section is configured to obtain, as the determination reference value, a difference between a maximum value (Vmax) and a minimum value (Vmin) of the signal values during the reference time period, and the recording control section is configured to determine that the recording start condition has become satisfied, on a basis of a difference between a maximum value (Vmax) and a minimum value (Vmin) of the signal values during the timing determining process period exceeding a threshold value (Vth 1).
A display article, comprising: a glass substrate comprising a thickness and a primary surface; a textured surface region defined by the primary surface; and an antireflective coating disposed on the textured surface region defined by the primary surface of the glass substrate, wherein the textured surface region comprises a plurality of structural features and an average texture height ( R text ) from 50 nm to 300 nm , wherein the glass substrate exhibits a sparkle of less than 5%, as measured by pixel power deviation (PPD 140 ) at an incident angle of 0° from normal, and a transmittance haze of less than 40% from an incident angle of 0° from normal, wherein the antireflective coating comprises a plurality of alternating high refractive index and low refractive index layers, wherein each of the low refractive index layers comprises a refractive index of less than or equal to about 1.8, and each of the high refractive index layers comprises a refractive index of greater than 1.8, and further wherein the article exhibits a first-surface average photopic specular reflectance (%R) of less than 0.3% at any incident angle from about 5° to 20° from normal at wavelengths from 450 nm to 650 nm. a glass substrate comprising a thickness and a primary surface; a textured surface region defined by the primary surface; and an antireflective coating disposed on the textured surface region defined by the primary surface of the glass substrate, wherein the textured surface region comprises a plurality of structural features and an average texture height ( R text ) from 50 nm to 300 nm , wherein the glass substrate exhibits a sparkle of less than 5%, as measured by pixel power deviation (PPD 140 ) at an incident angle of 0° from normal, and a transmittance haze of less than 40% from an incident angle of 0° from normal, wherein the antireflective coating comprises a plurality of alternating high refractive index and low refractive index layers, wherein each of the low refractive index layers comprises a refractive index of less than or equal to about 1.8, and each of the high refractive index layers comprises a refractive index of greater than 1.8, and further wherein the article exhibits a first-surface average photopic specular reflectance (%R) of less than 0.3% at any incident angle from about 5° to 20° from normal at wavelengths from 450 nm to 650 nm.
A forming unit for a profiling line, comprising: a plurality of lower rollers shaped with outer surfaces that envelop, on at least one transversal section plane (S) on which the rotation axes of the lower rollers lie, a lower curve (P1); a plurality of upper rollers shaped with outer surfaces that envelop, on the transversal section plane, an upper curve (P2) substantially parallel to the lower curve (P1); wherein the lower rollers include a central roller , that exhibits a concave outer surface, and one more lateral rollers each of which is provided with a concave outer surface that, on the transversal section plane, is matched to the outer surface of the central roller ; characterized in that: the upper rollers comprise a central roller , that exhibits a convex outer surface, and one or more lateral rollers which exhibit a convex outer surface; the outer surfaces of the upper rollers are substantially tangential to the upper curve (P2) on the transversal section plane. the upper rollers comprise a central roller , that exhibits a convex outer surface, and one or more lateral rollers which exhibit a convex outer surface; the outer surfaces of the upper rollers are substantially tangential to the upper curve (P2) on the transversal section plane.
An in vitro method for determining the abundance of Faecalibacterium prausnitzii phylogroup I members (PHGI) and/or of Faecalibacterium prausnitzii phylogroup II members (PHGII) by phylogroup-specific 16S rRNA gene quantification in an intestinal sample from a subject; wherein PHGI abundance determination comprises hybridization of a PHGI-specific probe comprising sequence SEQ ID NO: 3; and wherein PHGII abundance determination comprises hybridization of a PHGII-specific probe comprising sequence SEQ ID NO: 4.
A drug solution preparation apparatus comprising: a transfer device that includes a first connector to which a first container is connectable, a second connector to which a second container is connectable, and a connection port to which a syringe is connectable, the transfer device being switchable between a first state in which the first connector and the connection port are in communication with each other and a second state in which the second connector and the connection port are in communication with each other; a device holder configured to hold the transfer device; a stage on which the device holder is provided; and a syringe holder configured to hold the syringe , wherein the stage can be turned to a first turning position where the first connector is located higher than the second connector and a second turning position where the second connector is located higher than the first connector , so as to change an inclination of the stage , and the syringe holder is configured to hold the syringe such that a longitudinal direction of the syringe is perpendicular to a direction of a rotation axis of the stage . a transfer device that includes a first connector to which a first container is connectable, a second connector to which a second container is connectable, and a connection port to which a syringe is connectable, the transfer device being switchable between a first state in which the first connector and the connection port are in communication with each other and a second state in which the second connector and the connection port are in communication with each other; a device holder configured to hold the transfer device; a stage on which the device holder is provided; and a syringe holder configured to hold the syringe , wherein the stage can be turned to a first turning position where the first connector is located higher than the second connector and a second turning position where the second connector is located higher than the first connector , so as to change an inclination of the stage , and the syringe holder is configured to hold the syringe such that a longitudinal direction of the syringe is perpendicular to a direction of a rotation axis of the stage .
A method in a base station for communicating with a terminal device in a wireless communication system , the terminal device being configured with at least a primary carrier (C1) and a secondary carrier (C2, C3) for carrier aggregation, the method comprising: determining a measurement gap, the measurement gap indicating a time interval for the terminal device to switch from the primary carrier (Cl) to the secondary carrier (C2, C3) for transmitting a reference signal to the base station over the secondary carrier (C2, C3) and to switch back to the primary carrier (Cl); triggering the terminal device to transmit the reference signal over the secondary carrier (C2, C3) according to the measurement gap; and obtaining a channel estimation based on the reference signal received from the terminal device during the measurement gap; wherein the terminal device is configured with a further secondary carrier (C2, C3), wherein the triggering comprises: triggering the terminal device to transmit the reference signal over the secondary carrier and the further secondary carrier sequentially in a single measurement gap, or in two separate measurement gaps, according to the measurement gap. determining a measurement gap, the measurement gap indicating a time interval for the terminal device to switch from the primary carrier (Cl) to the secondary carrier (C2, C3) for transmitting a reference signal to the base station over the secondary carrier (C2, C3) and to switch back to the primary carrier (Cl); triggering the terminal device to transmit the reference signal over the secondary carrier (C2, C3) according to the measurement gap; and obtaining a channel estimation based on the reference signal received from the terminal device during the measurement gap; wherein the terminal device is configured with a further secondary carrier (C2, C3), wherein the triggering comprises: triggering the terminal device to transmit the reference signal over the secondary carrier and the further secondary carrier sequentially in a single measurement gap, or in two separate measurement gaps, according to the measurement gap.
A container for consumer goods , comprising: a rigid outer box having a hinged lid configured to provide access to an inner volume of the outer box ; a rigid inner box comprising panels separated by fold lines and assembled from an inner box blank including a top front panel separated from a top panel by a first transverse fold line , a back panel separated from the top panel by a second transverse fold line , a bottom panel separated from the back panel by a third transverse fold line , and a bottom front panel separated from the bottom panel by a fourth transverse fold line , the rigid inner box having a pre-cut opening configured to provide access to an inner volume of the rigid inner box ; a pull tab covering the pre-cut opening , the pull tab being adhered to the rigid outer box and the rigid inner box , wherein the top panel and top front panel include side flaps , and the inner box blank comprises a plurality of layers including paperboard and bundle wrap, the bundle wrap including a layer of foil and a layer of paper forming an inner liner of the inner box , wherein the layer of foil is between the paperboard and the paper layer. a rigid outer box having a hinged lid configured to provide access to an inner volume of the outer box ; a rigid inner box comprising panels separated by fold lines and assembled from an inner box blank including a top front panel separated from a top panel by a first transverse fold line , a back panel separated from the top panel by a second transverse fold line , a bottom panel separated from the back panel by a third transverse fold line , and a bottom front panel separated from the bottom panel by a fourth transverse fold line , the rigid inner box having a pre-cut opening configured to provide access to an inner volume of the rigid inner box ; a pull tab covering the pre-cut opening , the pull tab being adhered to the rigid outer box and the rigid inner box , wherein the top panel and top front panel include side flaps , and the inner box blank comprises a plurality of layers including paperboard and bundle wrap, the bundle wrap including a layer of foil and a layer of paper forming an inner liner of the inner box , wherein the layer of foil is between the paperboard and the paper layer.