mhurhangee/ep-ind-claims huggingface dataset:
A system for monitoring temperature of an electrical conductor enclosed in at least a first (semi)conductive layer, the system comprising: a temperature sensor unit located inside the first (semi)conductive layer, and comprising a first micro-controller, a temperature sensor, an energy harvest sub-unit and a wireless transmitter, the temperature sensor being adapted to detect a first signal representing temperature of the electrical conductor and to supply the first signal to the first micro-controller; and a transceiver unit located outside the first (semi)conductive layer and comprising a second micro-controller, an energy transmitter and a wireless receiver; wherein, the energy harvest sub-unit is adapted to harvest electromagnetic power from the energy transmitter and to provide electrical power to the first micro-controller; the wireless transmitter is adapted to being engaged with the wireless receiver under the control of the first micro-controller to transmit a second signal converted from the first signal to the wireless receiver; characterized in that: the energy harvest sub-unit and the wireless transmitter are designed to have different working frequency wherein the ratio of the working frequency of the wireless transmitter to that of the energy harvest sub-unit is larger than 100. a temperature sensor unit located inside the first (semi)conductive layer, and comprising a first micro-controller, a temperature sensor, an energy harvest sub-unit and a wireless transmitter, the temperature sensor being adapted to detect a first signal representing temperature of the electrical conductor and to supply the first signal to the first micro-controller; and a transceiver unit located outside the first (semi)conductive layer and comprising a second micro-controller, an energy transmitter and a wireless receiver; wherein, the energy harvest sub-unit is adapted to harvest electromagnetic power from the energy transmitter and to provide electrical power to the first micro-controller; the wireless transmitter is adapted to being engaged with the wireless receiver under the control of the first micro-controller to transmit a second signal converted from the first signal to the wireless receiver; the energy harvest sub-unit and the wireless transmitter are designed to have different working frequency wherein the ratio of the working frequency of the wireless transmitter to that of the energy harvest sub-unit is larger than 100.
A thermoplastic molding composition composed of a) from 30 to 95% by weight of at least one aliphatic polyamide or copolyamide, as component A, b) from 1 to 30% by weight of at least one cyclic phenoxyphosphazene having at least 3 phenoxyphosphazene units, as component B, c) from 1 to 15% by weight of red phosphorus, as component C, d) from 0.1 to 20% by weight of at least one impact-modifying polymer, as component D, wherein copolymers of ethylene with acrylates, acrylic acid, and/or maleic anhydride are used, e) from 0 to 50% by weight of glass fibers, as component E, and f) from 0 to 30% by weight of further additives, as component F, where component F is a stabilizer and/or lubricant and mold-release agent, where the total amount of components A to F gives 100% by weight. a) from 30 to 95% by weight of at least one aliphatic polyamide or copolyamide, as component A, b) from 1 to 30% by weight of at least one cyclic phenoxyphosphazene having at least 3 phenoxyphosphazene units, as component B, c) from 1 to 15% by weight of red phosphorus, as component C, d) from 0.1 to 20% by weight of at least one impact-modifying polymer, as component D, wherein copolymers of ethylene with acrylates, acrylic acid, and/or maleic anhydride are used, e) from 0 to 50% by weight of glass fibers, as component E, and f) from 0 to 30% by weight of further additives, as component F, where component F is a stabilizer and/or lubricant and mold-release agent,
A process for preparing a treated inorganic core particle having improved dispersability comprising: (a) heating a slurry comprising porous silica treated inorganic core particle and water at a temperature of at least about 90°C; and (b) adding a soluble alumina source to the slurry from step (a) while maintaining the pH at about 8.0 to 9.5 to form an alumina treatment on the porous silica treated inorganic core particle; wherein the treated inorganic core particle does not comprise dense silica or alumina treatments, and has silica present in the amount of at least about 7 wt.% up to about 14 wt.% and alumina present in the amount of about 4.0 wt.% to about 8.0 wt.% based on the total weight of the inorganic core particle; and wherein the particle to particle surface treatments are substantially homogeneous; wherein the inorganic core particle is an oxide of titanium, aluminum, zinc, copper or iron; a sulfate of calcium, strontium or barium; zinc sulfide; copper sulfide, zeolite; mica; talc; kaolin, mullite, calcium carbonate, or silica. (a) heating a slurry comprising porous silica treated inorganic core particle and water at a temperature of at least about 90°C; and (b) adding a soluble alumina source to the slurry from step (a) while maintaining the pH at about 8.0 to 9.5 to form an alumina treatment on the porous silica treated inorganic core particle; wherein the treated inorganic core particle does not comprise dense silica or alumina treatments, and has silica present in the amount of at least about 7 wt.% up to about 14 wt.% and alumina present in the amount of about 4.0 wt.% to about 8.0 wt.% based on the total weight of the inorganic core particle; and wherein the particle to particle surface treatments are substantially homogeneous;
An evaluation method of a coating color of a coating material containing a color pigment and an effect pigment, the method comprising: measuring a spectral reflectance of a coating film of the coating material; and calculating C*/L*, which is a ratio of chroma C* to lightness L* in the L*C*h color space, from the spectral reflectance, wherein the spectral reflectance of the coating film in a highlight light-receiving angle region is measured, the spectral reflectance of the coating film in a shade light-receiving angle region is measured, and C*/L*, which is a ratio of the chroma C* of the highlight region to the lightness L* of the shade region, is calculated from the spectral reflectance of the highlight region and the spectral reflectance of the shade region. measuring a spectral reflectance of a coating film of the coating material; and calculating C*/L*, which is a ratio of chroma C* to lightness L* in the L*C*h color space, from the spectral reflectance, wherein the spectral reflectance of the coating film in a highlight light-receiving angle region is measured, the spectral reflectance of the coating film in a shade light-receiving angle region is measured, and C*/L*, which is a ratio of the chroma C* of the highlight region to the lightness L* of the shade region, is calculated from the spectral reflectance of the highlight region and the spectral reflectance of the shade region.
A method of transmitting and receiving a signal by a user equipment, UE, in a wireless communication system, the method comprising: receiving (S 1601) downlink control information, DCI; and transmitting (S 1603) a physical uplink shared channel, PUSCH, based on the DCI, wherein the PUSCH is transmitted in a specific bandwidth part, BWP, different from a current active BWP, based on the DCI, wherein a frequency domain resource assignment, FDRA, field of X+Y bits in the DCI includes X most significant bits MSBs including information about an interlace allocation and Y least significant bits, LSBs, including information about a resource block, RB, set, and the RB set is a contiguous set of RBs on which a channel access procedure CAP is performed in shared spectrum, wherein based on the number N of RB sets configured in the current active BWP being different from the number M of RB sets configured in the specific BWP, the Y bits are changed to Y' bits, and each of the N and the M is an integer smaller than 6, wherein based on a first subcarrier spacing SCS configured for the current active BWP being different from a second SCS configured for the specific BWP, the X bits are changed to X' bits, wherein an RB set is determined based on the Y' bits, and an interlace related to the PUSCH is determined based on the X' bits, and wherein after the CAP is performed for the determined RB set, the PUSCH is transmitted through resource blocks of the interlace in the determined RB set. receiving (S 1601) downlink control information, DCI; and transmitting (S 1603) a physical uplink shared channel, PUSCH, based on the DCI, wherein the PUSCH is transmitted in a specific bandwidth part, BWP, different from a current active BWP, based on the DCI, wherein a frequency domain resource assignment, FDRA, field of X+Y bits in the DCI includes X most significant bits MSBs including information about an interlace allocation and Y least significant bits, LSBs, including information about a resource block, RB, set, and the RB set is a contiguous set of RBs on which a channel access procedure CAP is performed in shared spectrum, wherein based on the number N of RB sets configured in the current active BWP being different from the number M of RB sets configured in the specific BWP, the Y bits are changed to Y' bits, and each of the N and the M is an integer smaller than 6, wherein based on a first subcarrier spacing SCS configured for the current active BWP being different from a second SCS configured for the specific BWP, the X bits are changed to X' bits, wherein an RB set is determined based on the Y' bits, and an interlace related to the PUSCH is determined based on the X' bits, and wherein after the CAP is performed for the determined RB set, the PUSCH is transmitted through resource blocks of the interlace in the determined RB set.
Assembly, comprising: - a first section and a second section, each comprising a longitudinal axis (21, 22); - a fixation configured to fix the first section and the second section; - wherein at least one of the first section and the second section comprises a body that is configured to be engaged by the fixation; - wherein the fixation comprises: - an abutment; and - a displaceable actuator; - wherein the abutment and the radially displaceable actuator are part of the other of the first section and the second section than the body and together define a clamp configured for clamping the body in between; - wherein the actuator is radially displaceable with respect to the longitudinal axis (21, 22) of the section (18, 19) that comprises the actuator; and - wherein at least one of the first section and the second section is an upright section of an offshore wind turbine tower construction, characterized in that - the second section comprises near its end an inner flange and an outer flange which are spaced apart and configured to receive the first section there between; and - wherein the radially displaceable actuator is arranged on one of the inner flange and the outer flange and is configured to extend from the one of the inner flange and the outer flange through the first section towards the other of the inner flange and the outer flange, wherein the radially displaceable actuator is suspended by both the inner flange and the outer flange when the fixation fixes the first section and the second section. - a first section and a second section, each comprising a longitudinal axis (21, 22); - a fixation configured to fix the first section and the second section; - wherein at least one of the first section and the second section comprises a body that is configured to be engaged by the fixation; - wherein the fixation comprises: - an abutment; and - a displaceable actuator; - an abutment; and - a displaceable actuator; - wherein the abutment and the radially displaceable actuator are part of the other of the first section and the second section than the body and together define a clamp configured for clamping the body in between; - wherein the actuator is radially displaceable with respect to the longitudinal axis (21, 22) of the section (18, 19) that comprises the actuator; and - wherein at least one of the first section and the second section is an upright section of an offshore wind turbine tower construction, characterized in that - the second section comprises near its end an inner flange and an outer flange which are spaced apart and configured to receive the first section there between; and - wherein the radially displaceable actuator is arranged on one of the inner flange and the outer flange and is configured to extend from the one of the inner flange and the outer flange through the first section towards the other of the inner flange and the outer flange, wherein the radially displaceable actuator is suspended by both the inner flange and the outer flange when the fixation fixes the first section and the second section.
A cleaning composition comprising at least 0.01 ppm DNase, at least 0.01 ppm hexosaminidase, and at least one cleaning component, wherein the cleaning component comprises at least a surfactant, optionally a builder, and optionally a bleach component; wherein the DNase is a polypeptide having at least 80% sequence identity to the polypeptide shown in SEQ ID NO: 13; and wherein the hexosaminidase is obtained from Terribacillus.
A method for treating waters, sediments and/or sludges, comprising: (a) introducing and/or applying a composition comprising at least one alkaline earth metal peroxide into and/or to the waters, sediments and/or sludges; and (b) introducing cable bacteria into the waters, sediments and/or sludges. (a) introducing and/or applying a composition comprising at least one alkaline earth metal peroxide into and/or to the waters, sediments and/or sludges; and (b) introducing cable bacteria into the waters, sediments and/or sludges.
A method of controlling a wind turbine, comprising: receiving a current operational state of the wind turbine and based on the current operational state calculate a control trajectory (21,83) and a safe-mode trajectory (22,82), wherein a trajectory comprises a time series of at least one variable; and if a fault signal (24,84) indicating a fault condition of the wind turbine is received, control the wind turbine using the safe-mode trajectory; if a fault signal is not received, control the wind turbine using the control trajectory (21,83); wherein the safe-mode trajectory is calculated using a model predictive control routine, wherein the safe-mode trajectory is calculated upon receipt of the fault signal, and characterized in that a cost function of the model predictive control routine is based on a type of the fault. receiving a current operational state of the wind turbine and based on the current operational state calculate a control trajectory (21,83) and a safe-mode trajectory (22,82), wherein a trajectory comprises a time series of at least one variable; and if a fault signal (24,84) indicating a fault condition of the wind turbine is received, control the wind turbine using the safe-mode trajectory; if a fault signal is not received, control the wind turbine using the control trajectory (21,83); wherein the safe-mode trajectory is calculated using a model predictive control routine,
A coated metallic substrate comprising at least a first coating consisting of aluminum, such first coating having a thickness between 2 and 4μm and being directly topped by a second coating comprising from 0.5 to 5.9% by weight of magnesium and which has a thickness between 1 and 10μm, the balance being zinc.
Space probe comprising a descent module bearing a mobile exploration craft, the descent module being a landing module inside which the mobile exploration craft is attached, the landing module being equipped with landing legs, characterized in that the mobile exploration craft is attached in a lower part of the landing module so that the mobile exploration craft can be released from the module from underneath the module, and in that the landing legs are designed to deploy below the lower level of the mobile exploration craft.
A wavelength conversion particle, comprising a fluorescent particle, absorbing incident exciting light, emitting light having a longer wavelength than the incident exciting light, characterized in that said wavelength conversion particle is provided with a moth-eye structure section having a fine concavo-convex structure in the side of a surface of said fluorescent particle, said fine concavo-convex structure being provided in said fluorescent particle itself, wherein said fine concavo-convex structure includes fine projections, each of which has a hemispherical shape.
Device for wetting grain with a fluid, having a grain vibration appliance which has a pipe and at least one motor for causing a vibratory movement of the pipe, said motor having a motor base-plate for connecting a device to be vibrated, characterized in that the pipe is connected in a force-locked manner to the motor base-plate and the pipe has a maximum length which corresponds to twice the length of the motor base-plate.
A method for displaying information by using an electronic device, the method comprising: identifying at least one display area (350b, 410b, 420b, 430b, 440b, 450b, 460b, 470b, 480b) matched to at least one opening area (310, 320, 330, 340a, 340b, 340c, 350a, 410a, 420a, 430a, 440a, 450a, 460a, 470a, 480a) formed in a part of a cover of the electronic device, with the at least one display area displayed on a display screen of a display unit of the electronic device; and operating the at least one display area in a first mode, and operating at least a partial area of a remaining display area of the display screen in a second mode; characterized in that identifying the at least one display area matched to the at least one opening area comprises acquiring from the cover, via a short-range communication module of the electronic device, position data of the at least one display area matched to the at least one opening area. identifying at least one display area (350b, 410b, 420b, 430b, 440b, 450b, 460b, 470b, 480b) matched to at least one opening area (310, 320, 330, 340a, 340b, 340c, 350a, 410a, 420a, 430a, 440a, 450a, 460a, 470a, 480a) formed in a part of a cover of the electronic device, with the at least one display area displayed on a display screen of a display unit of the electronic device; and operating the at least one display area in a first mode, and operating at least a partial area of a remaining display area of the display screen in a second mode; characterized in that identifying the at least one display area matched to the at least one opening area comprises acquiring from the cover, via a short-range communication module of the electronic device, position data of the at least one display area matched to the at least one opening area.
A network function, NF, service discovery method, comprising: after establishing a communication connection to an NF, obtaining, by a network function repository function, NRF, a digital certificate of the NF in a transport layer security, TLS, protocol or datagram transport layer security, DTLS, protocol two-way authentication process, wherein the digital certificate of the NF carries a service name of the NF, a service name list on which the NF relies, and a service name list that relies on the NF; receiving, by the NRF, a query request that is for querying an address of a target service and that is sent by the NF, wherein the query request carries a complete domain name of the target service, the complete domain name of the target service is a domain name formed by a service name of the target service and a management domain name of the NF, when another NF in which the target service queried by the NF is located belongs to the same slice as the NF, or the complete domain name of the target service is a domain name formed by a service name of the target service and a management domain name of the other NF when the other NF belongs to a different slice than the NF, and the management domain name of the NF or the other NF comprises a respective network slice identifier and an identifier of a network to which a network slice belongs; and performing, by the NRF, verification based on the service name of the target service, a digital certificate of the other NF, and the digital certificate of the NF, and sending the address of the target service to the NF when the verification succeeds. after establishing a communication connection to an NF, obtaining, by a network function repository function, NRF, a digital certificate of the NF in a transport layer security, TLS, protocol or datagram transport layer security, DTLS, protocol two-way authentication process, wherein the digital certificate of the NF carries a service name of the NF, a service name list on which the NF relies, and a service name list that relies on the NF; receiving, by the NRF, a query request that is for querying an address of a target service and that is sent by the NF, wherein the query request carries a complete domain name of the target service, the complete domain name of the target service is a domain name formed by a service name of the target service and a management domain name of the NF, when another NF in which the target service queried by the NF is located belongs to the same slice as the NF, or the complete domain name of the target service is a domain name formed by a service name of the target service and a management domain name of the other NF when the other NF belongs to a different slice than the NF, and the management domain name of the NF or the other NF comprises a respective network slice identifier and an identifier of a network to which a network slice belongs; and performing, by the NRF, verification based on the service name of the target service, a digital certificate of the other NF, and the digital certificate of the NF, and sending the address of the target service to the NF when the verification succeeds.
A recycled fiber obtained by subjecting a sanitary product containing a cellulose pulp to a recycling process, which has a superabsorbent polymer content of less than 5 %, a Canadian standard freeness of 650 ml or more when determined according to JIS P 8121:1995, a length weighted average fiber length of 0.7 mm or more, and a dirt area fraction of 200 mm 2 /m 2 or less, when determined by a dirt assay on a handsheet having a basis weight of 60 g/m 2 prepared according to JIS P 8209.
Hybrid drive with a combustion engine for the propulsion of the vehicle via a power train, as well as with a further consumer, wherein an electric motor is provided, which is connectable to the further consumer and to the power train, characterized in that the electric motor is connectable to the power train via a Power Take Off and can be used both, to power the vehicle, and as a generator, and in that kinetic energy is transformed into electric energy by means of the electric motor used as a generator during the braking, and stored in an energy accumulator.
A radiopharmaceutical solution comprising 224 Ra and a complexing agent capable of scavenging at least 212 Pb, for use as a medicament; wherein the complexing agent comprises one or more compounds selected from the group consisting of acyclic chelators, cyclic chelators, cryptands, crown ethers, porphyrins or cyclic or noncyclic polyphosphonates. DOTMP, EDTMP, bisphosphonate, pamidronate conjugated to DOTA or TCMC.