mhurhangee/patent-ind-claim-en huggingface dataset:
A method of content transmission based on multimedia broadcast/multicast service, MBMS, in a machine type communication, MTC, comprising: receiving a session start time from a MTC server ; sending to a plurality of MTC devices a service announcement including the session start time; beginning to establish MBMS bearers to the plurality of MTC devices when the session start time is reached; sending a notification about MBMS bearers established for the session start time to the plurality of MTC devices; and transmitting to the plurality of MTC devices via the MBMS bearers, MTC service contents coming from the MTC server , wherein the service announcement is sent to the plurality of MTC devices via the MBMS bearers at a fixed time point preconfigured to the plurality of MTC devices. receiving a session start time from a MTC server ; sending to a plurality of MTC devices a service announcement including the session start time; beginning to establish MBMS bearers to the plurality of MTC devices when the session start time is reached; sending a notification about MBMS bearers established for the session start time to the plurality of MTC devices; and transmitting to the plurality of MTC devices via the MBMS bearers, MTC service contents coming from the MTC server , wherein the service announcement is sent to the plurality of MTC devices via the MBMS bearers at a fixed time point preconfigured to the plurality of MTC devices.
Supplementary engine control device, comprising a microcontroller; a non-volatile memory connected to the microcontroller, the microcontroller having access to data stored in the memory; an interface unit configured to connect the microcontroller to a computer bus, allowing the microcontroller to monitor data present on said bus and, optionally, to transmit data on said bus; a first analogue input, connected to the microcontroller via an analogue-digital converter, for connecting the supplementary engine control device to a first probe; a first analogue output, connected to the microcontroller via a digital-analogue converter, for connecting the supplementary engine control device to a first analogue input of an original engine control unit; the microcontroller comprising a plurality of operating states, the microcontroller being configured, at least in one of its operating states, to monitor data on the bus, compute a correction of a signal applied to the first analogue input on the basis of a map stored in said memory and transmit, to the first analogue output, a signal corresponding to the signal applied to the first analogue input with said correction being included; a first electronic switch being positioned on a line connecting said first analogue input and said first analogue output, the first electronic switch being controlled by the microcontroller, the first switch being able to be opened or closed by the microcontroller depending on the operating state which the latter is in. a non-volatile memory connected to the microcontroller, the microcontroller having access to data stored in the memory; an interface unit configured to connect the microcontroller to a computer bus, allowing the microcontroller to monitor data present on said bus and, optionally, to transmit data on said bus; a first analogue input, connected to the microcontroller via an analogue-digital converter, for connecting the supplementary engine control device to a first probe; a first analogue output, connected to the microcontroller via a digital-analogue converter, for connecting the supplementary engine control device to a first analogue input of an original engine control unit; the microcontroller comprising a plurality of operating states, the microcontroller being configured, at least in one of its operating states, to monitor data on the bus, compute a correction of a signal applied to the first analogue input on the basis of a map stored in said memory and transmit, to the first analogue output, a signal corresponding to the signal applied to the first analogue input with said correction being included; a first electronic switch being positioned on a line connecting said first analogue input and said first analogue output, the first electronic switch being controlled by the microcontroller, the first switch being able to be opened or closed by the microcontroller depending on the operating state which the latter is in.
A method of producing a garlic extract, comprising the following steps: peeling, wherein a plurality of garlics are peeled; sterilization, wherein the plurality of garlics are sterilized by utilizing ozonated water, the concentration of the ozonated water is between 0.3 ppm and 0.7 ppm, and the plurality of garlics are soaked in the ozonated water for 5-15 minutes; draining, wherein the plurality of garlics are drained; fermentation, wherein the plurality of garlics are fermented to get fermented garlic mixture, wherein an aerobic fermentation is performed first, followed by an anaerobic fermentation, wherein the fermentation of the plurality of garlics lasts 16 weeks in total, wherein from week 0 to week 4 of the fermentation cycle, the fermented garlic mixture is ventilated, and the fermented garlic mixture is stirred to carry out aerobic fermentation, and from week 5 to week 16 of the fermentation cycle, the fermented garlic mixture is sealed to prevent the fermented garlic mixture from contacting with the outside air for anaerobic fermentation; first filtration, wherein the fermented garlic mixture is filtered to get a garlic fermentation broth; extraction, wherein the garlic fermentation broth is extracted by performing distillation at an extraction temperature of 80°C-120°C to get a garlic extract, wherein liquid obtained after distillation is the garlic extract; and deodorization, wherein the garlic extract is filtered by utilizing activated carbon. peeling, wherein a plurality of garlics are peeled; sterilization, wherein the plurality of garlics are sterilized by utilizing ozonated water, the concentration of the ozonated water is between 0.3 ppm and 0.7 ppm, and the plurality of garlics are soaked in the ozonated water for 5-15 minutes; draining, wherein the plurality of garlics are drained; fermentation, wherein the plurality of garlics are fermented to get fermented garlic mixture, wherein an aerobic fermentation is performed first, followed by an anaerobic fermentation, wherein the fermentation of the plurality of garlics lasts 16 weeks in total, wherein from week 0 to week 4 of the fermentation cycle, the fermented garlic mixture is ventilated, and the fermented garlic mixture is stirred to carry out aerobic fermentation, and from week 5 to week 16 of the fermentation cycle, the fermented garlic mixture is sealed to prevent the fermented garlic mixture from contacting with the outside air for anaerobic fermentation; first filtration, wherein the fermented garlic mixture is filtered to get a garlic fermentation broth; extraction, wherein the garlic fermentation broth is extracted by performing distillation at an extraction temperature of 80°C-120°C to get a garlic extract, wherein liquid obtained after distillation is the garlic extract; and deodorization, wherein the garlic extract is filtered by utilizing activated carbon.
Holding and transporting device , in particular for producing a book-type identification, value, or security document , wherein the identification, value, or security document has a cover and a passport book block , comprising a data card , a plurality of double pages , an introductory page , and a spine tape , wherein the data card has a flexible tab connected to the data card along an edge, wherein the data card with the flexible tab , the double pages , the introductory page and the spine tape are sewn together by means of a stitching , and wherein an inner side of the cover is bonded flat to an outer side of the introductory page , wherein the holding and transporting arrangement has: - at least two guide units , - at least two holders , in each case for an identification, value or security document , a passport book blank , a passport book block , a cover , a data card or a book half of an identification, value or security document , and - a control unit , wherein the holders are each movable in a guide unit , wherein the guide units each form a closed path curve , along which the holder is movable, wherein the guide units and/or the holders are movable between a processing position and an avoidance position, wherein in a processing position of the guide units and/or of the holders , the holders are movable along the path curve within a processing region extending along a closed processing path , wherein in the avoidance position of the guide units and/or of the holders , the holders are movable outside the processing region along the path curve , wherein the control unit is configured to control the movement of the holders along the guide units and to control the movement of the guide units and/or of the holders between the processing position and the avoidance position, wherein the control unit is designed to determine a movement path of the first and the second holder and to check if a cross-over region of the movement paths is present along the movement paths , wherein the guide units and/or the holders are moved between the processing position and the avoidance position depending on the result of the check. - at least two guide units , - at least two holders , in each case for an identification, value or security document , a passport book blank , a passport book block , a cover , a data card or a book half of an identification, value or security document , and - a control unit ,
A skin treatment appliance with changeable workpieces, comprising: an appliance body ; an appliance body interface assembly for receiving separate removable workpieces ; a signal generator with electrical connections to the appliance body interface, wherein the signal generator, controlled by a microprocessor , generates signals which are adapted to control and operate the workpiece attached to the signal generator, wherein the signal generator, in operation, is configured to generate a plurality of signals which have different frequencies and polarities and sweep over a frequency range from 1 kHz to 2 GHz, and to apply the signals to the workpiece for determining the impedance of the workpiece; and at least two workpieces , each workpiece adapted to treat a different selected spot skin irregularity, wherein each workpiece has a known impedance which is stored in a memory portion of a sensing module or the microprocessor, wherein the microprocessor is adapted to identify an attached workpiece by its impedance, and wherein each of the workpieces has an interface assembly for mechanically and electrically connecting to the appliance body interface; wherein the microprocessor and signal generator are adapted to provide a correct operating signal for the identified workpiece. an appliance body ; an appliance body interface assembly for receiving separate removable workpieces ; a signal generator with electrical connections to the appliance body interface, wherein the signal generator, controlled by a microprocessor , generates signals which are adapted to control and operate the workpiece attached to the signal generator, wherein the signal generator, in operation, is configured to generate a plurality of signals which have different frequencies and polarities and sweep over a frequency range from 1 kHz to 2 GHz, and to apply the signals to the workpiece for determining the impedance of the workpiece; and at least two workpieces , each workpiece adapted to treat a different selected spot skin irregularity, wherein each workpiece has a known impedance which is stored in a memory portion of a sensing module or the microprocessor, wherein the microprocessor is adapted to identify an attached workpiece by its impedance, and wherein each of the workpieces has an interface assembly for mechanically and electrically connecting to the appliance body interface; wherein the microprocessor and signal generator are adapted to provide a correct operating signal for the identified workpiece.
An adjustable wedge for use in foot surgery, characterised in that it comprises: a slide including first and second holes through the slide at opposite ends of the slide ; and a body having: a pair of wedged surfaces that are angled with respect to each other; a circumferential surface extending circumferentially between the wedged surfaces ; a slot extending through the body between the wedged surfaces , the slot sized to accommodate the slide so that the slide is slidable within the slot ; and a threaded hole extending through the circumferential surface to the slot , the threaded hole configured to receive a fastener to secure the slide to the body ,wherein: the slide and the slot extend along a first direction; and the slide is slidable within the slot in the first direction. a slide including first and second holes through the slide at opposite ends of the slide ; and a body having: a pair of wedged surfaces that are angled with respect to each other; a circumferential surface extending circumferentially between the wedged surfaces ; a slot extending through the body between the wedged surfaces , the slot sized to accommodate the slide so that the slide is slidable within the slot ; and a pair of wedged surfaces that are angled with respect to each other; a circumferential surface extending circumferentially between the wedged surfaces ; a slot extending through the body between the wedged surfaces , the slot sized to accommodate the slide so that the slide is slidable within the slot ; and the slide and the slot extend along a first direction; and the slide is slidable within the slot in the first direction.
An apparatus (100; 500) for estimating bio-information, the apparatus comprising: a display comprising unit pixels (1, ..., 29), each of the unit pixels comprising: light sources configured to emit light having different wavelengths; and one or more detectors (PD) configured to detect light having the different wavelengths; and a processor configured to: detect a contact position of an object (OBJ) on the display; determine a partial area of the display, based on the detected contact position; determine source pixels configured to emit light onto the object, among the unit pixels, based on the determined partial area; determine detector pixels configured to detect light that is scattered or reflected from the object, among the unit pixels, based on the determined partial area; control the determined source pixels and the determined detector pixels to obtain a spectrum based on the light having multiple wavelengths that is detected by the detector pixels; and estimate the bio-information, based on the obtained spectrum. a display comprising unit pixels (1, ..., 29), each of the unit pixels comprising: light sources configured to emit light having different wavelengths; and one or more detectors (PD) configured to detect light having the different wavelengths; and light sources configured to emit light having different wavelengths; and one or more detectors (PD) configured to detect light having the different wavelengths; and a processor configured to: detect a contact position of an object (OBJ) on the display; determine a partial area of the display, based on the detected contact position; determine source pixels configured to emit light onto the object, among the unit pixels, based on the determined partial area; determine detector pixels configured to detect light that is scattered or reflected from the object, among the unit pixels, based on the determined partial area; control the determined source pixels and the determined detector pixels to obtain a spectrum based on the light having multiple wavelengths that is detected by the detector pixels; and estimate the bio-information, based on the obtained spectrum. detect a contact position of an object (OBJ) on the display; determine a partial area of the display, based on the detected contact position; determine source pixels configured to emit light onto the object, among the unit pixels, based on the determined partial area; determine detector pixels configured to detect light that is scattered or reflected from the object, among the unit pixels, based on the determined partial area; control the determined source pixels and the determined detector pixels to obtain a spectrum based on the light having multiple wavelengths that is detected by the detector pixels; and estimate the bio-information, based on the obtained spectrum.
A method implemented in a control unit for controlling an automatic milking machine to extract milk from the teats of an animal during a milking session (T M ) by applying a milking vacuum (P) to a respective teat receiving cavity each in which one teat of said teats is located, the milking session (T M ) comprising a boost phase (T BOOST ) and being concluded by an exit phase (T EXIT ), the method comprising: applying the milking vacuum (P) at an elevated pressure level (P B ) during the boost phase (T BOOST ); and applying the milking vacuum (P) at one or more levels (P X ; P X1 , P X2 ) during the exit phase, which one or more levels (P X ; P X1 , P X2 ) each is lower than the elevated pressure level (P B ), transitioning from the boost phase (T BOOST ) to the exit phase (T EXIT ) when (t 2 ) a temporal criterion is fulfilled; and calculating a condition for fulfilling the temporal criterion based on data (D1; D2) registered during one or more previous milking sessions (T M ). applying the milking vacuum (P) at an elevated pressure level (P B ) during the boost phase (T BOOST ); and applying the milking vacuum (P) at one or more levels (P X ; P X1 , P X2 ) during the exit phase, which one or more levels (P X ; P X1 , P X2 ) each is lower than the elevated pressure level (P B ), transitioning from the boost phase (T BOOST ) to the exit phase (T EXIT ) when (t 2 ) a temporal criterion is fulfilled; and calculating a condition for fulfilling the temporal criterion based on data (D1; D2) registered during one or more previous milking sessions (T M ).
A method of generating a custom color mapping, comprising: accessing a plurality of color mappings , each color mapping providing a mapping from a color value in a color space to a Neugebauer Primary area coverage (NPac) vector; for a given color value in the color space: determining first and second NPac vectors that result from mapping the given color value using first and second color mappings respectively of the plurality of color mappings; obtaining one or more imaging metrics for the first NPac vector and one or more imaging metrics for the second NPac vector; comparing the obtained one or more imaging metrics for the first NPac vector to the obtained one or more imaging metrics for the second NPac vector; and selecting one of the first and second NPac vectors based on the comparison, wherein the selected one of the first and second NPac vectors is used as an output NPac vector for the given color value. accessing a plurality of color mappings , each color mapping providing a mapping from a color value in a color space to a Neugebauer Primary area coverage (NPac) vector; for a given color value in the color space: determining first and second NPac vectors that result from mapping the given color value using first and second color mappings respectively of the plurality of color mappings; obtaining one or more imaging metrics for the first NPac vector and one or more imaging metrics for the second NPac vector; comparing the obtained one or more imaging metrics for the first NPac vector to the obtained one or more imaging metrics for the second NPac vector; and selecting one of the first and second NPac vectors based on the comparison, determining first and second NPac vectors that result from mapping the given color value using first and second color mappings respectively of the plurality of color mappings; obtaining one or more imaging metrics for the first NPac vector and one or more imaging metrics for the second NPac vector; comparing the obtained one or more imaging metrics for the first NPac vector to the obtained one or more imaging metrics for the second NPac vector; and selecting one of the first and second NPac vectors based on the comparison, wherein the selected one of the first and second NPac vectors is used as an output NPac vector for the given color value.
A method of wireless communication, the method being performed by a base station and comprising: determining, by the base station , one or more silent subcarriers among a plurality of subcarriers in a physical resource block, PRB, associated with a communication system; and transmitting, to a user equipment, a signaling instruction via downlink control information, DCI, signaling that instructs whether to mute the one or more silent subcarriers, wherein the signaling instruction instructs whether to mute the one or more silent subcarriers when a muting-subcarrier function is enabled via signaling and in response to the one or more silent subcarriers being in the data channel, wherein the communication system and another communication system comprise a first PRB located on one side of a direct current, DC, subcarrier that is aligned, and wherein the communication system and another communication system comprise a set of PRBs located on another side of the DC subcarrier that are misaligned. determining, by the base station , one or more silent subcarriers among a plurality of subcarriers in a physical resource block, PRB, associated with a communication system; and transmitting, to a user equipment, a signaling instruction via downlink control information, DCI, signaling that instructs whether to mute the one or more silent subcarriers, wherein the signaling instruction instructs whether to mute the one or more silent subcarriers when a muting-subcarrier function is enabled via signaling and in response to the one or more silent subcarriers being in the data channel, wherein the communication system and another communication system comprise a first PRB located on one side of a direct current, DC, subcarrier that is aligned, and wherein the communication system and another communication system comprise a set of PRBs located on another side of the DC subcarrier that are misaligned. wherein the signaling instruction instructs whether to mute the one or more silent subcarriers when a muting-subcarrier function is enabled via signaling and in response to the one or more silent subcarriers being in the data channel, wherein the communication system and another communication system comprise a first PRB located on one side of a direct current, DC, subcarrier that is aligned, and wherein the communication system and another communication system comprise a set of PRBs located on another side of the DC subcarrier that are misaligned.
A method comprising: a) obtaining a solid silica support; b) reacting the solid silica support with a silicon alkoxide of the formula: SiX4; wherein X is selected from the group consisting of methoxylate, ethyoxylate, isopropoxylate and tert-butoxylate; and c) depositing titanium from a titanium source on the solid silica support reacted with a silicon alkoxide to form a catalyst in an initial environment comprising an inert gas. a) obtaining a solid silica support; b) reacting the solid silica support with a silicon alkoxide of the formula: SiX4; wherein X is selected from the group consisting of methoxylate, ethyoxylate, isopropoxylate and tert-butoxylate; and c) depositing titanium from a titanium source on the solid silica support reacted with a silicon alkoxide to form a catalyst in an initial environment comprising an inert gas.
A backrest for a vehicle seat comprising a backrest frame , at least one headrest attachment rod , and a backrest trim , the backrest trim comprising at least one rear central shell , attached to a rear face of the backrest frame , the rear central shell comprising at least one hole passed through by the at least one headrest attachment rod .