mhurhangee/ep-ind-claims huggingface dataset:
A system for detecting moisture in an absorbent article worn by a wearer, the system comprising: an impedance sensing element, wherein the impedance sensing element includes electrodes (290a, 290b); and an impedance measurement subsystem for measuring the impedance of the absorbent article, and extracting a real component of the impedance and an imaginary component of the impedance for determining a characteristic of a moisture in the absorbent article, wherein the characteristic includes a presence of the moisture in the absorbent article characterized in that the system further comprises: an attachment member for securing the impedance sensing element at a location on an exterior surface of the absorbent article, wherein the electrodes (290a, 290b) are positioned so as to be capacitively coupled to an interior region of the absorbent article and to measure an impedance of the absorbent article from the location on the exterior surface of the absorbent article without making galvanic contact with the moisture in the absorbent article. an impedance sensing element, wherein the impedance sensing element includes electrodes (290a, 290b); and an impedance measurement subsystem for measuring the impedance of the absorbent article, and extracting a real component of the impedance and an imaginary component of the impedance for determining a characteristic of a moisture in the absorbent article, wherein the characteristic includes a presence of the moisture in the absorbent article characterized in that the system further comprises: an attachment member for securing the impedance sensing element at a location on an exterior surface of the absorbent article, wherein the electrodes (290a, 290b) are positioned so as to be capacitively coupled to an interior region of the absorbent article and to measure an impedance of the absorbent article from the location on the exterior surface of the absorbent article without making galvanic contact with the moisture in the absorbent article.
A white LED lighting device driven by a pulse current, characterized in that the white LED lighting device comprises a blue LED chip and a luminescence coating made of a luminescence material, the luminescence material being any one of the following combinations and of blue afterglow luminescence material A and yellow luminescence material B, the yellow luminescence material B being able to emit light under excitation of the blue LED chip and excitation of the blue afterglow luminescence material A, combination: the combination of 5wt%Sr 2 MgSi 2 O 7:Eu 2+,Dy 3+ +15wt%CaSrS:Bi 3+ +20wt%Sr 4 Al 14 O 25:Eu 2+,Dy 3+ and 15wt%Sr3SiO 5:Eu 2+, Dy 3+ +20wt%Ca 2 MgSi 2 O 7: Eu 2+, Dy 3+ +25wt%Y 3 Al 5 O 12:Ce, combination: the combination of 35wt%CaS:Bi 3+,Na + and 25wt%Y 2 O 3 •Al 2 O 3 •SiO 2:Ce•B•Na•P+10wt%CaS:Sm 3+ +15wt%Y 2 O 2 S:Mg,Ti+5wt%S r 3 SiO 5:Eu 2+,Dy 3+ +10wt%Ca 2 MgSi 2 O 7:Eu 2+,Dy 3+; the white LED lighting device driving the LED chips with a pulse current having a frequency of not less than 50 Hz. the combination of 5wt%Sr 2 MgSi 2 O 7:Eu 2+,Dy 3+ +15wt%CaSrS:Bi 3+ +20wt%Sr 4 Al 14 O 25:Eu 2+,Dy 3+ and 15wt%Sr3SiO 5:Eu 2+, Dy 3+ +20wt%Ca 2 MgSi 2 O 7: Eu 2+, Dy 3+ +25wt%Y 3 Al 5 O 12:Ce, the combination of 35wt%CaS:Bi 3+,Na + and 25wt%Y 2 O 3 •Al 2 O 3 •SiO 2:Ce•B•Na•P+10wt%CaS:Sm 3+ +15wt%Y 2 O 2 S:Mg,Ti+5wt%S r 3 SiO 5:Eu 2+,Dy 3+ +10wt%Ca 2 MgSi 2 O 7:Eu 2+,Dy 3+; the white LED lighting device driving the LED chips with a pulse current having a frequency of not less than 50 Hz.
Forming drum for producing tyres for vehicle wheels comprising: a central shaft concentric to a geometric rotation axis of the forming drum; two lateral deposition surfaces (3, 4) radially outer with respect to the central shaft and axially opposite, wherein the two lateral deposition surfaces (3, 4) are set in rotation by the central shaft around the geometric rotation axis; an adjustment linkage, configured to axially move the two lateral deposition surfaces (3, 4) towards and away from one another, comprising an adjustment shaft coaxial with the central shaft wherein a relative rotation between the adjustment shaft and the central shaft actuates the adjustment linkage; at least one actuation device fixedly connected to the adjustment shaft; and characterized by at least one locking device operating on the actuation device between a first condition in which it prevents the rotation of the actuation device with respect to the central shaft and a second condition in which it allows the relative rotation between the actuation device and the central shaft; the locking device, when in the first condition, defining a plurality of locking positions for the actuation device, wherein any locking position is reachable by the actuation device, starting from a previous locking position, following a relative and predetermined angular rotation between the actuation device and the central shaft with the locking device in the second condition. a central shaft concentric to a geometric rotation axis of the forming drum; two lateral deposition surfaces (3, 4) radially outer with respect to the central shaft and axially opposite, wherein the two lateral deposition surfaces (3, 4) are set in rotation by the central shaft around the geometric rotation axis; an adjustment linkage, configured to axially move the two lateral deposition surfaces (3, 4) towards and away from one another, comprising an adjustment shaft coaxial with the central shaft wherein a relative rotation between the adjustment shaft and the central shaft actuates the adjustment linkage; at least one actuation device fixedly connected to the adjustment shaft; and characterized by at least one locking device operating on the actuation device between a first condition in which it prevents the rotation of the actuation device with respect to the central shaft and a second condition in which it allows the relative rotation between the actuation device and the central shaft; the locking device, when in the first condition, defining a plurality of locking positions for the actuation device, wherein any locking position is reachable by the actuation device, starting from a previous locking position, following a relative and predetermined angular rotation between the actuation device and the central shaft with the locking device in the second condition.
A transmission method in a first wireless device, comprising the steps of: obtaining first control auxiliary information from a second wireless device, the first control auxiliary information comprising information about a resource allocation scheme used by the second wireless device, wherein the control auxiliary information is transmitted by the second wireless device to the first wireless device, determining, based at least in part on the first control auxiliary information, one or more characteristics of the resource allocation scheme used by the second wireless device by determining that one or more resources used by the second wireless device were scheduled by a network node using centralised resource allocation, wherein said determining comprises predicting, based at least in part on the first control auxiliary information, the resources to be used by the second wireless device at a future time instance, adapting a transmitter behavior of the first wireless device based on the determined one or more characteristics of the resource allocation scheme used by the second wireless device by avoiding transmitting on resources that would interfere with the one or more resources scheduled by the network node using centralised resource allocation, and the method being characterised by the step of: transmitting second control auxiliary information to at least the second wireless device, the second control auxiliary information comprising information about a resource allocation scheme used by the first wireless device. obtaining first control auxiliary information from a second wireless device, the first control auxiliary information comprising information about a resource allocation scheme used by the second wireless device, wherein the control auxiliary information is transmitted by the second wireless device to the first wireless device, determining, based at least in part on the first control auxiliary information, one or more characteristics of the resource allocation scheme used by the second wireless device by determining that one or more resources used by the second wireless device were scheduled by a network node using centralised resource allocation, wherein said determining comprises predicting, based at least in part on the first control auxiliary information, the resources to be used by the second wireless device at a future time instance, adapting a transmitter behavior of the first wireless device based on the determined one or more characteristics of the resource allocation scheme used by the second wireless device by avoiding transmitting on resources that would interfere with the one or more resources scheduled by the network node using centralised resource allocation, and the method being characterised by the step of: transmitting second control auxiliary information to at least the second wireless device, the second control auxiliary information comprising information about a resource allocation scheme used by the first wireless device.
A soft cake having a water activity of from 0.50 to 0.95 and at least a molded face and at least a non-molded face, the molded face having at least one molded three-dimensional pattern, said three dimensional pattern comprising at least a molded groove which is in recess relative to said molded face, said molded groove having a minimum width of about 0.5 mm measured across the groove at the maximum depth, said molded groove having a depth of from 1 to 5 mm, and said molded groove forms a pit such that the length substantially matches the width, wherein said soft cake is obtainable by a method comprising the steps of: a) pouring a cake batter suitable for forming a soft cake into a pan, wherein the cake batter has a viscosity of between 500 and 1 Pa.s as measured at the filling temperature using a Brookfield RVDV-II+ viscometer, using spindle no. 6 at a speed of 25 RPM; b) baking said soft cake batter in said pan to form a soft cake; and c) removing the soft cake from the pan; wherein the pan has a molded inner surface for receiving the cake batter and which provides the three dimensional molding pattern of the soft cake, and wherein the molded inner surface of the pan has an arithmetical mean degree of roughness (Ra) of from 0.12 μm to 0.22 μm, wherein the molded three-dimensional pattern of the soft cake is complementary to the molded inner surface of the pan; wherein the method does not involve a step of pre-greasing the inner surface of a pan before a cake batter is poured into the pan. a) pouring a cake batter suitable for forming a soft cake into a pan, wherein the cake batter has a viscosity of between 500 and 1 Pa.s as measured at the filling temperature using a Brookfield RVDV-II+ viscometer, using spindle no. 6 at a speed of 25 RPM; b) baking said soft cake batter in said pan to form a soft cake; and c) removing the soft cake from the pan; wherein the pan has a molded inner surface for receiving the cake batter and which provides the three dimensional molding pattern of the soft cake, and wherein the molded inner surface of the pan has an arithmetical mean degree of roughness (Ra) of from 0.12 μm to 0.22 μm, wherein the molded three-dimensional pattern of the soft cake is complementary to the molded inner surface of the pan; wherein the method does not involve a step of pre-greasing the inner surface of a pan before a cake batter is poured into the pan.
A method of designing and making an aircraft gearbox lubrication system, the aircraft gearbox lubrication system comprising: a lubricant source containing a lubricant, the lubricant comprising a base lubricant and an additive; a pump in fluid communication with the lubricant source and configured to provide a flow of the lubricant from the lubricant source; a dispenser in fluid communication with the lubricant source and configured to allow the lubricant to flow from the pump onto a component in a gearbox at a predetermined rate; and wherein the lubricant is a nanodiamond lubricant, wherein the additive is a nanodiamond additive; and wherein the lubricant source contains a volume of lubricant selected in reliance on an enhanced lubrication property of the nanodiamond lubricant, relative to the base lubricant; wherein the method comprises designing the aircraft gearbox lubrication system to have reduced weight by reducing a volume of the lubricant by taking advantage of improved friction and heat transfer properties of nanodiamond additives included in the lubricant. a lubricant source containing a lubricant, the lubricant comprising a base lubricant and an additive; a pump in fluid communication with the lubricant source and configured to provide a flow of the lubricant from the lubricant source; a dispenser in fluid communication with the lubricant source and configured to allow the lubricant to flow from the pump onto a component in a gearbox at a predetermined rate; and wherein the lubricant is a nanodiamond lubricant, wherein the additive is a nanodiamond additive; and wherein the lubricant source contains a volume of lubricant selected in reliance on an enhanced lubrication property of the nanodiamond lubricant, relative to the base lubricant; wherein the method comprises designing the aircraft gearbox lubrication system to have reduced weight by reducing a volume of the lubricant by taking advantage of improved friction and heat transfer properties of nanodiamond additives included in the lubricant.
An apparatus for use in a wellbore, characterized by: - a transducing substrate configured to transduce a first property into a second property; - a sensing element fixedly connected to the transducing substrate and configured to generate a signal in response to the second property; - layers created on the transducing substrate by sputtering or 3D printing, the layers defining at least one track and including an insulating layer and a conductive layer; and - at least one active electronic component fixedly connected to the transducing substrate and in communication with the sensing element via the at least one track. - a transducing substrate configured to transduce a first property into a second property; - a sensing element fixedly connected to the transducing substrate and configured to generate a signal in response to the second property; - layers created on the transducing substrate by sputtering or 3D printing, the layers defining at least one track and including an insulating layer and a conductive layer; and - at least one active electronic component fixedly connected to the transducing substrate and in communication with the sensing element via the at least one track.
A method of establishing by a first base station an interface with a second base station, the method comprising: determining the topology of the first base station in a communication network, wherein the topology refers to the location of the first base station in any one of an Intranet, an Internet without a NAT, or in an Internet behind a NAT, wherein determining the topology comprises: at the first base station: sending a request message to a configuration node, and receiving from the configuration node information relating to the first base station topology, the information including a notification of whether the first base station is located at an Intranet or an Internet location, the information having been obtained at the configuration node by determining if a source or a destination IP address used in the request message is an Intranet IP address or an Internet IP address, and determining whether the first base station is located in an Intranet or an Internet location accordingly; retrieving topology information for the second base station; and using the topology information for the first and the second base stations to establish an interface between the first base station and the second base station. determining the topology of the first base station in a communication network, wherein the topology refers to the location of the first base station in any one of an Intranet, an Internet without a NAT, or in an Internet behind a NAT, wherein determining the topology comprises: at the first base station: sending a request message to a configuration node, and receiving from the configuration node information relating to the first base station topology, the information including a notification of whether the first base station is located at an Intranet or an Internet location, the information having been obtained at the configuration node by determining if a source or a destination IP address used in the request message is an Intranet IP address or an Internet IP address, and determining whether the first base station is located in an Intranet or an Internet location accordingly; at the first base station: sending a request message to a configuration node, and receiving from the configuration node information relating to the first base station topology, the information including a notification of whether the first base station is located at an Intranet or an Internet location, the information having been obtained at the configuration node by determining if a source or a destination IP address used in the request message is an Intranet IP address or an Internet IP address, and determining whether the first base station is located in an Intranet or an Internet location accordingly; retrieving topology information for the second base station; and using the topology information for the first and the second base stations to establish an interface between the first base station and the second base station.
A removable tip section for a rotor blade of a rotary wing aircraft comprising: a tip spar within the removable blade tip section, said removable tip section accommodates particular mission requirements or profiles; a spar interface section which engages said tip spar and is configured to removably engage a main blade spar within the rotor blade; and a multiple of threaded fasteners (52T; 84T) which attach said tip spar to said spar interface section at a butt joint located within a constant mid-span airfoil cross-section. a tip spar within the removable blade tip section, said removable tip section accommodates particular mission requirements or profiles; a spar interface section which engages said tip spar and is configured to removably engage a main blade spar within the rotor blade; and a multiple of threaded fasteners (52T; 84T) which attach said tip spar to said spar interface section at a butt joint located within a constant mid-span airfoil cross-section.
A directed self-assembling composition for pattern formation comprising a block copolymer that includes a polystyrene block having a styrene unit, and a polyalkyl (meth)acrylate block having an alkyl (meth)acrylate unit, the block copolymer having a group (α) that is bound to at least one end of a main chain and includes a hetero atom, and the group (α) included in the block copolymer being represented by a formula: wherein, in the formula, R 1 represents a single bond or a divalent organic group having 1 to 30 carbon atoms; and R 2 represents a hydrogen atom or a monovalent organic group having 1 to 30 carbon atoms.
An optical communications method, wherein the method is executed on a communications node that comprises an input optical modulator array and an output optical modulator array, wherein the input optical modulator array comprises N input optical modulators and the N input optical modulators are configured to receive a signal light, and the output optical modulator array comprises M output optical modulators and the M output optical modulators are configured to send the signal light, wherein M is greater than the number of output optical modulators that can be covered by one input optical modulator and/or N is greater than the number of input optical modulators capable of covering a same output optical modulator, and the method comprises: determining, by a local communications node, at least two local input areas from the input optical modulator array, wherein the at least two local input areas are used to receive a foreign signal light and the foreign signal light is a signal light that comes from a transmitter-side foreign communications node and needs to be sent to a receiver-side foreign communications node; and determining, by the local communications node, at least two local output areas from the output optical modulator array, wherein the at least two local output areas are used to send the foreign signal light, the at least two local input areas correspond to the at least two local output areas in a one-to-one mapping manner, and each input optical modulator in a local input area is capable of transmitting a signal light to each output optical modulator in a corresponding local output area. determining, by a local communications node, at least two local input areas from the input optical modulator array, wherein the at least two local input areas are used to receive a foreign signal light and the foreign signal light is a signal light that comes from a transmitter-side foreign communications node and needs to be sent to a receiver-side foreign communications node; and determining, by the local communications node, at least two local output areas from the output optical modulator array, wherein the at least two local output areas are used to send the foreign signal light, the at least two local input areas correspond to the at least two local output areas in a one-to-one mapping manner, and each input optical modulator in a local input area is capable of transmitting a signal light to each output optical modulator in a corresponding local output area.