mhurhangee/ep-ind-claims huggingface dataset:
A lid for attaching to an opening part of a container in a removable manner, comprising a cover wall and a side wall which surrounds the circumference of the cover wall, which is tapered from an upper end towards an lower end and which is made of a paper material, wherein the cover wall and the side wall are integrated with each other by a standing part formed on the circumference of the cover wall being joined to an inner surface of an upper wall of the side wall, wherein an engaging part for engaging with the opening part of the container is provided on an inner circumferential side of a lower wall of the side wall. a cover wall and a side wall which surrounds the circumference of the cover wall, which is tapered from an upper end towards an lower end and which is made of a paper material, wherein the cover wall and the side wall are integrated with each other by a standing part formed on the circumference of the cover wall being joined to an inner surface of an upper wall of the side wall, wherein an engaging part for engaging with the opening part of the container is provided on an inner circumferential side of a lower wall of the side wall.
A method for blind resource unit allocation detection, the method being performed in a user equipment, comprising the steps of: receiving a downlink interference signal over at least two transmission resource units; forming metric vectors for the at least two transmission resource units based on symbol estimates of the downlink interference signal in the transmission resource units, wherein for each of said at least two resource units a metric vector comprising a plurality of metric values is determined, wherein each metric value corresponds to a different metric and is determined based on symbol estimates of the downlink interference signal in said resource unit; detecting groups of scheduled transmission resource units based on the metric vectors, such that transmission resource units having similar metric vectors belong to the same group, wherein the plurality of metrics are indicative of at least two of: received signal power, modulation, rank, precoding, magnitude histogram, probability distribution function, higher-order statistics of the symbol estimates, wherein the transmission resource unit is a High-Speed Downlink Packet Access, HSDPA, High Speed-Physical Downlink Shared Channel, HS-PDSCH, code or a Long-Term Evolution, LTE, resource block, RB. receiving a downlink interference signal over at least two transmission resource units; forming metric vectors for the at least two transmission resource units based on symbol estimates of the downlink interference signal in the transmission resource units, wherein for each of said at least two resource units a metric vector comprising a plurality of metric values is determined, wherein each metric value corresponds to a different metric and is determined based on symbol estimates of the downlink interference signal in said resource unit; detecting groups of scheduled transmission resource units based on the metric vectors, such that transmission resource units having similar metric vectors belong to the same group, wherein the plurality of metrics are indicative of at least two of: received signal power, modulation, rank, precoding, magnitude histogram, probability distribution function, higher-order statistics of the symbol estimates, wherein the transmission resource unit is a High-Speed Downlink Packet Access, HSDPA, High Speed-Physical Downlink Shared Channel, HS-PDSCH, code or a Long-Term Evolution, LTE, resource block, RB.
A method for the production of a porous powder product containing a microorganism, from a liquid concentrate comprising at least one liquid microorganism culture and a carrier composition, the carrier composition comprising at least one carbohydrate and at least one protein, the method comprising the steps of: i) preparing the liquid concentrate both to have a temperature of between 5 and 40°C and to have, at the temperature of the prepared concentrate, a viscosity greater than 150 mPa.s; ii) injecting a food grade gas into the prepared concentrate at a pressure greater than 0.3 MPa to intimately incorporate the gas into the liquid concentrate and form a stable foam with a density of between about 0.6 to about 1.2 kg/l; iii) conveying the foam to an atomizing device wherein the pressure of the foam is reduced from 0.3 MPa to atmospheric pressure to provide a partially dried product; and iv) exposing the partially dried product to a drying media to reduce both the moisture content to less than 5% moisture and the water activity to less than 0.25 A w, when measured at 20°C, and to provide the porous powder product, wherein the temperature of the porous powder product in step (iv) does not exceed 50°C. i) preparing the liquid concentrate both to have a temperature of between 5 and 40°C and to have, at the temperature of the prepared concentrate, a viscosity greater than 150 mPa.s; ii) injecting a food grade gas into the prepared concentrate at a pressure greater than 0.3 MPa to intimately incorporate the gas into the liquid concentrate and form a stable foam with a density of between about 0.6 to about 1.2 kg/l; iii) conveying the foam to an atomizing device wherein the pressure of the foam is reduced from 0.3 MPa to atmospheric pressure to provide a partially dried product; and iv) exposing the partially dried product to a drying media to reduce both the moisture content to less than 5% moisture and the water activity to less than 0.25 A w, when measured at 20°C, and to provide the porous powder product, wherein the temperature of the porous powder product in step (iv) does not exceed 50°C.
Sealing arrangement for motor vehicle panes, comprising: - a pane, - a mounting rail that is connected to the pane, and - a cover connected via a connection point to a latching rail, wherein - the mounting rail comprises a latching channel that is formed by a contact tongue and a support body, - the cover with the latching rail is latched in the latching channel, and - a spring element is mounted between a contact surface of the cover and the support body, characterized in that the distance between the edge of a lower region of the pane and the rear edge of the cover is 0.1 mm to 2 mm. - a pane, - a mounting rail that is connected to the pane, and - a cover connected via a connection point to a latching rail, - the mounting rail comprises a latching channel that is formed by a contact tongue and a support body, - the cover with the latching rail is latched in the latching channel, and - a spring element is mounted between a contact surface of the cover and the support body,
A method of backcombing hair with a brush comprising sectioning the hair, and brushing at least one section of the hair towards the scalp using the brush, the brush being elongate and having a longitudinal axis, the brush comprising an elongate array of bristles, the array having a longitudinal axis substantially parallel with the longitudinal axis of the brush and each bristle extending from a base to a free end; wherein the array of bristles includes bristles of at least two lengths, bristles of a first length being less than half of the length of the bristles of a second length; wherein at least some or all of the bristles of a second length comprise a first, relatively wide, portion which tapers from the base and a second, relatively narrow, portion which extends from the first portion to the free end; and wherein at least some or all of the bristles of a first length do not comprise a first, relatively wide, portion which tapers from the base and a second, relatively narrow, portion which extends from the first portion to the free end.
An optical bandpass filter for filtering light traveling along a path to a photodetector in an electro-optical reader for reading indicia, the optical bandpass filter comprising: a) a plastic member in the path; b) a dye devoid of heavy metals, the dye being distributed throughout the plastic member, the dye being operative for absorbing the light having wavelengths shorter than a lower passband value of 625nm at 50% transmission; and c) a dielectric coating on the plastic member and operative for reflecting the light having wavelengths longer than a higher passband value of 690nm at 50% transmission, such that the filter substantially allowing most of the light having waveleng this between 625nm and 690nm to reach the photodetector while substantially bloking most of the light having wavelengths outside of these wavelengths. a) a plastic member in the path; b) a dye devoid of heavy metals, the dye being distributed throughout the plastic member, the dye being operative for absorbing the light having wavelengths shorter than a lower passband value of 625nm at 50% transmission; and c) a dielectric coating on the plastic member and operative for reflecting the light having wavelengths longer than a higher passband value of 690nm at 50% transmission, such that the filter substantially allowing most of the light having waveleng this between 625nm and 690nm to reach the photodetector while substantially bloking most of the light having wavelengths outside of these wavelengths.
A method of processing a work piece (220, 2020) in a vacuum chamber (204, 2004), comprising: dispensing a liquid (208, 604, 1204, 2008) onto the work piece; and directing a charged particle beam (231, 2031) to the work piece; characterized by: forming a channel (209, 404, 2009) on the surface of the work piece in the vacuum chamber; dispensing the liquid onto the work piece comprises dispensing the liquid into the channel at a first position using capillary action, the liquid flowing through the channel to a second position (211, 402, 2011) on the work piece via capillary action; and directing the charged particle beam to the work piece comprises directing the charged particle beam to the second position on the work piece, the charged particle beam reacting with the liquid at the second position to form a structure on the work piece. dispensing a liquid (208, 604, 1204, 2008) onto the work piece; and directing a charged particle beam (231, 2031) to the work piece; forming a channel (209, 404, 2009) on the surface of the work piece in the vacuum chamber; dispensing the liquid onto the work piece comprises dispensing the liquid into the channel at a first position using capillary action, the liquid flowing through the channel to a second position (211, 402, 2011) on the work piece via capillary action; and directing the charged particle beam to the work piece comprises directing the charged particle beam to the second position on the work piece, the charged particle beam reacting with the liquid at the second position to form a structure on the work piece.
A method comprising: receiving, at an actuated mobile device, data related to at least one dosage level for a predetermined area, wherein the data related to the at least one dosage level is based on a first dosage of ultraviolet light to be output from at least one light source for at least a portion of the predetermined area; characterized by: determining, using a processor communicatively coupled to the actuated mobile device, a path of the actuated mobile device that provides a reduced time for disinfection of the predetermined area based on the received data related to the at least one dosage level of the UV light to be output; moving the actuated mobile device in the path within the predetermined area and outputting the UV light from the at least one light source onto one or more first surfaces based on the received data related to the at least one dosage level; and moving the actuated mobile device within the path and outputting the UV light onto one or more second surfaces based on the received data related to the at least one dosage level. determining, using a processor communicatively coupled to the actuated mobile device, a path of the actuated mobile device that provides a reduced time for disinfection of the predetermined area based on the received data related to the at least one dosage level of the UV light to be output; moving the actuated mobile device in the path within the predetermined area and outputting the UV light from the at least one light source onto one or more first surfaces based on the received data related to the at least one dosage level; and moving the actuated mobile device within the path and outputting the UV light onto one or more second surfaces based on the received data related to the at least one dosage level.
A step counting method for a driven treadmill, wherein the method is applied to a terminal device, the terminal device is placed on the treadmill, and the method comprises: collecting, by the terminal device by using an acceleration sensor, a vibration signal generated when a user runs on the treadmill; and analyzing, by the terminal device by using a time-frequency analysis algorithm, the vibration signal to determine a quantity of exercise steps of the user on the treadmill, characterized by before the analyzing, by the terminal device by using the time-frequency analysis algorithm, the vibration signal to determine a quantity of exercise steps of the user on the treadmill, wherein the method further comprises: denoising, by the terminal device, the vibration signal, wherein the denoising, by the terminal device, the vibration signal comprises: identifying, by the terminal device, a vibration component of the treadmill in the vibration signal based on a vibration frequency of the treadmill; and filtering out the vibration component of the treadmill in the vibration signal, wherein the vibration frequency of the treadmill is a vibration frequency obtained after the treadmill is started and when no user runs on the treadmill. collecting, by the terminal device by using an acceleration sensor, a vibration signal generated when a user runs on the treadmill; and analyzing, by the terminal device by using a time-frequency analysis algorithm, the vibration signal to determine a quantity of exercise steps of the user on the treadmill, characterized by before the analyzing, by the terminal device by using the time-frequency analysis algorithm, the vibration signal to determine a quantity of exercise steps of the user on the treadmill, wherein the method further comprises: denoising, by the terminal device, the vibration signal, wherein the denoising, by the terminal device, the vibration signal comprises: identifying, by the terminal device, a vibration component of the treadmill in the vibration signal based on a vibration frequency of the treadmill; and filtering out the vibration component of the treadmill in the vibration signal, wherein the vibration frequency of the treadmill is a vibration frequency obtained after the treadmill is started and when no user runs on the treadmill.
A method for masking a detected object in a video stream captured by a camera, wherein the camera is arranged in a camera system including the camera and at least a further device, wherein a location and field of view is known for the further device and a location and a field of view is known for the camera, and wherein the field of view of the further device and the field of view of the camera are non-overlapping, the method comprising: obtaining, in the camera, information indicating that an object is approaching the field of view of the camera, wherein the obtained information is determined from information from the further device indicating a location and a direction of movement of the object and the known locations and fields of view of the camera and the further device; in response to the obtained information reducing a threshold for detecting objects that are to be masked in the video stream captured by the camera, wherein the threshold specifies a confidence over which an object is determined to belong to an object class which is to be masked in the video stream, or wherein the threshold is a threshold for what is detected as foreground and what is detected as background and specifies an amount of change in image data in an image frame relative to image data in a preceding image frame over which an object is determined to belong to the foreground; detecting an object that is to be masked in the video stream using the reduced threshold; and inserting masking of the detected object in the video stream. obtaining, in the camera, information indicating that an object is approaching the field of view of the camera, wherein the obtained information is determined from information from the further device indicating a location and a direction of movement of the object and the known locations and fields of view of the camera and the further device; in response to the obtained information reducing a threshold for detecting objects that are to be masked in the video stream captured by the camera, wherein the threshold specifies a confidence over which an object is determined to belong to an object class which is to be masked in the video stream, or wherein the threshold is a threshold for what is detected as foreground and what is detected as background and specifies an amount of change in image data in an image frame relative to image data in a preceding image frame over which an object is determined to belong to the foreground; detecting an object that is to be masked in the video stream using the reduced threshold; and inserting masking of the detected object in the video stream.
Modulation control method for a filter device for avoiding flicker appearing in streamed video images before acquiring images, comprising the following steps: • setting the exposure time to be equal or longer than an oscillating light source's period duration or to be as long as possible between two frames in the image acquisition of streamed video images, characterised by the steps • polarizing of incoming light in a first polarizer to turn into polarized light with a first polarization, • altering the polarization of the light with the first polarization in an electro- or magneto-optic modulator by an angle α to turn into light with a second polarization, wherein the altering of the first polarization depends on a voltage or current applied to the modulator, • reducing an amount of light with the second polarization in a second polarizer, with the remaining intensity of the outgoing light I 2 being I 2 = I 1 cos 2 β, wherein I 1 is the light intensity before passing the second polarizer and β is the angle between the polarization orientation of the light and the polarization orientation of the second polarizer. • setting the exposure time to be equal or longer than an oscillating light source's period duration or to be as long as possible between two frames in the image acquisition of streamed video images, characterised by the steps • polarizing of incoming light in a first polarizer to turn into polarized light with a first polarization, • altering the polarization of the light with the first polarization in an electro- or magneto-optic modulator by an angle α to turn into light with a second polarization, wherein the altering of the first polarization depends on a voltage or current applied to the modulator, • reducing an amount of light with the second polarization in a second polarizer, with the remaining intensity of the outgoing light I 2 being I 2 = I 1 cos 2 β,
A smoking article comprising: a tobacco rod circumscribed by an outer wrapper; a filter comprising two or more filter segments in axial alignment with each other wherein adjacent filter segments abut at an interface (22,24), wherein the two or more filter segments are at least partially circumscribed by a plug wrap; and a filter wrapper circumscribing a portion of the filter and an adjacent portion of the tobacco rod to connect the filter and the tobacco rod, wherein the filter wrapper includes one or more circumferential lines of weakness (30a,30b) extending around the filter at a position corresponding to the position of the interface (22,24) and wherein the substantially air impermeable plug wrap extends around the interface (22,24) under the one or more circumferential lines of weakness (30a,30b), characterized in that the outer wrapper has a plurality of perforations extending through the outer wrapper, in that the plug wrap is substantially air impermeable and in that the smoking article is configured such that the smoking article provides two or more different tar levels between 0.1 mg and 15 mg wherein the tar level is determined when the smoking article is smoked under ISO conditions and such that the levels of carbon monoxide delivery for each tar level are within 1 mg of each other, wherein the level of carbon monoxide delivery is determined when the smoking article is smoked under ISO conditions. a tobacco rod circumscribed by an outer wrapper; a filter comprising two or more filter segments in axial alignment with each other wherein adjacent filter segments abut at an interface (22,24), wherein the two or more filter segments are at least partially circumscribed by a plug wrap; and a filter wrapper circumscribing a portion of the filter and an adjacent portion of the tobacco rod to connect the filter and the tobacco rod, wherein the filter wrapper includes one or more circumferential lines of weakness (30a,30b) extending around the filter at a position corresponding to the position of the interface (22,24) and wherein the substantially air impermeable plug wrap extends around the interface (22,24) under the one or more circumferential lines of weakness (30a,30b), characterized in that the outer wrapper has a plurality of perforations extending through the outer wrapper, in that the plug wrap is substantially air impermeable and in that the smoking article is configured such that the smoking article provides two or more different tar levels between 0.1 mg and 15 mg wherein the tar level is determined when the smoking article is smoked under ISO conditions and such that the levels of carbon monoxide delivery for each tar level are within 1 mg of each other, wherein the level of carbon monoxide delivery is determined when the smoking article is smoked under ISO conditions.
A method for making over-the-air measurements of an antenna system, said method comprising: defining at least one spatial sampling grid around the antenna system, said sampling grid having a distribution of sampling points that varies as a function of a geometry of the antenna system and/or a beam pattern of the antenna system, further including dividing the sampling grid into two or more sampling zones, wherein the distribution of sampling points varies in different ones of said sampling zones, measuring a received power at selected ones of said sampling points of said spatial sampling grid; and determining a total received power based on the received power measurements. defining at least one spatial sampling grid around the antenna system, said sampling grid having a distribution of sampling points that varies as a function of a geometry of the antenna system and/or a beam pattern of the antenna system, further including dividing the sampling grid into two or more sampling zones, wherein the distribution of sampling points varies in different ones of said sampling zones, measuring a received power at selected ones of said sampling points of said spatial sampling grid; and determining a total received power based on the received power measurements.