mhurhangee/ep-ind-claims huggingface dataset:
An additive manufacturing system comprising: a build platform; a plurality of particles positioned on said build platform defining a build layer; a first region within said build layer and a second region within said build layer, said first region and said second region each including a portion of said plurality of particles; and at least one consolidation device configured to consolidate said plurality of particles within said build layer into a solid, consolidated portion of said build layer, wherein said at least one consolidation device is further configured to consolidate at least one of said plurality of particles within said build layer and said solid, consolidated portion of said build layer into a molten volume of transfer material, said at least one consolidation device is further configured to transfer a portion of said molten volume of transfer material within said first region from said first region to said second region by repetitively directing an energy beam from said first region to said second region along a laser melting track to repetitively re-melt said portion of said molten volume of transfer material along said laser melting track, wherein said at least one consolidation device is further configured to control the position of the energy beam in a complex oscillation pattern including a combination of frequency components superimposed on each other or in a circular pattern superimposed on itself and repeated along a length of the laser melting track along the laser melting track. a build platform; a plurality of particles positioned on said build platform defining a build layer; a first region within said build layer and a second region within said build layer, said first region and said second region each including a portion of said plurality of particles; and at least one consolidation device configured to consolidate said plurality of particles within said build layer into a solid, consolidated portion of said build layer, wherein said at least one consolidation device is further configured to consolidate at least one of said plurality of particles within said build layer and said solid, consolidated portion of said build layer into a molten volume of transfer material, said at least one consolidation device is further configured to transfer a portion of said molten volume of transfer material within said first region from said first region to said second region by repetitively directing an energy beam from said first region to said second region along a laser melting track to repetitively re-melt said portion of said molten volume of transfer material along said laser melting track, wherein said at least one consolidation device is further configured to control the position of the energy beam in a complex oscillation pattern including a combination of frequency components superimposed on each other or in a circular pattern superimposed on itself and repeated along a length of the laser melting track along the laser melting track.
Hydro-mechanical suspension for vehicle, comprising a mechanical spring interposed between an unsprung mass and a sprung mass of the vehicle, a shock-absorber interposed between the unsprung mass and the sprung mass of the vehicle, in parallel with the mechanical spring, a hydraulic linear actuator arranged in series with the mechanical spring, an accumulator, a tank containing an incompressible working fluid and a hydraulic circuit for hydraulically connecting with each other, according to predetermined operating modes, the actuator, the accumulator and the tank, wherein the hydraulic circuit comprises - a first hydraulic line through which the accumulator is hydraulically connected with the tank, - a second hydraulic line through which the actuator is hydraulically connected with the tank, - a third hydraulic line connecting the first and second hydraulic lines (20, 22) with each other, - a single pump, which is made as a reversible pump and is arranged along the third hydraulic line, - a reversible electric motor coupled to the pump to drive it in either direction, and - a plurality of valves (V 1, V 2, V 3, V 4, V 5, V S) arranged along the first and second hydraulic lines (20, 22) to control the flow of the working fluid between the accumulator, the tank and the actuator, characterized in that said plurality of valves (V 1, V 2, V 3, V 4, V 5, V S) includes a first valve (V 1), a second valve (V 2), a third valve (V 3) and a fourth valve (V 4), wherein the first valve (V 1) and the second valve (V 2) are arranged along the first hydraulic line, on the same side as the tank and on the same side as the accumulator, respectively, relative to a first point of intersection (I 1) between the first hydraulic line and the third hydraulic line, and wherein the third valve (V 3) and the fourth valve (V 4) are arranged along the second hydraulic line, on the same side as the tank and on the same side as the actuator, respectively, relative to a second point of intersection (I 2) between the second hydraulic line and the third hydraulic line. - a first hydraulic line through which the accumulator is hydraulically connected with the tank, - a second hydraulic line through which the actuator is hydraulically connected with the tank, - a third hydraulic line connecting the first and second hydraulic lines (20, 22) with each other, - a single pump, which is made as a reversible pump and is arranged along the third hydraulic line, - a reversible electric motor coupled to the pump to drive it in either direction, and - a plurality of valves (V 1, V 2, V 3, V 4, V 5, V S) arranged along the first and second hydraulic lines (20, 22) to control the flow of the working fluid between the accumulator, the tank and the actuator,
Protection method of solid oxide cells, in which method is arranged gas flows in the cell by at least two cell structure plates (121, 132) made of metal, characterized in that the in the method is formed high temperature thermal flame to which liquid precursor is fed to form metal oxide compounds, said liquid precursor comprising metal ions, which form the desired coating with oxygen, said liquid precursor is formed from at least one of metal nitrates and metal acetates, and from solvent formed at least one of organic compounds and water in which solvent at least one of metal nitrates and metal acetates are dissolved, and from organic compounds which stabilize the liquid precursor through the chelation resulting more homogenous mixture of metal complex, and from organic compounds that are exothermic above characteristic energy threshold level, and from organic compounds that form gases as reaction product and therefore further increase the atomization of the liquid precursor, and is formed metal oxide material on metallic structure (121, 132) from liquid precursor containing at least metal ions and at least one of organic and inorganic compounds fed into thermal flame having average gas velocity over 200 m/s, and in the method is controlled flow rate at least of fuel, oxygen and liquid precursor in order to regulate thermal characteristics of the thermal spraying and to improve atomization of the precursor.
Paper for preservation of biological samples, having a surface weight of 40 - 800 g/m2, comprising cellulose fibres or glass fibres, and further comprising 4 - 30 wt %, such as 10 - 25 wt%, of a hydrophilic branched carbohydrate polymer, wherein said carbohydrate polymer is covalently coupled to said fibres or crosslinked to itself.
Method of controlling an outdoor lighting system, the outdoor lighting system comprising outdoor lamps (220, 304, 324) which are distributed over spatial segments (224, 308, 310, 314, 316) of an outdoor space, the emitted light intensity of the outdoor lamps (220, 304, 324) being controllable for each spatial segment (224, 308, 310, 314, 316), and references being used to refer to specific spatial segments (224, 308, 310, 314, 316), the method comprising the steps of: - receiving from a detection system an indication of a sub-area (208, 306, 312, 318) of the outdoor space and receiving at least one activity property for the sub-area (208, 306, 312, 318), the detection system being arranged for detecting activity in the sub-area (208, 306, 312, 318), the sub-area (208, 306, 312, 318) being different from all the spatial segments (224, 308, 310, 314, 316), being larger than the spatial segments and at least partially overlapping with a plurality of the spatial segments, the indication being used to refer to the sub-area (208, 306, 312, 318), and the at least one activity property being a traffic density value of the sub-area (208, 306, 312, 318), - mapping the at least one indication to at least one reference of a respective spatial segment (224, 308, 310, 314, 316), - determining a light intensity level for the respective at least one spatial segment (224, 308, 310, 314, 316) in dependence on the received at least one activity property, wherein the light intensity level being controlled at a plurality of levels in dependence of the traffic density value of the sub-area, - providing the at least one reference together with the respective determined light intensity to the outdoor lighting system. - receiving from a detection system an indication of a sub-area (208, 306, 312, 318) of the outdoor space and receiving at least one activity property for the sub-area (208, 306, 312, 318), the detection system being arranged for detecting activity in the sub-area (208, 306, 312, 318), the sub-area (208, 306, 312, 318) being different from all the spatial segments (224, 308, 310, 314, 316), being larger than the spatial segments and at least partially overlapping with a plurality of the spatial segments, the indication being used to refer to the sub-area (208, 306, 312, 318), and the at least one activity property being a traffic density value of the sub-area (208, 306, 312, 318), - mapping the at least one indication to at least one reference of a respective spatial segment (224, 308, 310, 314, 316), - determining a light intensity level for the respective at least one spatial segment (224, 308, 310, 314, 316) in dependence on the received at least one activity property, wherein the light intensity level being controlled at a plurality of levels in dependence of the traffic density value of the sub-area, - providing the at least one reference together with the respective determined light intensity to the outdoor lighting system.
A security device comprising: a) a layer of a medium having a low index of refraction n low; b) a diffractive microstructure on the medium having a low index of refraction n low; c) a waveguiding layer having a high index of refraction n high, which comprises a luminescent material, on the diffractive microstructure; and optionally d) a layer of a medium having a low index of refraction n low; or A) a layer of a medium having a low index of refraction n low; B) a waveguiding layer having a high index of refraction n high; which comprises a luminescent material, on the medium having a low index of refraction n low; C) a diffractive microstructure on the waveguiding layer having a high index of refraction n high; and optionally D) a layer of a medium having a low index of refraction n low; wherein the refractive index difference between the medium, or substrate having a low index of refraction n low and the waveguiding layer is at least 0.1; the microstructure period (Λ) is in the range of from 100 to 500 nm; the thickness (d) of the waveguiding layer is in the range of from 60 to 200 nm; and the microstructure depth (t) is in the range of from 100 to 300 nm, the security device being characterized in that: the diffractive microstructure consists of at least two part-areas adjacent or nearby to one another, wherein one part-area comprises one groves orientation and the other part-area comprises another different groves orientation and/or one part-area comprises one grating period and the other part-area comprises another different grating period, wherein both part-areas comprise a logo in the diffractive microstructure, upon irradiation of the luminescent material the first logo appears bright and the second logo appears dark depending on the orientation of the groves and upon rotation the first logo appears dark and the second logo appears bright. a) a layer of a medium having a low index of refraction n low; b) a diffractive microstructure on the medium having a low index of refraction n low; c) a waveguiding layer having a high index of refraction n high, which comprises a luminescent material, on the diffractive microstructure; and optionally d) a layer of a medium having a low index of refraction n low; or A) a layer of a medium having a low index of refraction n low; B) a waveguiding layer having a high index of refraction n high; which comprises a luminescent material, on the medium having a low index of refraction n low; C) a diffractive microstructure on the waveguiding layer having a high index of refraction n high; and optionally D) a layer of a medium having a low index of refraction n low;
An implant having a coating, wherein the coating contains or consists of a functionalised RGD peptidomimetic RGD-P1 having the formula: and/or a functionalised RGD peptidomimetic RGD-P2 having formula: wherein A independently of one another stands for a coupling group that is selected from 1,4-phenyl diisothiocyanate, 1,4-phenyldiisocyanate, 1-isothiocyanato-4-isocyanotobenzene, N'N'-carbonyldiimidazole and/or disulfosuccinimidyltartrate; R independently of one another stands for chitosan or polylysine; and n and m independently of one another are 1 to 20.
A communication system for transmitting electrical power and data from a first end of a transmission line to a second end of the transmission line, the apparatus comprising, at said first end: supply means for supplying a direct current signal; modulator means coupled with said supply means for modulating said DC signal with an analogue data signal; and characterized by: inverter means (17, 18) coupled with said modulator means for converting the modulated DC signal to a communication on power signal comprising an AC power signal modulated by analogue data, the inverter means being coupled with the first end of said transmission line for the transmission of said COP signal to said second end of the transmission line, wherein, at said first end, there is means (15, 16) for receiving from said transmission line a data signal from said second end, and wherein the system comprises a control system for a subsea hydrocarbon well facility, said first end being topside and said second end being subsea. supply means for supplying a direct current signal; modulator means coupled with said supply means for modulating said DC signal with an analogue data signal; and characterized by: inverter means (17, 18) coupled with said modulator means for converting the modulated DC signal to a communication on power signal comprising an AC power signal modulated by analogue data, the inverter means being coupled with the first end of said transmission line for the transmission of said COP signal to said second end of the transmission line, wherein, at said first end, there is means (15, 16) for receiving from said transmission line a data signal from said second end, and wherein the system comprises a control system for a subsea hydrocarbon well facility, said first end being topside and said second end being subsea. inverter means (17, 18) coupled with said modulator means for converting the modulated DC signal to a communication on power signal comprising an AC power signal modulated by analogue data, the inverter means being coupled with the first end of said transmission line for the transmission of said COP signal to said second end of the transmission line, wherein, at said first end, there is means (15, 16) for receiving from said transmission line a data signal from said second end, and wherein the system comprises a control system for a subsea hydrocarbon well facility, said first end being topside and said second end being subsea.
A method of decoding a barcode with an electronic device to enhance barcode readability, comprising: providing an electronic device having a barcode scanner, a memory, and a barcode template already stored in the memory before scanning, the barcode template including fixed data fields and variable data fields, the fixed data fields comprising known data common to more than one barcode and the variable data fields comprising unique variable data; providing barcode scanning software on the electronic device, the barcode scanning software operative to: scan a barcode having encoded data; sample the encoded data of the barcode into a decoded codeword array comprising scanned codeword data; select a barcode template matching the format of the scanned barcode; and apply the barcode template to the decoded codeword array to correct the areas in the decoded codeword array that correspond to the fixed data fields of the barcode template by replacing the scanned codeword data in the areas with the known data in the fixed data fields of the barcode template. providing an electronic device having a barcode scanner, a memory, and a barcode template already stored in the memory before scanning, the barcode template including fixed data fields and variable data fields, the fixed data fields comprising known data common to more than one barcode and the variable data fields comprising unique variable data; providing barcode scanning software on the electronic device, the barcode scanning software operative to: scan a barcode having encoded data; sample the encoded data of the barcode into a decoded codeword array comprising scanned codeword data; select a barcode template matching the format of the scanned barcode; and apply the barcode template to the decoded codeword array to correct the areas in the decoded codeword array that correspond to the fixed data fields of the barcode template by replacing the scanned codeword data in the areas with the known data in the fixed data fields of the barcode template. scan a barcode having encoded data; sample the encoded data of the barcode into a decoded codeword array comprising scanned codeword data; select a barcode template matching the format of the scanned barcode; and apply the barcode template to the decoded codeword array to correct the areas in the decoded codeword array that correspond to the fixed data fields of the barcode template by replacing the scanned codeword data in the areas with the known data in the fixed data fields of the barcode template.
A method implemented by one or more processors, the method comprising: processing audio data using one or more acoustic models to monitor for an occurrence of an invocation phrase configured to invoke an automated assistant, wherein the audio data is based on detection of spoken input of a user at a client device that includes an automated assistant interface for interacting with the automated assistant; detecting, based on processing the audio data using the one or more acoustic models, the occurrence of the invocation phrase in a portion of the audio data; determining, based on processing of the audio data using the one or more acoustic models or other processing of the audio data using one or more other acoustic models, that the portion of the audio data that includes the invocation phrase corresponds to a user profile that is accessible to the automated assistant; identifying a language assigned to the user profile; selecting a speech recognition model for the language, wherein selecting the speech recognition model for the language is based on determining the portion of the audio data corresponds to the user profile, and is based on identifying the language as assigned to the user profile; using the selected speech recognition model to process a subsequent portion of the audio data that follows the portion of the audio data; and causing the automated assistant to provide responsive content that is determined based on the processing of the subsequent portion using the selected speech recognition model. processing audio data using one or more acoustic models to monitor for an occurrence of an invocation phrase configured to invoke an automated assistant, wherein the audio data is based on detection of spoken input of a user at a client device that includes an automated assistant interface for interacting with the automated assistant; detecting, based on processing the audio data using the one or more acoustic models, the occurrence of the invocation phrase in a portion of the audio data; determining, based on processing of the audio data using the one or more acoustic models or other processing of the audio data using one or more other acoustic models, that the portion of the audio data that includes the invocation phrase corresponds to a user profile that is accessible to the automated assistant; identifying a language assigned to the user profile; selecting a speech recognition model for the language, wherein selecting the speech recognition model for the language is based on determining the portion of the audio data corresponds to the user profile, and is based on identifying the language as assigned to the user profile; using the selected speech recognition model to process a subsequent portion of the audio data that follows the portion of the audio data; and causing the automated assistant to provide responsive content that is determined based on the processing of the subsequent portion using the selected speech recognition model.