mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for controlling equipment to serve energy loads of a building or campus, the method comprising: - obtaining a function that is based on: - an amount of resources to be consumed, produced, charged, or discharged by the equipment over a time horizon to serve the energy loads of the building or campus predicted for a plurality of time steps in the time horizon; and - an additional cost, such as a demand charge based on a maximum resource consumption of the equipment during a demand charge period that at least partially overlaps with the time horizon, or penalty, such as a load change penalty based on a change in an amount of the energy loads assigned to a group of the equipment between a first time within the time horizon and a second time within the time horizon, separate from the amount of resources to be consumed, produced, charged, or discharged by the equipment over the time horizon; - determining, using the function, a distribution of the energy loads across the equipment over the time horizon; and - operating the equipment to achieve the determined distribution of the energy loads across the equipment over the time horizon. - obtaining a function that is based on: - an amount of resources to be consumed, produced, charged, or discharged by the equipment over a time horizon to serve the energy loads of the building or campus predicted for a plurality of time steps in the time horizon; and - an additional cost, such as a demand charge based on a maximum resource consumption of the equipment during a demand charge period that at least partially overlaps with the time horizon, or penalty, such as a load change penalty based on a change in an amount of the energy loads assigned to a group of the equipment between a first time within the time horizon and a second time within the time horizon, separate from the amount of resources to be consumed, produced, charged, or discharged by the equipment over the time horizon; - an amount of resources to be consumed, produced, charged, or discharged by the equipment over a time horizon to serve the energy loads of the building or campus predicted for a plurality of time steps in the time horizon; and - an additional cost, such as a demand charge based on a maximum resource consumption of the equipment during a demand charge period that at least partially overlaps with the time horizon, or penalty, such as a load change penalty based on a change in an amount of the energy loads assigned to a group of the equipment between a first time within the time horizon and a second time within the time horizon, separate from the amount of resources to be consumed, produced, charged, or discharged by the equipment over the time horizon; - determining, using the function, a distribution of the energy loads across the equipment over the time horizon; and - operating the equipment to achieve the determined distribution of the energy loads across the equipment over the time horizon.
A surface acoustic wave resonator provided on a quartz substrate with Euler angles -1.5° ≤ φ ≤ 1.5°, 117° ≤ θ ≤ 142°, and 42.79° ≤ |ψ| ≤ 49.57°, comprising: an IDT which includes a plurality of electrode fingers (18, 18a, 18b) and inter-electrode finger grooves formed in the surface of the quartz substrate, said grooves having a depth G in the surface of the quartz substrate, and which is adapted to excite a stop band upper end mode surface acoustic wave along a SAW propagation direction (X') determined by the Euler angles, said electrode fingers (18, 18a, 18b) being disposed in such a way that the extension direction of the electrode fingers (18, 18a, 18b) is perpendicular to the SAW propagation direction (X'); wherein when the wavelength of the surface acoustic wave is λ and the depth of the inter-electrode finger grooves is G, λ and G satisfy the relationship of 0.01 λ ≦ G and wherein, when the line occupation rate of the IDT is η, the inter-electrode finger groove depth G and line occupation rate η satisfy the relationships of − 2.0000 × G / λ + 0.7200 ≦ η ≦ − 2.5000 × G / λ + 0.7775 provided that 0. 0100 λ ≦ G ≦ 0.0500 λ − 3.5898 × G / λ + 0.7995 ≦ η ≦ − 2.5000 × G / λ + 0.7775 provided that 0.0500 λ < G ≦ 0.0695 λ an IDT which includes a plurality of electrode fingers (18, 18a, 18b) and inter-electrode finger grooves formed in the surface of the quartz substrate, said grooves having a depth G in the surface of the quartz substrate, and which is adapted to excite a stop band upper end mode surface acoustic wave along a SAW propagation direction (X') determined by the Euler angles, said electrode fingers (18, 18a, 18b) being disposed in such a way that the extension direction of the electrode fingers (18, 18a, 18b) is perpendicular to the SAW propagation direction (X'); wherein when the wavelength of the surface acoustic wave is λ and the depth of the inter-electrode finger grooves is G, λ and G satisfy the relationship of 0.01 λ ≦ G and wherein, when the line occupation rate of the IDT is η, the inter-electrode finger groove depth G and line occupation rate η satisfy the relationships of − 2.0000 × G / λ + 0.7200 ≦ η ≦ − 2.5000 × G / λ + 0.7775 provided that 0. 0100 λ ≦ G ≦ 0.0500 λ − 3.5898 × G / λ + 0.7995 ≦ η ≦ − 2.5000 × G / λ + 0.7775 provided that 0.0500 λ < G ≦ 0.0695 λ
A phosphodiesterase type 5 (PDE-5) inhibitor selected from the group consisting of sildenafil, sildenafil citrate, lodenafil, mirodenafil, avanafil, tadalafil, vardenafil, udenafil and any combination thereof, for use in treating palmar-plantar erythrodysesthesia.
Method for processing a broadcast radio signal, wherein the method has the following steps: - reading in a data block that has a plurality of data values that are each consistent with a value of a broadcast radio signal sampled at a predefined time; - analysing the plurality of data values of the data block in order to ascertain a processing parameter; and - demodulating each data value of the data block by means of a processing specification, 410, 420) that is dependent on the processing parameter, in order to process the broadcast radio signal, characterized in that the demodulating step involves at least one second processing specification (410, 420) being applied to the data values of the data block after or during execution of a first processing specification, in order to process the broadcast radio signal. - reading in a data block that has a plurality of data values that are each consistent with a value of a broadcast radio signal sampled at a predefined time; - analysing the plurality of data values of the data block in order to ascertain a processing parameter; and - demodulating each data value of the data block by means of a processing specification, 410, 420) that is dependent on the processing parameter, in order to process the broadcast radio signal,
Device for mounting roof plates having a side fold on roof battens with a first hook-shaped component (8, 8') for engaging in the side fold of the roof plate and a second component (9, 9') reaching under the roof batten, wherein the second component (9, 9') has a U-shaped configuration, wherein both U-legs are tilted inwards in the direction of the U-bar relative to the vertical to rest on the narrow sides of the roof batten, wherein the free ends of both U-legs (11, 12) are bent off inwards at approximately a right angle, characterised in that the first (8, 8') and the second (9, 9') components are made of plastic.
A composition comprising a combination of zinc pyrithione as a component and as a component a food-approved antimicrobial selected sodium sulfite, sodium bisulfite and lysozyme; wherein the ratio by weight of component to component ranges from 4:1 to 1:4 to provide a synergistic antimicrobial effect.
An absorbent article, wherein the absorbent article comprises an upper layer and back sheet opposing the upper layer, the absorbent article being delimited by two opposing and longitudinally extending longitudinal side edges and two opposing and laterally extending lateral side edges, the upper layer being directly attached to the back sheet at least along the side edges, characterised in that the absorbent article comprises a signal layer, the signal layer comprises a pattern of capillary channels for allowing capillary action such that discharged menstrual fluids that comes across one of the openings in the capillary channels enters into the capillary channels and are retained therein due to the capillary force, wherein the colour of the retained menstrual discharge dyes/colours the pattern for signalling purpose and wherein the pattern is directly or indirectly visible for an observer, wherein the signal layer is an upper layer in the absorbent article and the upper layer comprises through openings for allowing menstrual fluids to pass through the upper layer; or wherein the signal layer is positioned in the absorbent article such that it is visible through an upper layer in the absorbent article and the signal layer comprises through openings for allowing menstrual fluids to pass through the signal layer; wherein the length of the capillary channels is shorter than the length of the through openings and the layer that the through openings are positioned in. the absorbent article comprises a signal layer, the signal layer comprises a pattern of capillary channels for allowing capillary action such that discharged menstrual fluids that comes across one of the openings in the capillary channels enters into the capillary channels and are retained therein due to the capillary force, wherein the colour of the retained menstrual discharge dyes/colours the pattern for signalling purpose and wherein the pattern is directly or indirectly visible for an observer, wherein the signal layer is an upper layer in the absorbent article and the upper layer comprises through openings for allowing menstrual fluids to pass through the upper layer; or wherein the signal layer is positioned in the absorbent article such that it is visible through an upper layer in the absorbent article and the signal layer comprises through openings for allowing menstrual fluids to pass through the signal layer; wherein the length of the capillary channels is shorter than the length of the through openings and the layer that the through openings are positioned in.
Terminal block that is able to be fastened to a frame of an electrical switchgear apparatus, comprising: - a holder provided with at least one positioning and holding finger, and - a securing device, the at least one positioning and holding finger being able to be introduced into a positioning and holding orifice or a positioning and holding recess of the frame in order to position the holder on the frame, the terminal block is characterized: - in that it moreover comprises a cover provided with at least one positioning and holding lug, - in that the at least one lug is able to be slid in a positioning and holding slide of the frame in order to position the cover on the frame, - in that the securing device secures the cover to the holder when the positioning and holding finger is introduced into the positioning and holding orifice or into the positioning and holding recess and when the lug is slid in the positioning and holding slide. - a holder provided with at least one positioning and holding finger, and - a securing device, the at least one positioning and holding finger being able to be introduced into a positioning and holding orifice or a positioning and holding recess of the frame in order to position the holder on the frame, the terminal block is characterized: - in that it moreover comprises a cover provided with at least one positioning and holding lug, - in that the at least one lug is able to be slid in a positioning and holding slide of the frame in order to position the cover on the frame, - in that the securing device secures the cover to the holder when the positioning and holding finger is introduced into the positioning and holding orifice or into the positioning and holding recess and when the lug is slid in the positioning and holding slide. - in that it moreover comprises a cover provided with at least one positioning and holding lug, - in that the at least one lug is able to be slid in a positioning and holding slide of the frame in order to position the cover on the frame, - in that the securing device secures the cover to the holder when the positioning and holding finger is introduced into the positioning and holding orifice or into the positioning and holding recess and when the lug is slid in the positioning and holding slide.
A mulch composition having a total porosity of 88 volume % or more; characterized in that it comprises: about 5 to 95 weight % of fibers of tree bark, based on the total weight of the mulch composition, and about 5 to 95 weight % of fibers of wood components, based on the total weight of the mulch composition, and at least one binder and/or a non-permanent dye; wherein the size of the fibers in the mulch composition ranges at least from 0,149 mm to 2,38 mm; wherein 62.3 weight % to 79.5 weight % of the fibrous tree bark and the fibrous wood components have a particle size less than 2,38 mm and greater than 0,149 mm. about 5 to 95 weight % of fibers of tree bark, based on the total weight of the mulch composition, and about 5 to 95 weight % of fibers of wood components, based on the total weight of the mulch composition, and at least one binder and/or a non-permanent dye; wherein the size of the fibers in the mulch composition ranges at least from 0,149 mm to 2,38 mm; wherein 62.3 weight % to 79.5 weight % of the fibrous tree bark and the fibrous wood components have a particle size less than 2,38 mm and greater than 0,149 mm.
A method for production of reactive intermediates from biomass, comprising: treating a biomass with a composition comprising a single phase co-solvent mixture of aqueous tetrahydrofuran and an acid catalyst under conditions to produce a liquid phase comprising biomass-derived, monomeric sugars, oligosaccharides, and lignin products and a solid material comprising biomass-derived polysaccharides.
Sealed and sterile device for aseptic separation and concentration of biological components; comprising, at least: - a tube sealed by a first end and having a mouth at a second end; - a plunger of flexible material, without drive shaft, mounted inside the tube with the possibility of longitudinal movement and having a hole for loading a fluid to be separated and concentrated, and for discharging the separated fractions, whose hole is provided with a female luer-lock valved connection; and a purge duct, provided with a self-sealing filter, through which the automatic purge of the air / gas contained in the tube during the filling of the tube is carried out, with the fluid to be separated and concentrated; and - a cap for protecting the connection / plunger assembly, which can be coupled to the mouth of the tube. - a tube sealed by a first end and having a mouth at a second end; - a plunger of flexible material, without drive shaft, mounted inside the tube with the possibility of longitudinal movement and having a hole for loading a fluid to be separated and concentrated, and for discharging the separated fractions, whose hole is provided with a female luer-lock valved connection; and a purge duct, provided with a self-sealing filter, through which the automatic purge of the air / gas contained in the tube during the filling of the tube is carried out, with the fluid to be separated and concentrated; and - a cap for protecting the connection / plunger assembly, which can be coupled to the mouth of the tube.
A method for monitoring an operational characteristic of a data communication device within a network, the method comprising: Sampling (Step 102) an operational characteristic of a data communication device at a fine-grain sample rate over a first sampling interval to produce fine-grain samples of the operational characteristic of the data communication device; Training (Step 104) a machine learning algorithm using the fine-grain samples of the operational characteristic of the data communication device, the fine-grain sample rate, and a coarse-grain sample rate that is less than the fine-grain sample rate; Sampling (Step 106) the operational characteristic of the data communication device at the coarse-grain sample rate over a second sampling interval to produce coarse-grain samples of the operational characteristic of the data communication device; and Using (Step 107) the machine learning algorithm to process the coarse-grain samples of the operational characteristic of the data communication device to produce accuracy-enhanced samples of the operational characteristic of the data communication device based upon the coarse-grain samples of the operational characteristic of the data communication device. Sampling (Step 102) an operational characteristic of a data communication device at a fine-grain sample rate over a first sampling interval to produce fine-grain samples of the operational characteristic of the data communication device; Training (Step 104) a machine learning algorithm using the fine-grain samples of the operational characteristic of the data communication device, the fine-grain sample rate, and a coarse-grain sample rate that is less than the fine-grain sample rate; Sampling (Step 106) the operational characteristic of the data communication device at the coarse-grain sample rate over a second sampling interval to produce coarse-grain samples of the operational characteristic of the data communication device; and Using (Step 107) the machine learning algorithm to process the coarse-grain samples of the operational characteristic of the data communication device to produce accuracy-enhanced samples of the operational characteristic of the data communication device based upon the coarse-grain samples of the operational characteristic of the data communication device.
Steel alloy having improved corrosion resistance at high-temperature loading for operating temperatures of 300°C to 1200°C, in particular 800°C to 1200°C, having the following chemical composition in wt.%: C: > 0.01 to 1.0 Al: 3.0 to 12.0 Cr: 2.0 to 15.0 Mn: 5.0 to 30.0 Si: 0.10 to 3.0 Cu: 0.001 to 2.5 Ni: 0.001 to 5.0 S: to 0.010 P: to 0.010 N: 0.001 to 0.050 B: 0.00005 to 0.0250 Mo: 0.01 to 5.0 where: 12 < Cr + 2*Al+3*Si < 24 and at least one of the elements Ti, V and Nb with the following contents in wt.% at least stoichiometrically with respect to the present content of N: Ti: 0.01 to 1.0, V: 0.01 to 1.0, Nb: 0.01 to 1.0, the remainder being iron with melting-induced impurities and addition by alloying of at least one of the rare earth elements in wt.%: Y: max. 0.1, La: max. 0.1, Ce: max. 0.1 or the elements Hf: max. 0.1, Sr: max. 0.1 and Zr: max. 0.1 with a minimum content of the elements individually or in combination of 0.01 wt.%. C: > 0.01 to 1.0 Al: 3.0 to 12.0 Cr: 2.0 to 15.0 Mn: 5.0 to 30.0 Si: 0.10 to 3.0 Cu: 0.001 to 2.5 Ni: 0.001 to 5.0 S: to 0.010 P: to 0.010 N: 0.001 to 0.050 B: 0.00005 to 0.0250 Mo: 0.01 to 5.0 where: 12 < Cr + 2*Al+3*Si < 24 Y: max. 0.1, La: max. 0.1, Ce: max. 0.1 or the elements Hf: max. 0.1, Sr: max. 0.1 and Zr: max. 0.1 with a minimum content of the elements individually or in combination of 0.01 wt.%.
A plasma surface-treated carbon fiber comprising carboxyl groups introduced into the surface of the carbon fiber, wherein a mole ratio between a carboxyl group and an acid anhydride measured by pyrolysis gas analysis as measured according to the description is from 50:50 to 70:30, and a surface oxygen concentration (O/C) measured by X-ray photoelectron spectroscopy as measured according to the description is from 0.05 to 0.28.
A method for protecting the execution of a software module compiled and installed in an electronic controller of an electricity distribution installation, this software module comprising control software instructions and at least one protected function, this method being implemented by the control software instructions when the software module is executed by the electronic controller, in response to a request from the electronic controller to execute said at least one protected function, this method comprising: - obtaining a digital identifier of the electronic controller; - calculating, by means of a calculation function contained in the software module, a digital signature from the digital identifier obtained; - comparing the calculated digital signature with a predefined signature stored in the software module, the predefined digital signature having been previously inserted when the software module was created, on the basis of the digital identifier of the industrial controller and by means of a calculation function similar to that contained in the software module; - authorising the execution of the protected function if the calculated digital signature matches the predefined digital signature, and denying the execution of the protected function if the calculated digital signature does not match the predefined digital signature. - obtaining a digital identifier of the electronic controller; - calculating, by means of a calculation function contained in the software module, a digital signature from the digital identifier obtained; - comparing the calculated digital signature with a predefined signature stored in the software module, the predefined digital signature having been previously inserted when the software module was created, on the basis of the digital identifier of the industrial controller and by means of a calculation function similar to that contained in the software module; - authorising the execution of the protected function if the calculated digital signature matches the predefined digital signature, and denying the execution of the protected function if the calculated digital signature does not match the predefined digital signature.
A method for enriching syrup and honey with soluble constituents of an extraction material, wherein - the specific weight of the extraction material is lower than that of syrup or honey and - the extraction material is present in a granularity with a grain size of less than 0.8 mm and - the extraction material is dehydrated plant constituents, comprising the steps: - filling of a reaction vessel, which has a filling opening and a outlet opening, wherein the outlet opening is arranged downstream of the filling opening, with a mixture of syrup or honey and extraction material, - maturing of the mixture of the extraction material and the syrup or honey at room temperature in a maturing phase for a maturing period until a concluding separation of both components, wherein an upper phase of compacted extraction material and highly viscous sugar solution and a lower phase of enriched syrup or honey are obtained, wherein the total maturing period, even if the refilling phase, maturing phase and discharge phase are repeated, is a minimum of 0.5 hours and, as a maximum, does not exceed the shelf-life of the honey, the syrup or the extraction material, - unfiltered outflow of the enriched highly viscous sugar solution through the outlet opening. - the specific weight of the extraction material is lower than that of syrup or honey and - the extraction material is present in a granularity with a grain size of less than 0.8 mm and - the extraction material is dehydrated plant constituents, - filling of a reaction vessel, which has a filling opening and a outlet opening, wherein the outlet opening is arranged downstream of the filling opening, with a mixture of syrup or honey and extraction material, - maturing of the mixture of the extraction material and the syrup or honey at room temperature in a maturing phase for a maturing period until a concluding separation of both components, wherein an upper phase of compacted extraction material and highly viscous sugar solution and a lower phase of enriched syrup or honey are obtained, wherein the total maturing period, even if the refilling phase, maturing phase and discharge phase are repeated, is a minimum of 0.5 hours and, as a maximum, does not exceed the shelf-life of the honey, the syrup or the extraction material, - unfiltered outflow of the enriched highly viscous sugar solution through the outlet opening.