mhurhangee/ep-ind-claims huggingface dataset:
Use of an oil based preparation for diminishing fine wrinkles, wherein the oil based preparation containing: i) 70% by mass to 85% by mass of an oil constituent, which contains a solid or semisolid non-polar hydrocarbon oil in a proportion of at least 30% by mass with respect to a total quantity of the oil constituent, and ii) 15% by mass to 30% by mass of particles, which comprise elastic spherical silicone type particles and spherical silica particles, wherein the oil based preparation has occlusion characteristics of at least 50%, and the proportion of water and water-soluble constituents contained in the oil based preparation is at most 1 % by mass. i) 70% by mass to 85% by mass of an oil constituent, which contains a solid or semisolid non-polar hydrocarbon oil in a proportion of at least 30% by mass with respect to a total quantity of the oil constituent, and ii) 15% by mass to 30% by mass of particles, which comprise elastic spherical silicone type particles and spherical silica particles,
A vertical takeoff and landing multirotor aircraft comprising: a winged carrier frame that comprises wing shaped left and right arms connected to left and right supporting frames (510, 610) connected together by a main spar, said left and right wing shaped arms are symmetrical comprising forward and aft wing shaped arms, each said wing shaped arm has propulsion system housings and supporting nacelles; a tilting fuselage having a cockpit, a cabin and a tail section, that accommodates payload and is configured to be tilted 90° when said winged carrier frame switched to airplane mode or multirotor mode to keep position of the fuselage relatively parallel to the ground in both two flight modes; wherein, said supporting nacelles also include landing gears (710, 720, 750, 760); wherein, said winged carrier frame and said tilting fuselage having semi monocoque structure; wherein, said main spar passes through a fuselage supporting spar in the midst of the aircraft; wherein, tilting motion of the said tilting fuselage provided by a tilting mechanism. a winged carrier frame that comprises wing shaped left and right arms connected to left and right supporting frames (510, 610) connected together by a main spar, said left and right wing shaped arms are symmetrical comprising forward and aft wing shaped arms, each said wing shaped arm has propulsion system housings and supporting nacelles; a tilting fuselage having a cockpit, a cabin and a tail section, that accommodates payload and is configured to be tilted 90° when said winged carrier frame switched to airplane mode or multirotor mode to keep position of the fuselage relatively parallel to the ground in both two flight modes; wherein, said supporting nacelles also include landing gears (710, 720, 750, 760); wherein, said winged carrier frame and said tilting fuselage having semi monocoque structure; wherein, said main spar passes through a fuselage supporting spar in the midst of the aircraft; wherein, tilting motion of the said tilting fuselage provided by a tilting mechanism.
Method for preparing an adipate ester or adipate thioester, comprising converting a 2,3-dehydroadipate ester or 2,3-dehydroadipate thioester into the adipate ester or thioester in the presence of a biocatalyst.
A mouthpiece-type teeth cleaner, comprising: conduits embedded in the mouthpiece, wherein one end of the conduits is provided with small hole openings; the teeth cleaner further comprises an excitation source, configure to generate one or more groups of alternating excitation signals, wherein one or more cleaning operations, with different cleaning actions applied to various parts of the teeth are generated according to the excitation signals; a bristle module (61, 62) arranged on the mouthpiece; a hollow bulge communicated with a channel of the conduits and arranged on a wall surface of the conduits; and a plurality of actuation modules connected with the excitation source and arranged in the mouthpiece; wherein, said one end of the conduits is corresponding to a relevant position of the tooth; another end of the conduits is connected with the excitation source; and in the mouthpiece, a correlation between the cleaning operation and the cleaning action and each part of applied tooth is established in advance, and the correlation enabling each position of the tooth of the user to be individually cleaned. conduits embedded in the mouthpiece, wherein one end of the conduits is provided with small hole openings; the teeth cleaner further comprises an excitation source, configure to generate one or more groups of alternating excitation signals, wherein one or more cleaning operations, with different cleaning actions applied to various parts of the teeth are generated according to the excitation signals; a bristle module (61, 62) arranged on the mouthpiece; a hollow bulge communicated with a channel of the conduits and arranged on a wall surface of the conduits; and a plurality of actuation modules connected with the excitation source and arranged in the mouthpiece; wherein, said one end of the conduits is corresponding to a relevant position of the tooth; another end of the conduits is connected with the excitation source; and in the mouthpiece, a correlation between the cleaning operation and the cleaning action and each part of applied tooth is established in advance, and the correlation enabling each position of the tooth of the user to be individually cleaned. an excitation source, configure to generate one or more groups of alternating excitation signals, wherein one or more cleaning operations, with different cleaning actions applied to various parts of the teeth are generated according to the excitation signals; a bristle module (61, 62) arranged on the mouthpiece; a hollow bulge communicated with a channel of the conduits and arranged on a wall surface of the conduits; and a plurality of actuation modules connected with the excitation source and arranged in the mouthpiece; wherein, said one end of the conduits is corresponding to a relevant position of the tooth; another end of the conduits is connected with the excitation source; and in the mouthpiece, a correlation between the cleaning operation and the cleaning action and each part of applied tooth is established in advance, and the correlation enabling each position of the tooth of the user to be individually cleaned.
A method of stabilizing, between a high frequency, fa, and a low frequency, fb, an electrical network powering a plurality of sub-networks, each sub-network being associated with a sub-network manager and powering a plurality, N, of consumer sites, each site, j, comprising non-sheddable loads and sheddable loads, the method comprising, for each sub-network, the steps of: ensuring a remote communication between each site and its sub-network manager; periodically measuring at the level of each site the value of the instantaneous power capable of being cut back consumed by the sheddable loads of the site; deducing for each site an estimated power capable of being cut back, P j, for an upcoming period; setting an order 1 to N in which the N sites disconnect their sheddable loads; and sending to each site j a threshold frequency, fs j, such that sheddable loads of this site are disconnected when the network frequency falls below threshold frequency fs j, caracterized in that the sub-network manager calculates the threshold frequencies based on the estimated powers capable of being cut back so that the variation of the cutback powers according to frequency is as linear as possible. ensuring a remote communication between each site and its sub-network manager; periodically measuring at the level of each site the value of the instantaneous power capable of being cut back consumed by the sheddable loads of the site; deducing for each site an estimated power capable of being cut back, P j, for an upcoming period; setting an order 1 to N in which the N sites disconnect their sheddable loads; and sending to each site j a threshold frequency, fs j, such that sheddable loads of this site are disconnected when the network frequency falls below threshold frequency fs j, caracterized in that the sub-network manager calculates the threshold frequencies based on the estimated powers capable of being cut back so that the variation of the cutback powers according to frequency is as linear as possible.
A magnetic material expressed by a composition formula: (R 1-x Y x) a M b T c A d where R is at least one element selected from the group consisting of rare-earth elements, T is at least one element selected from the group consisting of Ti, V, Nb, Ta, Mo, and W, M is Fe or Fe and Co, A is at least one element selected from the group consisting of N, C, B, H, and P, x is a number satisfying 0.01 ≤ x ≤ 0.8, a is a number satisfying 4 ≤ a ≤ 20 atomic percent, b is a number satisfying b = 100 - a - c - d atomic percent, c is a number satisfying 0 < c < 7 atomic percent, and d is a number satisfying 0 ≤ d ≤ 18 atomic percent, the magnetic material comprising: a main phase consisting of a ThMn 12 type crystal phase, wherein 30 atomic percent or more of the element M in the composition formula is Fe, and characterized in that, in an X-ray diffraction pattern of the magnetic material, a ratio of a maximum value of a peak intensity corresponding to an α- (Fe, Co) phase to a sum of a maximum value of a peak intensity corresponding to the ThMn 12 type crystal phase and the maximum value of the peak intensity corresponding to an α-(Fe, Co) phase is less than 0.20. where R is at least one element selected from the group consisting of rare-earth elements, T is at least one element selected from the group consisting of Ti, V, Nb, Ta, Mo, and W, M is Fe or Fe and Co, A is at least one element selected from the group consisting of N, C, B, H, and P, x is a number satisfying 0.01 ≤ x ≤ 0.8, a is a number satisfying 4 ≤ a ≤ 20 atomic percent, b is a number satisfying b = 100 - a - c - d atomic percent, c is a number satisfying 0 < c < 7 atomic percent, and d is a number satisfying 0 ≤ d ≤ 18 atomic percent, the magnetic material comprising: a main phase consisting of a ThMn 12 type crystal phase, wherein 30 atomic percent or more of the element M in the composition formula is Fe, and characterized in that, in an X-ray diffraction pattern of the magnetic material, a ratio of a maximum value of a peak intensity corresponding to an α- (Fe, Co) phase to a sum of a maximum value of a peak intensity corresponding to the ThMn 12 type crystal phase and the maximum value of the peak intensity corresponding to an α-(Fe, Co) phase is less than 0.20. a main phase consisting of a ThMn 12 type crystal phase, wherein 30 atomic percent or more of the element M in the composition formula is Fe, and characterized in that, in an X-ray diffraction pattern of the magnetic material, a ratio of a maximum value of a peak intensity corresponding to an α- (Fe, Co) phase to a sum of a maximum value of a peak intensity corresponding to the ThMn 12 type crystal phase and the maximum value of the peak intensity corresponding to an α-(Fe, Co) phase is less than 0.20.
A communication apparatus (1000,9000) supporting communication over a legacy WiGig and over an enhanced directional multi-gigabit, EDMG, the communication apparatus comprising: a PPDU generation unit configured to, with respect to an aggregate physical layer convergence protocol data unit, A-PPDU, including a legacy STF, a legacy CEF, a legacy header field, a non-legacy STF, a non-legacy CEF, multiple non-legacy header fields, and multiple data fields, set a nominal data octet size computed on a basis of a nominal data field length in the legacy header field, and set a first Additional PPDU field included in the legacy header field to 0; a signal processing unit configured to form the A-PPDU in the nominal data field length or less; and a transmission unit configured to transmit the formed A-PPDU, a reception unit configured to receive an Ack frame in response to the transmitted A-PPDU, wherein each of the multiple non-legacy header fields indicates the length of a corresponding one of the multiple data fields; wherein each of the multiple non-legacy header fields comprises another Additional PPDU field indicating the presence or absence of a subsequent non-legacy header field and a data field; and wherein the nominal data field length is a time equal to or greater than a total of the non-legacy STF, the non-legacy CEF, the multiple non-legacy header fields, and the multiple data fields. a PPDU generation unit configured to, with respect to an aggregate physical layer convergence protocol data unit, A-PPDU, including a legacy STF, a legacy CEF, a legacy header field, a non-legacy STF, a non-legacy CEF, multiple non-legacy header fields, and multiple data fields, set a nominal data octet size computed on a basis of a nominal data field length in the legacy header field, and set a first Additional PPDU field included in the legacy header field to 0; a signal processing unit configured to form the A-PPDU in the nominal data field length or less; and a transmission unit configured to transmit the formed A-PPDU, a reception unit configured to receive an Ack frame in response to the transmitted A-PPDU, wherein each of the multiple non-legacy header fields indicates the length of a corresponding one of the multiple data fields; wherein each of the multiple non-legacy header fields comprises another Additional PPDU field indicating the presence or absence of a subsequent non-legacy header field and a data field; and wherein the nominal data field length is a time equal to or greater than a total of the non-legacy STF, the non-legacy CEF, the multiple non-legacy header fields, and the multiple data fields.
A method for processing packet, comprising: receiving, by a first network device, a forwarded packet; performing, by the first network device, a flow table matching for the forwarded packet, and if unmatched, encapsulating, by the first network device, the forwarded packet with an inner encapsulation of an remote tunnel and an outer encapsulation of the remote tunnel, and transmitting to a second network device, so that the second network device forwards the forwarded packet to a control server for a processing; receiving, by the first network device, a flow table packet returned by the second network device, wherein the flow table packet carries flow table information of the forwarded packet and a special layer 2 frame header is encapsulated in the flow table packet; and after removing an ordinary layer 2 frame header encapsulated on the flow table packet, processing, by the first network device, the flow table packet directly on a data forwarding plane according to an operation indicated by an Ethernet type value in the special layer 2 frame header. receiving, by a first network device, a forwarded packet; performing, by the first network device, a flow table matching for the forwarded packet, and if unmatched, encapsulating, by the first network device, the forwarded packet with an inner encapsulation of an remote tunnel and an outer encapsulation of the remote tunnel, and transmitting to a second network device, so that the second network device forwards the forwarded packet to a control server for a processing; receiving, by the first network device, a flow table packet returned by the second network device, wherein the flow table packet carries flow table information of the forwarded packet and a special layer 2 frame header is encapsulated in the flow table packet; and after removing an ordinary layer 2 frame header encapsulated on the flow table packet, processing, by the first network device, the flow table packet directly on a data forwarding plane according to an operation indicated by an Ethernet type value in the special layer 2 frame header.
A food additive for fodder for animal nutrition, the additive comprising a liquid mixture of a polyol together with i) a phytase in an amount suited to provide a final phytase activity of between 10,000 and 100,000 FTU/ml, FTU being the amount of enzyme necessary to release 1 μmol of inorganic orthophosphate per minute in a solution containing 0.0051 mol/l of sodium phytate at pH 5.5 and at a temperature of 37 °C; ii) ground vegetable fibre with a maximum particle diameter of 250 μm, iii) citric acid in a concentration between 1-5 % by weight with respect to the total weight of the liquid mixture as chelating agent, stabilising the pH at pH 5 and a phosphorus source selected among monocalcium phosphate, monodicalcium phosphate or a combination of both in the form of defluorinated or granulated mud. i) a phytase in an amount suited to provide a final phytase activity of between 10,000 and 100,000 FTU/ml, FTU being the amount of enzyme necessary to release 1 μmol of inorganic orthophosphate per minute in a solution containing 0.0051 mol/l of sodium phytate at pH 5.5 and at a temperature of 37 °C; ii) ground vegetable fibre with a maximum particle diameter of 250 μm, iii) citric acid in a concentration between 1-5 % by weight with respect to the total weight of the liquid mixture as chelating agent, stabilising the pH at pH 5 and
A fluorescent test paper for detecting mercury ions, comprising a fluorescence development area, wherein the fluorescence development area comprises a copper nanoclusters distribution area, wherein copper nanoclusters fluorescent probes for detecting a concentration of the mercury ions are distributed in the copper nanoclusters distribution area; characterized in that the fluorescent test paper further comprises a carbon quantum dots distribution area distinct from the copper nanoclusters distribution area; wherein carbon quantum dots fluorescent probes for checking an environment are distributed in the carbon quantum dots distribution area; the fluorescent test paper further comprises a standard fluorescent colorimetric card, the standard fluorescent colorimetric card comprises a reference channel area and a standard mercury ion sample concentration area, wherein the reference channel area comprises a reference channel excitation wavelength printing area and a reference channel-related excited color printing area, and the standard mercury ion sample concentration area comprises a standard mercury ion sample concentration identification area, a standard mercury ion sample-related excited color identification area, and a standard mercury ion concentration unit identification area. the fluorescent test paper further comprises a carbon quantum dots distribution area distinct from the copper nanoclusters distribution area; wherein carbon quantum dots fluorescent probes for checking an environment are distributed in the carbon quantum dots distribution area; the fluorescent test paper further comprises a standard fluorescent colorimetric card, the standard fluorescent colorimetric card comprises a reference channel area and a standard mercury ion sample concentration area, wherein the reference channel area comprises a reference channel excitation wavelength printing area and a reference channel-related excited color printing area, and the standard mercury ion sample concentration area comprises a standard mercury ion sample concentration identification area, a standard mercury ion sample-related excited color identification area, and a standard mercury ion concentration unit identification area.
A polymerization process to produce a polyolefin polymer comprising: contacting in a polymerization reactor one or more olefins, a first Ziegler-Natta type procatalyst, a second Ziegler-Natta type procatalyst, and at least one cocatalyst; wherein the first Ziegler-Natta type procatalyst is free of any electron donor component and the second Ziegler-Natta type procatalysts comprises at least one electron donor component; and wherein the first Ziegler-Natta type procatalyst comprises the spray dried reaction product of contacting a Group 4 metal compound with one or more Titanium compounds selected from the group TiCl 3 (Al-activated or hydrogen-reduced), and Ti 4 where R is ethyl, isopropyl or n-butyl in the presence of an alcohol solution comprising at least one C 2 -C 4 alcohol and at least one of MgCl 2 and magnesium compounds which form MgCl 2 in the presence of the alcohol solution; and wherein the second Ziegler-Natta type procatalyst corresponds to the formula [Mg] 4 Ti(OR e) e X f q, wherein; R e is an aliphatic or aromatic hydrocarbon radical having from 1 to 14 carbon atoms or COR' wherein R' is an aliphatic or aromatic hydrocarbon radical having from 1 to 14 carbon atoms; each OR e group is the same or different; X Is independently R'. chlorine, bromine or iodine; d is 0.5 to 5; e is 0-12; and f is 1-10; ED is an electron donor; q is from 0 to 50; and r is 0, 1, or 2. contacting in a polymerization reactor one or more olefins, a first Ziegler-Natta type procatalyst, a second Ziegler-Natta type procatalyst, and at least one cocatalyst; wherein the first Ziegler-Natta type procatalyst is free of any electron donor component and the second Ziegler-Natta type procatalysts comprises at least one electron donor component; and wherein the first Ziegler-Natta type procatalyst comprises the spray dried reaction product of contacting a Group 4 metal compound with one or more Titanium compounds selected from the group TiCl 3 (Al-activated or hydrogen-reduced), and Ti 4 where R is ethyl, isopropyl or n-butyl in the presence of an alcohol solution comprising at least one C 2 -C 4 alcohol and at least one of MgCl 2 and magnesium compounds which form MgCl 2 in the presence of the alcohol solution; and wherein the second Ziegler-Natta type procatalyst corresponds to the formula [Mg] 4 Ti(OR e) e X f q, wherein; R e is an aliphatic or aromatic hydrocarbon radical having from 1 to 14 carbon atoms or COR' wherein R' is an aliphatic or aromatic hydrocarbon radical having from 1 to 14 carbon atoms; each OR e group is the same or different; X Is independently R'. chlorine, bromine or iodine; d is 0.5 to 5; e is 0-12; and f is 1-10; ED is an electron donor; q is from 0 to 50; and r is 0, 1, or 2.
Safety device for the safety of an operator in a rotor, more particularly a wind turbine, comprising, in a hollow chamber (21, 22, 23) between a hub and a rotor housing of the rotor, - a platform having a number of standing surfaces of which when the safety device is used as intended at least one standing surface lies substantially horizontal, wherein the platform comprises three platform elements each with at least one standing surface which form a triangle wherein at least one of the platform elements comprises at least one opening as access for an operator as well as one closing element for closing the opening; - fixing device (18, 28) for fixing the platform on the hub and/or on an inner side of the rotor housing. - a platform having a number of standing surfaces of which when the safety device is used as intended at least one standing surface lies substantially horizontal, wherein the platform comprises three platform elements each with at least one standing surface which form a triangle wherein at least one of the platform elements comprises at least one opening as access for an operator as well as one closing element for closing the opening; - fixing device (18, 28) for fixing the platform on the hub and/or on an inner side of the rotor housing.
An absorbent structure comprising a first open cell foam and a second open cell foam, wherein the first open cell foam is associated with, but not through the use of adhesives, the second open cell foam; characterized in that the first open cell foam comprises a thermoplastic, the second open cell foam is a High Internal Phase Emulsion foam, and the first open cell foam provides a cellular structure comprising the second open cell foam.