mhurhangee/ep-ind-claims huggingface dataset:
Domestic appliance for treating food by means of electromagnetic radiation, comprising - a food treatment chamber in which food to be treated is to be positioned; - a radiation generator which is designed to introduce electromagnetic radiation into the food treatment chamber; and - a shielding structure (28, 28a, 28b) which has a slot and is designed to at least locally limit the propagation of the electromagnetic radiation introduced into the food treatment chamber, characterised by - a camera which is arranged in the region of the slot of the shielding structure (28, 28a, 28b) and is designed to generate images of the food handling chamber, an image sensor of the camera being arranged on the side of the shielding structure (28, 28a, 28b) facing away from the food treatment chamber and at least one objective lens (32a-32c) of the camera being arranged on the side of the shielding structure (28, 28a, 28b) facing the food treatment chamber or being arranged within the food treatment chamber. - a food treatment chamber in which food to be treated is to be positioned; - a radiation generator which is designed to introduce electromagnetic radiation into the food treatment chamber; and - a shielding structure (28, 28a, 28b) which has a slot and is designed to at least locally limit the propagation of the electromagnetic radiation introduced into the food treatment chamber, characterised by - a camera which is arranged in the region of the slot of the shielding structure (28, 28a, 28b) and is designed to generate images of the food handling chamber,
A device for assessing in real time the hypnotic and analgesic effect in a subject during wakefulness, sedation and general anesthesia, comprising at least one processor and at least one computer readable medium coupled to the processor, said at least one computer readable medium comprises operations executed by said at least one processor, said operations are: a. receiving electroencephalography data; b. receiving a second set of data on the state of brain function from a brain impedance tomography device; c. receiving drug interaction data of drug infused in said subject; d. defining an initial index of nociception (qNOX) as a function of said EEG data and said second set of data; e. providing final index of nociception (qNOX'); wherein said processor is configured to calculate said index of nociception (qNOX(')) in real time using established mathematical manipulation from input of said EEG data and said drug interaction data. a. receiving electroencephalography data; b. receiving a second set of data on the state of brain function from a brain impedance tomography device; c. receiving drug interaction data of drug infused in said subject; d. defining an initial index of nociception (qNOX) as a function of said EEG data and said second set of data; e. providing final index of nociception (qNOX');
An uplink power control method, comprising: configuring, by a network-side device, an uplink signal of a user equipment with at least two sets of uplink power control parameters; and notifying the user equipment of the configured respective sets of uplink power control parameters for the user equipment to determine transmit power of the uplink signal; wherein the uplink signal is a Sounding Reference Signal, SRS; characterized in that, the uplink power control parameters of the uplink signal are target values PO_PUSCH(j) of received power of respective categories of PUSCHs, and wherein j represents a category identifier of PUSCH and takes the values of 0, 1 or 2; and configuring, by the network-side device, the uplink signal of the user equipment with the at least two sets of uplink power control parameters particularly comprises: selecting, by the network-side device, PO_PUSCH(k) among the target values of received power of the respective categories of PUSCHs, wherein k is at least one of 0, 1 and 2; and for selected PO_PUSCH(k), configuring, by the network-side device, the user equipment with parameter values PO_PUSCH_s1(k),..., PO_PUSCH_sN(k), wherein N represents the number of sets of uplink power control parameters to be configured. configuring, by a network-side device, an uplink signal of a user equipment with at least two sets of uplink power control parameters; and notifying the user equipment of the configured respective sets of uplink power control parameters for the user equipment to determine transmit power of the uplink signal; wherein the uplink signal is a Sounding Reference Signal, SRS; characterized in that, the uplink power control parameters of the uplink signal are target values PO_PUSCH(j) of received power of respective categories of PUSCHs, and wherein j represents a category identifier of PUSCH and takes the values of 0, 1 or 2; and configuring, by the network-side device, the uplink signal of the user equipment with the at least two sets of uplink power control parameters particularly comprises: selecting, by the network-side device, PO_PUSCH(k) among the target values of received power of the respective categories of PUSCHs, wherein k is at least one of 0, 1 and 2; and for selected PO_PUSCH(k), configuring, by the network-side device, the user equipment with parameter values PO_PUSCH_s1(k),..., PO_PUSCH_sN(k), wherein N represents the number of sets of uplink power control parameters to be configured. selecting, by the network-side device, PO_PUSCH(k) among the target values of received power of the respective categories of PUSCHs, wherein k is at least one of 0, 1 and 2; and for selected PO_PUSCH(k), configuring, by the network-side device, the user equipment with parameter values PO_PUSCH_s1(k),..., PO_PUSCH_sN(k), wherein N represents the number of sets of uplink power control parameters to be configured.
A treatment set for improving cosmetic appearance of a subject, comprising: a diode laser configured to emit light having a wavelength of 980 nm for heating an adipose tissue to a temperature in the range of 75°C ± 25°C for reducing localized lipodystrophies and flaccidity with simultaneous collagen reformation; an optical fiber (102, 308, 408, 708, 724) configured to deliver the light to a treatment site; a cannula (104, 300, 402, 702) configured to introduce said optical fiber (308, 408, 708) to the treatment site; wherein said cannula (104, 300, 402, 702) has a lumen (306, 404, 734) for inputting a fluid into the treatment site and for outputting a fluid from the treatment site; and a pump for inputting the fluid through the lumen of the cannula (104, 300, 402, 702). a diode laser configured to emit light having a wavelength of 980 nm for heating an adipose tissue to a temperature in the range of 75°C ± 25°C for reducing localized lipodystrophies and flaccidity with simultaneous collagen reformation; an optical fiber (102, 308, 408, 708, 724) configured to deliver the light to a treatment site; a cannula (104, 300, 402, 702) configured to introduce said optical fiber (308, 408, 708) to the treatment site; wherein said cannula (104, 300, 402, 702) has a lumen (306, 404, 734) for inputting a fluid into the treatment site and for outputting a fluid from the treatment site; and a pump for inputting the fluid through the lumen of the cannula (104, 300, 402, 702).
A recipient electronic device (110-1, 110-2), comprising: a node configured to communicatively couple to an antenna; and an interface circuit, communicatively coupled to the node, configured to communicate with an electronic device, wherein the interface circuit comprises a primary connectivity radio, PCR, and a wake-up radio, WUR; wherein the WUR in the interface circuit is configured to: receive, from the node, a wake-up-radio, WUR, discovery frame associated with the electronic device, wherein the WUR discovery frame comprises an identifier of an operating class of a wireless local area network, WLAN, that includes the electronic device, wherein the operating class specifies a regulatory domain and a channel set of the WLAN in the regulatory domain, and wherein the channel set comprises multiple possible available channels in the regulatory domain; selectively transition the PCR from a lower-power mode to a higher-power mode in response to receiving the WUR discovery frame; and perform additional discovery associated with the electronic device, wherein the additional discovery comprises a scan for at least a channel associated with the WLAN based at least in part on the channel set. a node configured to communicatively couple to an antenna; and an interface circuit, communicatively coupled to the node, configured to communicate with an electronic device, wherein the interface circuit comprises a primary connectivity radio, PCR, and a wake-up radio, WUR; wherein the WUR in the interface circuit is configured to: receive, from the node, a wake-up-radio, WUR, discovery frame associated with the electronic device, wherein the WUR discovery frame comprises an identifier of an operating class of a wireless local area network, WLAN, that includes the electronic device, wherein the operating class specifies a regulatory domain and a channel set of the WLAN in the regulatory domain, and wherein the channel set comprises multiple possible available channels in the regulatory domain; selectively transition the PCR from a lower-power mode to a higher-power mode in response to receiving the WUR discovery frame; and perform additional discovery associated with the electronic device, receive, from the node, a wake-up-radio, WUR, discovery frame associated with the electronic device, wherein the WUR discovery frame comprises an identifier of an operating class of a wireless local area network, WLAN, that includes the electronic device, wherein the operating class specifies a regulatory domain and a channel set of the WLAN in the regulatory domain, and wherein the channel set comprises multiple possible available channels in the regulatory domain; selectively transition the PCR from a lower-power mode to a higher-power mode in response to receiving the WUR discovery frame; and perform additional discovery associated with the electronic device, wherein the additional discovery comprises a scan for at least a channel associated with the WLAN based at least in part on the channel set.
A sensor device comprising: a substrate having a die attached to the substrate, the die including an array of sensors and an array of wells cooperatively disposed over the array of sensors, the array of wells exposed by the substrate; and a flow cell secured to the substrate and defining a flow space disposed over the die and accessible to the array of wells, wells, the flow cell defining a plurality of separate volumes, each volume of the plurality of separate volumes having an inlet and an outlet, the plurality of separate volumes separated by dividers, the dividers covering a set of wells of the array of wells; the sensor device being characterized in that an adhesive secures the flow cell to the substrate, wherein the adhesive secures the dividers to the die, the adhesive covering the set of wells. a substrate having a die attached to the substrate, the die including an array of sensors and an array of wells cooperatively disposed over the array of sensors, the array of wells exposed by the substrate; and a flow cell secured to the substrate and defining a flow space disposed over the die and accessible to the array of wells, wells, the flow cell defining a plurality of separate volumes, each volume of the plurality of separate volumes having an inlet and an outlet, the plurality of separate volumes separated by dividers, the dividers covering a set of wells of the array of wells; the sensor device being characterized in that an adhesive secures the flow cell to the substrate, wherein the adhesive secures the dividers to the die, the adhesive covering the set of wells.
A method of a node performing channel aggregation to communicate over a non-contiguous spectrum using a plurality of aggregated channels including a primary channel and at least one non-primary channel, the method comprising: performing carrier sense multiple access, CSMA, on the primary channel to obtain access to the primary channel; determining the channel status of the primary channel based on the CSMA performed on the primary channel; performing sensing on the at least one non-primary channel; determining the channel status of the at least one non-primary channel based on the channel status of the primary channel and the sensing on the at least one non-primary channel; and performing aggregated transmission on the primary channel and any one of the non-primary channels for which an available channel status has been determined. performing carrier sense multiple access, CSMA, on the primary channel to obtain access to the primary channel; determining the channel status of the primary channel based on the CSMA performed on the primary channel; performing sensing on the at least one non-primary channel; determining the channel status of the at least one non-primary channel based on the channel status of the primary channel and the sensing on the at least one non-primary channel; and performing aggregated transmission on the primary channel and any one of the non-primary channels for which an available channel status has been determined.
A liquid crystal composition exhibiting an optically isotropic liquid crystal phase, the liquid crystal composition comprising an achiral component T and a chiral dopant, wherein the achiral component T contains, as a first component thereof, at least one compound selected from the group consisting of compounds represented by formula in an amount of 32 wt% to 85 wt% relative to a total amount of the achiral component T, wherein R 1 is hydrogen, or C 1-20 alkyl in which arbitrary -CH 2 - is optionally replaced by -O-, -S-, -COO-, -OCO-, -CH=CH-, -CF=CF- or -C≡C- with a proviso that -O- is not adjacent to -CH=CH- and -CO- is not adjacent to -CH=CH-, and in the alkyl and the alkyl in which arbitrary -CH 2 - is replaced by -O-, -S-, -COO-, -OCO-, -CH=CH-, -CF=CF- or -C=C-, arbitrary hydrogen is optionally replaced by halogen; L 1, L 2, L 3, L 4, L 5 and L 6 are each independently hydrogen or fluorine; Z 1 and Z 2 are each independently a single bond or -CF 2 O-, wherein at least one of Z 1 and Z 2 is -CF 2 O-; and X 1 is hydrogen, halogen, -SF 5, or C 1-10 alkyl in which arbitrary -CH 2 - is optionally replaced by -O-, -S-, -COO-, -OCO-, -CH=CH-, -CF=CF- or -C≡C- with a proviso that -O- is not adjacent to -CH=CH- and -CO- is not adjacent to -CH=CH-, and in the alkyl and the alkyl in which arbitrary -CH 2 - is replaced by -O-, -S-, -COO-, -OCO-, -CH=CH-, -CF=CF- or -C≡C-, arbitrary hydrogen atom is optionally replaced by fluorine. wherein R 1 is hydrogen, or C 1-20 alkyl in which arbitrary -CH 2 - is optionally replaced by -O-, -S-, -COO-, -OCO-, -CH=CH-, -CF=CF- or -C≡C- with a proviso that -O- is not adjacent to -CH=CH- and -CO- is not adjacent to -CH=CH-, and in the alkyl and the alkyl in which arbitrary -CH 2 - is replaced by -O-, -S-, -COO-, -OCO-, -CH=CH-, -CF=CF- or -C=C-, arbitrary hydrogen is optionally replaced by halogen; L 1, L 2, L 3, L 4, L 5 and L 6 are each independently hydrogen or fluorine; Z 1 and Z 2 are each independently a single bond or -CF 2 O-, wherein at least one of Z 1 and Z 2 is -CF 2 O-; and X 1 is hydrogen, halogen, -SF 5, or C 1-10 alkyl in which arbitrary -CH 2 - is optionally replaced by -O-, -S-, -COO-, -OCO-, -CH=CH-, -CF=CF- or -C≡C- with a proviso that -O- is not adjacent to -CH=CH- and -CO- is not adjacent to -CH=CH-, and in the alkyl and the alkyl in which arbitrary -CH 2 - is replaced by -O-, -S-, -COO-, -OCO-, -CH=CH-, -CF=CF- or -C≡C-, arbitrary hydrogen atom is optionally replaced by fluorine.
An inflatable bed, comprising: a top sheet and a bottom sheet disposed vertically at an interval; at least one side wall, an upper edge of said side wall being coupled to an outer edge of said top sheet, a lower edge of said side wall being coupled to an outer edge of said bottom sheet, an air chamber formed between said top sheet, said bottom sheet and said side wall; at least one first tensioning structure disposed in said air chamber, an upper end and a lower end of said first tensioning structure being respectively coupled to said top sheet and said bottom sheet; and at least one support structure disposed in said air chamber, said support structure being disposed in a longitudinal direction of at least one of said side walls, at least two outside edges (152,162) of said support structure being respectively coupled to the side wall adjacent, at least one inside edge (153,163) of said support structure being coupled to the top sheet or bottom sheet adjacent, wherein said support structure comprises a second tensioning structure and a third tensioning structure, at least two outside edges of said second tensioning structure are respectively coupled to the side wall adjacent, at least one inside edge of said second tensioning structure is coupled to the top sheet adjacent; and at least two outside edges of said third tensioning structure are respectively coupled to the side wall adjacent, at least one inside edge of said third tensioning structure is coupled to the bottom sheet adjacent. a top sheet and a bottom sheet disposed vertically at an interval; at least one side wall, an upper edge of said side wall being coupled to an outer edge of said top sheet, a lower edge of said side wall being coupled to an outer edge of said bottom sheet, an air chamber formed between said top sheet, said bottom sheet and said side wall; at least one first tensioning structure disposed in said air chamber, an upper end and a lower end of said first tensioning structure being respectively coupled to said top sheet and said bottom sheet; and at least one support structure disposed in said air chamber, said support structure being disposed in a longitudinal direction of at least one of said side walls, at least two outside edges (152,162) of said support structure being respectively coupled to the side wall adjacent, at least one inside edge (153,163) of said support structure being coupled to the top sheet or bottom sheet adjacent, wherein said support structure comprises a second tensioning structure and a third tensioning structure, at least two outside edges of said second tensioning structure are respectively coupled to the side wall adjacent, at least one inside edge of said second tensioning structure is coupled to the top sheet adjacent; and at least two outside edges of said third tensioning structure are respectively coupled to the side wall adjacent, at least one inside edge of said third tensioning structure is coupled to the bottom sheet adjacent.
A non-therapeutic use of a composition for promoting hair growth in a human for applying to scalp or hair roots of said human, the composition comprising as the sole active ingredient effective on promoting hair growth an effective amount of adenine or salts of adenine.
A light emitting diode luminaire, comprising: a linearly extended enclosure having an interior volume and a flat side along a length of the linearly extended enclosure, wherein the flat side comprises an inside surface and an outside surface, wherein the linearly extended enclosure comprises an extruded optically clear plastic, wherein a seal is formed between a continuous surface along a perimeter of the linearly extended enclosure and a continuous surface along a perimeter of an end cap on each end of the linearly extended enclosure, wherein the seal is formed between only two surfaces, wherein the linearly extended enclosure comprises one or more flange sections; and one or more LEDs coupled to one or more circuit boards, wherein the one or more circuit boards are mounted on the inside surface of the flat side of the linearly extended enclosure characterised in that each one of the one or more flange sections provides one or more holes for mounting the LED luminaire without creating a leak path into the linearly extended enclosure. a linearly extended enclosure having an interior volume and a flat side along a length of the linearly extended enclosure, wherein the flat side comprises an inside surface and an outside surface, wherein the linearly extended enclosure comprises an extruded optically clear plastic, wherein a seal is formed between a continuous surface along a perimeter of the linearly extended enclosure and a continuous surface along a perimeter of an end cap on each end of the linearly extended enclosure, wherein the seal is formed between only two surfaces, wherein the linearly extended enclosure comprises one or more flange sections; and one or more LEDs coupled to one or more circuit boards, wherein the one or more circuit boards are mounted on the inside surface of the flat side of the linearly extended enclosure characterised in that each one of the one or more flange sections provides one or more holes for mounting the LED luminaire without creating a leak path into the linearly extended enclosure.
A strut-holding clip, comprising: an end wall; a first leg and a second leg extending from the end wall, the first leg and the second leg configured to straddle the gear selection strut; a first prong configured to flex within the first leg; a second prong configured to flex within the second leg; characterized in that the end wall is configured to block a gear selection strut from travelling; the first prong terminates in a first barb; the second prong terminates in a second barb; the strut-holding clip further comprising: a first foot angled with respect to the first leg and configured to elastically oppose the first barb; and a second foot angled with respect to the second leg and configured to elastically oppose the second barb. an end wall; a first leg and a second leg extending from the end wall, the first leg and the second leg configured to straddle the gear selection strut; a first prong configured to flex within the first leg; a second prong configured to flex within the second leg; characterized in that the end wall is configured to block a gear selection strut from travelling; the first prong terminates in a first barb; the second prong terminates in a second barb; the strut-holding clip further comprising: a first foot angled with respect to the first leg and configured to elastically oppose the first barb; and a second foot angled with respect to the second leg and configured to elastically oppose the second barb. a first foot angled with respect to the first leg and configured to elastically oppose the first barb; and a second foot angled with respect to the second leg and configured to elastically oppose the second barb.
A method for producing polyoxyalkylene alkyl ether carboxylic acid or a salt thereof, the method comprising an oxidation reaction process of oxidizing polyoxyalkylene alkyl ether with oxygen by supplying an oxygen-containing gas to a suspension or a solution that has a depth of 200 mm or more and includes polyoxyalkylene alkyl ether, wherein in the oxidation reaction process, in a period in which a conversion expressed by Equation is greater than or equal to 50% and less than 70%, a supply rate of the oxygen-containing gas is reduced such that a supply rate of oxygen to a total mole number of polyoxyalkylene alkyl ether, Polyoxyalkylene alkyl ether carboxylic acid, and the salt thereof is reduced from a range greater than 10 mol%/h and less than or equal to 15 mol%/h to a range greater than or equal to 1 mol%/h and less than or equal to 10 mol%/h, conversion % = c 2 × 100 / c 1 + c 2 [where c1 is a molarity (mol/L) of polyoxyalkylene alkyl ether, and c2 is a total molarity (mol/L) of polyoxyalkylene alkyl ether carboxylic acid and the salt thereof]. [where c1 is a molarity (mol/L) of polyoxyalkylene alkyl ether, and c2 is a total molarity (mol/L) of polyoxyalkylene alkyl ether carboxylic acid and the salt thereof].