mhurhangee/ep-ind-claims huggingface dataset:
A system for the structural monitoring of complexes such as buildings, bridges, viaducts, installations, infrastructures, plants and machines, comprising a plurality of digital sensors for accelerometric measurements, which can be arranged in respective predefined points of the complex and can be connected, via a digital bus, to a control and management unit, which is associated with a global computing module for identification, on the basis of the signals transmitted by said at least one digital sensor over said digital bus and carrying data related to the measurements, of a multivariable dynamic model which is descriptive of the status and of the structural conditions of the complex, said digital sensors being chosen of the type of multiaxial MEMS accelerometers, characterized in that each one of said digital sensors is associated with a respective local calculation and transmission module, for filtering the acquired measurements and/or for the identification, on the basis of the measurements, of a local dynamic model that is descriptive of the status and of the conditions of the complex at the respective installation point and/or for the management and transmission of said data to said unit via said bus, each one of said local modules having instructions for executing a first local procedure for filtering the measurements acquired by means of filtering techniques of the type of the Kalman filter, even extended to stochastic contexts of the EIV (Errors-In-Variables) type, each one of said local modules being provided with instructions for executing a second local procedure for identification of an EIV (Errors-In-Variables) local dynamic model of the "AR+noise" type, the equations that represent said local dynamic model being of the type q z − 1 x t = v t y t = x t + w t y(t) denoting the signal in output of the observed process, v(t) and w(t) representing white processes with nil expected value which are not mutually correlated and have respective variances σ v 2, σ w 2, q(z -1) being a polynomial, in the unit delay operator z -1, which is descriptive of the autoregressive characteristics of the process and of the type q z − 1 = 1 + α 1 z − 1 +... + α n z − n where n is the order of said local dynamic model being considered.
A communication control device comprising an interference source calculation unit configured to calculate an actual number of interference sources for a first wireless system, using an adjacent channel interference power ratio related to interference imposed on the first wireless system from a second wireless system using a second frequency band at least partially overlapping a first frequency band used by the first wireless system; and a power calculation unit configured to calculate maximum allowable transmission power of the second wireless system so that an allowable interference level of the first wireless system is satisfied, using the number calculated by the interference source calculation unit. an interference source calculation unit configured to calculate an actual number of interference sources for a first wireless system, using an adjacent channel interference power ratio related to interference imposed on the first wireless system from a second wireless system using a second frequency band at least partially overlapping a first frequency band used by the first wireless system; and a power calculation unit configured to calculate maximum allowable transmission power of the second wireless system so that an allowable interference level of the first wireless system is satisfied, using the number calculated by the interference source calculation unit.
A method for network optimization, comprising steps of: determining, by a Radio network optimization Control Functional unit, RCF, in an edge computing system, an intelligent model by at least one of: a) acquiring the intelligent model from a multi-access edge computing, MEC, management system, b) acquiring the intelligent model from an MEC intelligent algorithm application, APP; and c) obtaining the intelligent model by training according to the real-time data acquired by the RCF per se; determining, by the RCF, real-time features according to real-time data of a radio access network; performing, by the RCF, online inference based on the intelligent model to generate a radio optimization assistance policy according to the real-time features; and transmitting, by the RCF, the radio optimization assistance policy to a radio access network element to allow the radio access network element to realize radio resource optimization; wherein, the RCF is located at a MEC host layer, and connected to an MEC management system, radio access network elements in a 3GPP network, and MEC APPs. determining, by a Radio network optimization Control Functional unit, RCF, in an edge computing system, an intelligent model by at least one of: a) acquiring the intelligent model from a multi-access edge computing, MEC, management system, b) acquiring the intelligent model from an MEC intelligent algorithm application, APP; and c) obtaining the intelligent model by training according to the real-time data acquired by the RCF per se; a) acquiring the intelligent model from a multi-access edge computing, MEC, management system, b) acquiring the intelligent model from an MEC intelligent algorithm application, APP; and c) obtaining the intelligent model by training according to the real-time data acquired by the RCF per se; determining, by the RCF, real-time features according to real-time data of a radio access network; performing, by the RCF, online inference based on the intelligent model to generate a radio optimization assistance policy according to the real-time features; and transmitting, by the RCF, the radio optimization assistance policy to a radio access network element to allow the radio access network element to realize radio resource optimization; wherein, the RCF is located at a MEC host layer, and connected to an MEC management system, radio access network elements in a 3GPP network, and MEC APPs.
A feeder for animals selected from domestic pets, cage birds, chickens, fish and wild birds, the feeder comprising: a hopper adapted to hold a supply of dry feed; a chamber adapted to receive feed from a lower portion of the hopper, one axial end of the chamber being coupled to a discharge outlet having an opening at a distal end thereof for discharge of feed from the feeder, a passage being defined from and including the chamber and the discharge outlet and terminating at the said opening, the discharge outlet having an enlarged end portion; an auger mounted for rotation about an axis within said chamber, the auger being adapted as it rotates to move feed along said passage to be discharged through the opening at the distal end of the discharge outlet; a shutter adapted to occlude the passage to prevent discharge of feed through the opening, the shutter being coupled to and rotating with the auger, and having a forward edge and a trailing edge defined in relation to the direction of rotation; an electric motor; a drive system for coupling the motor to the auger to provide drive thereto, the drive system being adapted in use to cause the electric motor to rotate the auger through a discrete number of completed 360° turns such that when the auger is not rotating the passage is fully occluded by the shutter; characterised in that: the chamber extends beneath the lower portion of the hopper to receive feed vertically by gravity from the said lower portion, the shutter is provided within the discharge outlet, the enlarged end portion has an outer wall spaced a predetermined distance from the passage such that as the forward edge progressively occludes the passage as the shutter rotates, any feed between the forward edge of the shutter and the said wall will simply fall from the enlarged end portion.
Seal comprising: a. an annular portion having a seal surface configured for the static seal in relation to a first element; b. at least an annular lip configured for the dynamic seal in relation to a second element, said annular lip having a dynamic seal zone and a fixing zone, said dynamic seal zone extending in a circumferal direction around an axis, in particular an axis coinciding with a relative rotation axis between said first element and said second element, said fixing zone being fixed to said annular portion, said static seal surface being extended at least partially or mainly in a direction parallel to said axis; said static seal surface is made of an elastomeric; c. elastic means comprising a first end, configured for maintaining said dynamic seal zone of the annular lip abutting on said second element in an operating configuration, and a second end, opposite said first end, said second end of the elastic means having an annular shape extending around said axis; d. an annular locking element for locking said second end of said elastic means (12, 13), said second end being interposed between said annular locking element and said annular portion, wherein said second end of the elastic means is interposed between said annular locking element and said static seal surface characterised in that material said second end of the elastic means has a radial section extending in a direction parallel to said axis. a. an annular portion having a seal surface configured for the static seal in relation to a first element; b. at least an annular lip configured for the dynamic seal in relation to a second element, said annular lip having a dynamic seal zone and a fixing zone, said dynamic seal zone extending in a circumferal direction around an axis, in particular an axis coinciding with a relative rotation axis between said first element and said second element, said fixing zone being fixed to said annular portion, said static seal surface being extended at least partially or mainly in a direction parallel to said axis; said static seal surface is made of an elastomeric; c. elastic means comprising a first end, configured for maintaining said dynamic seal zone of the annular lip abutting on said second element in an operating configuration, and a second end, opposite said first end, said second end of the elastic means having an annular shape extending around said axis; d. an annular locking element for locking said second end of said elastic means (12, 13), said second end being interposed between said annular locking element and said annular portion, wherein said second end of the elastic means is interposed between said annular locking element and said static seal surface characterised in that material said second end of the elastic means has a radial section extending in a direction parallel to said axis.
A combination (T-H combination) combustion turbine power generating apparatus and heat recovery steam generator in the form of an HRSG, comprising: a turbine, the HRSG, and an emission reduction system, wherein the exhaust of the combustion turbine, that is travelling through the HRSG, is treated by the ERS, and wherein the ERS includes: a) a first reducing reagent supplier that supplies a reducing reagent into exhaust output by the turbine, b) a first selective catalytic reduction reactor positioned downstream of the RRI1, c) a turbulence generator receiving exhaust from the SCR1 d) a second selective catalytic reduction reactor downstream of the turbulence generator; and wherein the first reducing reagent supplier is the only exhaust output SCR reducing reagent supplier to each of the SCR1 and SCR2, wherein there is a steady state NH3/NOx mal-distribution level above 10% root mean square reaching each of the SCR1 and SCR2, and further comprising a first generator driven by the combustion turbine as to provide a first turbine-generator combination, and wherein the first turbine-generator combination has a power rating of at least 400 megawatts a) a first reducing reagent supplier that supplies a reducing reagent into exhaust output by the turbine, b) a first selective catalytic reduction reactor positioned downstream of the RRI1, c) a turbulence generator receiving exhaust from the SCR1 d) a second selective catalytic reduction reactor downstream of the turbulence generator; and wherein the first reducing reagent supplier is the only exhaust output SCR reducing reagent supplier to each of the SCR1 and SCR2, wherein there is a steady state NH3/NOx mal-distribution level above 10% root mean square reaching each of the SCR1 and SCR2, and further comprising a first generator driven by the combustion turbine as to provide a first turbine-generator combination, and wherein the first turbine-generator combination has a power rating of at least 400 megawatts
An engineered composition comprising a protected guide RNA (pgRNA) comprising (a) a protector sequence, (b) a guide sequence capable of hybridizing to a target sequence in a eukaryotic cell, (c) a tracr mate sequence, and (d) a tracr sequence wherein (a), (b), (c) and (d) are arranged in a 5' to 3' orientation, wherein the protector sequence has a length between 3 and 120 nucleotides, comprises two or more nucleotides that are non-complementary to the target sequence, and comprises 3 or more contiguous nucleotides complementary to the guide sequence, wherein the tracr mate sequence hybridizes to the tracr sequence and the guide sequence directs sequence-specific binding of a CRISPR complex to the target sequence, wherein the CRISPR complex comprises a Type II Cas9 protein complexed with the guide sequence that is hybridizable to the target sequence, and the tracr mate sequence that is hybridized to the tracr sequence and wherein one or more of the guide, tracr and tracr mate sequences are modified and wherein the pgRNA comprises a hairpin formed by hybridization between the protector sequence and the guide sequence.
An electrode material comprising: an electrode active material; a first solid electrolyte material; and a coating material, wherein the first solid electrolyte material includes Li, M, and X; where M includes at least one selected from the group consisting of metal elements other than Li and metalloid elements; and X is at least one selected from the group consisting of Cl, Br, and I; the first solid electrolyte material does not include sulfur; and the coating material is located on a surface of the electrode active material, wherein the first solid electrolyte material is represented by the following compositional formula: Li α M β X γ Formula where α, β, and γ are all values larger than 0; and M is at least one selected from the group consisting of metal elements other than Li and metalloid elements, and wherein M includes yttrium. an electrode active material; a first solid electrolyte material; and a coating material, wherein the first solid electrolyte material includes Li, M, and X; where M includes at least one selected from the group consisting of metal elements other than Li and metalloid elements; and X is at least one selected from the group consisting of Cl, Br, and I; the first solid electrolyte material does not include sulfur; and the coating material is located on a surface of the electrode active material, wherein the first solid electrolyte material is represented by the following compositional formula: Li α M β X γ Formula where α, β, and γ are all values larger than 0; and M is at least one selected from the group consisting of metal elements other than Li and metalloid elements, and wherein M includes yttrium.
A method of installing electrical cabling, said method comprising: securing an electrical cable clip to a structure using a fixing element that passes through said clip into said structure; subsequently inserting at least one electrical cable into a cable receiving channel of said clip and securing said at least one electrical cable in said channel, wherein the step of securing comprises operating an integral closure member of said clip to close an opening through which said at least one electrical cable is inserted into the channel, characterised in that said fixing element is a nail and the method comprises the steps of: • associating the clip to a nail gun by an aperture possessed by the clip; • firing said nail into said structure by the nail gun, and • engaging said integral closure member to a projection of the clip, said projection defining said aperture. • associating the clip to a nail gun by an aperture possessed by the clip; • firing said nail into said structure by the nail gun, and • engaging said integral closure member to a projection of the clip, said projection defining said aperture.
Ultrasonic meter for detecting a flow rate of a fluid, having a fluid inlet, a fluid outlet and a flow channel connecting the fluid inlet to the fluid outlet, wherein the flow channel has a measuring tube (5, 28, 29, 31) which extends in a straight line in a flow direction, wherein an inner wall of a side wall delimiting a flow cross section of the measuring tube (5, 28, 29, 31) has at least one groove extending in the flow direction, which enlarges the flow cross section, characterized in that the side wall has an opening (15, 24, 25, 26, 30) exclusively within the groove, which increases the groove depth of the groove locally to stabilize the flow guidance, and/or has a step in the flow direction between a normal region and a recessed region, wherein the groove depth of the groove is greater in the recessed region than in the normal region.
An antimicrobial composition comprising a treatment of plants prone to microbial disease, wherein the composition includes: citrus oil, pine oil and salt water, wherein the relative amounts, as measured by volume, of the three components as compared with each other are a) 5 - 75% citrus oil; b) 0.5 - 60% pine oil; and c) 15 - 95% salt water, wherein the salt water is sea water that is sourced from any sea or ocean. citrus oil, pine oil and salt water, wherein the relative amounts, as measured by volume, of the three components as compared with each other are a) 5 - 75% citrus oil; b) 0.5 - 60% pine oil; and c) 15 - 95% salt water, a) 5 - 75% citrus oil; b) 0.5 - 60% pine oil; and c) 15 - 95% salt water, wherein the salt water is sea water that is sourced from any sea or ocean.
A testing instrument for checking the degree of saturation of a pressure sensor unit of a piezocone, comprising: - an annular structure which extends around a passage adapted to receive the piezocone by insertion into the passage; - a chamber, at least partly inside the annular structure, for containing a measuring liquid, and being characterized by - a membrane which delimits the chamber, defining an annular surface facing the passage, to be operatively in contact with a porous annular element of the sensor unit of the piezocone; - a pressurizer in fluid communication with the chamber and configured to transmit a pressure pulse of predetermined intensity to the membrane through the measuring liquid contained in the chamber. - an annular structure which extends around a passage adapted to receive the piezocone by insertion into the passage; - a chamber, at least partly inside the annular structure, for containing a measuring liquid, and being characterized by - a membrane which delimits the chamber, defining an annular surface facing the passage, to be operatively in contact with a porous annular element of the sensor unit of the piezocone; - a pressurizer in fluid communication with the chamber and configured to transmit a pressure pulse of predetermined intensity to the membrane through the measuring liquid contained in the chamber.
A photovoltaic module comprising at least one photovoltaic element and at least one layer comprising a polypropylene composition, wherein the polypropylene composition comprises a heterophasic copolymer of propylene which comprises, - a polypropylene matrix component and - an elastomeric propylene copolymer component which is dispersed in said polypropylene matrix, and wherein the polypropylene polymer composition has - a xylene cold soluble fraction in amount of 2 to 30 wt%, when measured according to ISO 16152 (at 25°C), - a melt flow rate, MFR 2, of 0.2 to 20.0 g/10 min (ISO 1133, 2.16 kg load, 230°C), and - a Vicat softening temperature of 148 to 165°C, when measured according to ASTM D 1525 method A. - a polypropylene matrix component and - an elastomeric propylene copolymer component which is dispersed in said polypropylene matrix, - a xylene cold soluble fraction in amount of 2 to 30 wt%, when measured according to ISO 16152 (at 25°C), - a melt flow rate, MFR 2, of 0.2 to 20.0 g/10 min (ISO 1133, 2.16 kg load, 230°C), and - a Vicat softening temperature of 148 to 165°C, when measured according to ASTM D 1525 method A.
A process for producing a fabric, comprising the step of: a) Providing at least a fabric, b) treating at least part of said fabric with an aqueous composition comprising titanium dioxide and at least a binder, preferably a crosslinkable binder, c) heating the fabric obtained in step b); wherein said binder has a glass transition temperature (Tg) in the range from -30°C to 0°C, wherein glass transition temperature (Tg) is measured according to ASTM E1356, and/or a Shore A hardness that is ≤ 30° Shore A, wherein Shore A hardness is measured according to ASTM D2240. a) Providing at least a fabric, b) treating at least part of said fabric with an aqueous composition comprising titanium dioxide and at least a binder, preferably a crosslinkable binder, c) heating the fabric obtained in step b);
A power generation apparatus (10A,10B,10C) comprising: a power generator (12A,12B,12C) adapted to generate power to supply to a load; and a controller; (16A,16B,16C) adapted to control output of power generated by the power generator (10A,10B,10C), characterized in that the controller (16A,16B,16C) is adapted to perform control, when a total output of power generated by the power generation apparatus (10A,10B,10C) and another power generation apparatus (10A,10B,10C) connected to the power generation apparatus (10A,10B,10C) exceeds a power consumption of the load, to adjust output of power generated by the power generation apparatus (10A,10B,10C) and by the other power generation apparatus (10A,10B,10C) based on at least information indicating a degree of degradation of the power generation apparatus (10A,10B,10C) and the other power generation apparatus (10A,10B,10C), and information indicating a progressing speed of degradation of the power generation apparatus (10A,10B,10C) and the other power generation apparatus (10A,10B,10C) relative to output of generated power. a power generator (12A,12B,12C) adapted to generate power to supply to a load; and a controller; (16A,16B,16C) adapted to control output of power generated by the power generator (10A,10B,10C), characterized in that the controller (16A,16B,16C) is adapted to perform control, when a total output of power generated by the power generation apparatus (10A,10B,10C) and another power generation apparatus (10A,10B,10C) connected to the power generation apparatus (10A,10B,10C) exceeds a power consumption of the load, to adjust output of power generated by the power generation apparatus (10A,10B,10C) and by the other power generation apparatus (10A,10B,10C) based on at least information indicating a degree of degradation of the power generation apparatus (10A,10B,10C) and the other power generation apparatus (10A,10B,10C), and information indicating a progressing speed of degradation of the power generation apparatus (10A,10B,10C) and the other power generation apparatus (10A,10B,10C) relative to output of generated power.