mhurhangee/ep-ind-claims huggingface dataset:
Installation for the recovery of thermal energy from flue gas from combustion technology systems in combination with the cleaning of these flue gases, in particular in bakeries, wherein this installation is arranged into the exhaust gas path between the flue gas and the vapour exhaust of a baking oven, and the chimney which leads these gases to the outside, characterized in that the installation is made up of a minimum of two heat exchanger units (10 and 6) separated from each other, and a cleaning area as well as a neutralisation area, wherein the heat exchanger unit is equipped with a heat exchanger for the vapour, and the heat exchanger unit is equipped with a heat exchanger flue gas, the lower outputs of which lead to the cleaning area which is made up of a base trough filled with liquid, wherein at least one pane cleaner is arranged in this base trough, and the neutralisation area consists of a compartment arranged above the base trough, which includes the neutralisation chamber and the extraction room.
A nonwoven fabric comprising: a first web of polymeric fibers; and a second web of substantially pectin-free, individualized bast fibers arranged on the first web, the substantially pectin-free, individualized bast fibers having a mean length less than 9 millimeters (mm); wherein the polymeric fibers of the first web are entangled with the substantially pectin-free, individualized bast fibers of the second web. a first web of polymeric fibers; and a second web of substantially pectin-free, individualized bast fibers arranged on the first web, the substantially pectin-free, individualized bast fibers having a mean length less than 9 millimeters (mm); wherein the polymeric fibers of the first web are entangled with the substantially pectin-free, individualized bast fibers of the second web.
A method to obtain a reflective anodised aluminium surface on an object, comprising the steps: a. Providing the object with a top layer comprising aluminium or an aluminium alloy, the top layer comprising embedded discrete particles of titanium or titanium oxide, b. Subsequently anodising said top layer to form an anodic oxide layer, wherein said anodising of step b. takes place by applying a time varying signal comprising a high frequency signal in the form of a square wave signal having a frequency between 500 Hz and 5 kHz, such as around 1 kHz; characterized in that said anodising of step b. takes place in an aqueous solution of an organic acid. a. Providing the object with a top layer comprising aluminium or an aluminium alloy, the top layer comprising embedded discrete particles of titanium or titanium oxide, b. Subsequently anodising said top layer to form an anodic oxide layer, wherein said anodising of step b. takes place by applying a time varying signal comprising a high frequency signal in the form of a square wave signal having a frequency between 500 Hz and 5 kHz, such as around 1 kHz;
A system for providing a simulated environment, comprising: a wearable device, configured to output a scenario of the simulated environment, wherein the scenario is a field of view of the simulated environment output by the wearable device; and a computing unit, configured to provide an indication corresponding to a real-time mobile user in the scenario when the real-time mobile user is detectable within a predetermined distance of the wearable device, wherein the indication is an avatar corresponding to the real-time mobile user, characterised in that the computing unit is further configured to refresh the avatar, corresponding to a motion of the real-time mobile user, in the scenario only when the motion exceeds a motion threshold, and wherein the motion threshold is determined according to the height, length of arm, length of feet or step length of the mobile user a wearable device, configured to output a scenario of the simulated environment, wherein the scenario is a field of view of the simulated environment output by the wearable device; and a computing unit, configured to provide an indication corresponding to a real-time mobile user in the scenario when the real-time mobile user is detectable within a predetermined distance of the wearable device, wherein the indication is an avatar corresponding to the real-time mobile user, characterised in that the computing unit is further configured to refresh the avatar, corresponding to a motion of the real-time mobile user, in the scenario only when the motion exceeds a motion threshold, and wherein the motion threshold is determined according to the height, length of arm, length of feet or step length of the mobile user
A method for manufacturing a polymer where a hydroxy group is added to a terminal of either one of a homopolymer of a non-conjugated olefin, a homopolymer of a conjugated diene compound, and a copolymer of a conjugated diene compound and a non-conjugated olefin, the method comprising: a first reaction step of reacting a hydrocarbon containing at least either one of the non-conjugated olefin and the conjugated diene compound with an organic aluminum compound, using a rare earth element compound-containing catalyst; a second reaction step of reacting a first reactant obtained from the first reaction step with oxygen; and a third reaction step of reacting a second reactant obtained from the second reaction step with at least either one of water and alcohol, and wherein the rare earth element compound-containing catalyst includes a component: a rare earth element compound or a reactant of the rare earth element compound and a Lewis base; wherein the rare earth element compound or the reactant of the rare earth element compound and the Lewis base is represented by the following general formula or: M 11 X 11 2·L 11 w ··· M 11 X 11 3 ·L 11 w ··· (XIII) wherein: M 11 represents a lanthanoid element, scandium, or yttrium; X 11 each independently represent a hydrogen atom, a halogen atom, an alkoxide group, a thiolate group, an amide group, a silyl group, an aldehyde residue, a ketone residue, a carboxylic acid residue, a thiocarboxylic acid residue, a phosphorous compound residue, an unsubstituted or substituted cyclopentadienyl, or an unsubstituted or substituted indenyl; L 11 represents a Lewis base; and w represents 0 to 3; and at least one compound selected from a group consisting of an ionic compound (B-1) formed of a non-coordinating anion and a cation, and an aluminoxane (B-2). a first reaction step of reacting a hydrocarbon containing at least either one of the non-conjugated olefin and the conjugated diene compound with an organic aluminum compound, using a rare earth element compound-containing catalyst; a second reaction step of reacting a first reactant obtained from the first reaction step with oxygen; and a third reaction step of reacting a second reactant obtained from the second reaction step with at least either one of water and alcohol, and wherein the rare earth element compound-containing catalyst includes a component: a rare earth element compound or a reactant of the rare earth element compound and a Lewis base;
A transport vehicle, comprising: a cargo loading unit; and a point group acquisition unit that is arranged at a position to be capable of irradiating cargo loaded on the cargo loading unit and a cargo loading position with a laser, and acquires a point group by horizontally irradiating the laser; wherein the transport vehicle further comprising: a distance specifying unit that specifies a distance in a left-right direction between the cargo loaded on the cargo loading unit and an object adjacent to the cargo loading position based on the acquired point group. a cargo loading unit; and a point group acquisition unit that is arranged at a position to be capable of irradiating cargo loaded on the cargo loading unit and a cargo loading position with a laser, and acquires a point group by horizontally irradiating the laser; wherein the transport vehicle further comprising: a distance specifying unit that specifies a distance in a left-right direction between the cargo loaded on the cargo loading unit and an object adjacent to the cargo loading position based on the acquired point group.
Insulin for use in a method for treating Traumatic Brain Injury, including concussion injuries, in a patient, wherein the insulin is administered to the upper third of the nasal cavity of the patient, enabling the insulin to directly access the patient's central nervous system by bypassing the blood-brain barrier, and wherein said patient requires: increased neuronal viability in the hippocampus, increased formation of anti-inflammatory M2 microglia, and/or increased motor and cognitive functional recovery after TBI, including concussion injuries.
A method for contactless determination of heat transition coefficients U at a wall of a room, comprising the following steps: - measuring the air temperature T i in the room, - providing a further air temperature T e1 of a further room adjacent to the wall, or an external air temperature T e2, - creating at least one panorama infrared image of the room from any position in the room, wherein the panorama infrared image at least comprises a horizontally extending 360° panorama, - evaluating the panorama infrared image and determining a spatially resolved wall temperature T s from the panorama infrared image as well as determining the spatially resolved reflected temperature T ref, - determining the heat transition coefficients U of the wall by the air temperature T i, the further air temperature T e1 or the external air temperature T e2, the spatially resolved wall temperature T s as well as the spatially resolved reflected temperature T ref. - measuring the air temperature T i in the room, - providing a further air temperature T e1 of a further room adjacent to the wall, or an external air temperature T e2, - creating at least one panorama infrared image of the room from any position in the room, wherein the panorama infrared image at least comprises a horizontally extending 360° panorama, - evaluating the panorama infrared image and determining a spatially resolved wall temperature T s from the panorama infrared image as well as determining the spatially resolved reflected temperature T ref, - determining the heat transition coefficients U of the wall by the air temperature T i, the further air temperature T e1 or the external air temperature T e2, the spatially resolved wall temperature T s as well as the spatially resolved reflected temperature T ref.
A medical device, comprising: sensing circuitry configured to obtain intracardiac electrogram, hereinafter referred to as IEGM, or electrogram, hereinafter referred to as ECG, signals indicative of cardiac activity over a series of beats and a number of breaths; memory configured to store program instructions; and a processor, characterized by: a filter configured to separate, from the IEGM or ECG signals, a respiratory component that varies based on at least one of respiration rate or respiration depth over the number of breaths, wherein the processor is configured, when executing the program instructions, to: analyze the respiratory component to identify a respiration characteristic of interest, the respiration COI based on at least one of variations, over the number of breaths, in an amplitude of the respiratory component or an interval (416, 418) within the respiratory component; and identify a respiration anomaly based on the respiration COI. sensing circuitry configured to obtain intracardiac electrogram, hereinafter referred to as IEGM, or electrogram, hereinafter referred to as ECG, signals indicative of cardiac activity over a series of beats and a number of breaths; memory configured to store program instructions; and a processor, characterized by: a filter configured to separate, from the IEGM or ECG signals, a respiratory component that varies based on at least one of respiration rate or respiration depth over the number of breaths, wherein the processor is configured, when executing the program instructions, to: analyze the respiratory component to identify a respiration characteristic of interest, the respiration COI based on at least one of variations, over the number of breaths, in an amplitude of the respiratory component or an interval (416, 418) within the respiratory component; and identify a respiration anomaly based on the respiration COI. analyze the respiratory component to identify a respiration characteristic of interest, the respiration COI based on at least one of variations, over the number of breaths, in an amplitude of the respiratory component or an interval (416, 418) within the respiratory component; and identify a respiration anomaly based on the respiration COI.
A method of calibrating a real time clock generator clocked by a first clock and a second clock having a higher frequency accuracy than said first clock by aligning at subsequent calibration times (K, K-1) the frequency of the first clock with respect to the frequency of the second clock, wherein the method includes turning on said second clock at said calibration times (K, K-1), with said calibration times (K, K-1) separated by separation intervals (Trefresh), and turning off said second clock after a calibration interval (Tcalib) selected as a submultiple of said separation intervals (Trefresh), wherein the frequency of said first clock varies between subsequent calibration times (K, K-1), the method including aligning the frequency of said first clock to a frequency offset by a certain amount with respect to the frequency of said second clock to counter said variation in the frequency of said first clock, wherein the method includes computing said certain amount at a given calibration time as a function of the variation (fLSI - fLSI(K-1)) of said first clock over a time interval (K, K-1) from an earlier calibration time (K-1).
A method for monitoring a fault of a wind power generator set, comprising: performing fault identification on a component in the wind power generator set; and presenting an identified fault using a three-dimensional model of the component; wherein performing the fault identification on the component in the wind power generator set comprises: collecting a set of sensor data of the component using a sensor; performing data analysis on the set of sensor data using a pre-trained machine learning model to obtain a characteristic testing matrix; a row vector of the characteristic testing matrix is used to indicate the component, and a column vector thereof is used to indicate a physical parameter; and performing the fault identification according to the characteristic testing matrix. performing fault identification on a component in the wind power generator set; and presenting an identified fault using a three-dimensional model of the component; wherein performing the fault identification on the component in the wind power generator set comprises: collecting a set of sensor data of the component using a sensor; performing data analysis on the set of sensor data using a pre-trained machine learning model to obtain a characteristic testing matrix; a row vector of the characteristic testing matrix is used to indicate the component, and a column vector thereof is used to indicate a physical parameter; and performing the fault identification according to the characteristic testing matrix. collecting a set of sensor data of the component using a sensor; performing data analysis on the set of sensor data using a pre-trained machine learning model to obtain a characteristic testing matrix; a row vector of the characteristic testing matrix is used to indicate the component, and a column vector thereof is used to indicate a physical parameter; and performing the fault identification according to the characteristic testing matrix.
Surgical protective device for a surgical sealing element of a surgical sealing system comprising a trocar sleeve, the surgical sealing element having an expandable insertion opening, said protective device comprising a ring-shaped or substantially ring-shaped main body adapted to be arranged on the trocar sleeve, on a part thereof or on the sealing element and defining a through-opening with a plurality of protective elements arranged in the circumferential direction and extending parallel to or pointing towards a longitudinal axis of the protective device, wherein the protective device is of one-piece construction, wherein each of the protective elements is configured asymmetrically in relation to a plane containing a longitudinal axis defined by the main body, wherein the protective elements have first ends which are arranged on the main body, and wherein each protective element has two edges (74, 76) extending away from the first end, wherein the one edge is convexly curved facing away from the protective element, and wherein the other edge is concavely curved facing away from the protective element.
A modelling head for a three-dimensional printing machine, comprising: - a first body provided with a base wall having a work surface; characterized in that said modelling head comprises: - at least a second body comprising a plurality of inserts each provided with a work surface and arranged in a projecting position from said base wall, said inserts being operatively associated with one another so that the respective work surfaces define an overall work surface onto which an object being processed inside the machine adheres, said inserts being movable between an extracted operating configuration in which, during the object forming step, they assume the aforementioned projecting position from the base wall, and a retracted operating configuration in which, at the end of the object forming step, they assume a recessing position into said base wall, therefore during the movement of the inserts between said operating configurations, the formed object comes into contact with the work surface of the base wall and receives a thrust so that it becomes detached from the overall work surface. - a first body provided with a base wall having a work surface; - at least a second body comprising a plurality of inserts each provided with a work surface and arranged in a projecting position from said base wall, said inserts being operatively associated with one another so that the respective work surfaces define an overall work surface onto which an object being processed inside the machine adheres, said inserts being movable between an extracted operating configuration in which, during the object forming step, they assume the aforementioned projecting position from the base wall, and a retracted operating configuration in which, at the end of the object forming step, they assume a recessing position into said base wall, therefore during the movement of the inserts between said operating configurations, the formed object comes into contact with the work surface of the base wall and receives a thrust so that it becomes detached from the overall work surface.
A dispersant for a hydraulic composition, comprising N-methyldiethanolamine and a copolymer having a constituent unit represented by the formula and a constituent unit represented by the formula: wherein, R 1 represents a hydrogen atom or a methyl group; and M 1 represents a hydrogen atom or an alkaline metal ion as counter ion to form a salt; and wherein, R 2 represents a hydrogen atom or a methyl group; AO represents an alkyleneoxy group having 2 to 4 carbon atoms; 1 is a number of 0 to 2; m is a number of 0 or 1; n is an average added mole number of AO and is a number of 2 to 300; and R 3 represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms; and wherein a weight ratio of the N-methyldiethanolamine to the copolymer, N-methyldiethanolamine/copolymer, is 1/10 to 1/1, and the proportion of constituent units represented by formula in the total of constituent units represented by formulae and is 40 to 80% by mole. wherein, R 2 represents a hydrogen atom or a methyl group; AO represents an alkyleneoxy group having 2 to 4 carbon atoms; 1 is a number of 0 to 2; m is a number of 0 or 1; n is an average added mole number of AO and is a number of 2 to 300; and R 3 represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms; and wherein a weight ratio of the N-methyldiethanolamine to the copolymer, N-methyldiethanolamine/copolymer, is 1/10 to 1/1, and the proportion of constituent units represented by formula in the total of constituent units represented by formulae and is 40 to 80% by mole.
A filtration apparatus, comprising: - a pressurisable cylindrical pressure vessel having a cylindrical inner geometry without any obstruction element and having a longitudinal axis; - a shaft having a longitudinal axis extending parallel to the longitudinal axis of the pressure vessel; - a plurality of rotatable membrane filter discs arranged along the length of the shaft, where the membrane filter discs are spaced from each other, attached to the shaft and oriented transverse to the longitudinal axis of the shaft, where an interior of the membrane filter discs are in fluid communication with a permeate discharge channel characterised in that the longitudinal axis of the pressure vessel is laterally offset from the longitudinal axis of the shaft with a distance corresponding to 2-20% of the inner diameter of the pressure vessel, and in that the shortest distance, D1 between the membrane filter discs and the inner side of the pressure vessel is less than half the longest distance D2 between the membrane filter discs and the inner side of the pressure vessel so that D1 < 1⁄2D2. - a pressurisable cylindrical pressure vessel having a cylindrical inner geometry without any obstruction element and having a longitudinal axis; - a shaft having a longitudinal axis extending parallel to the longitudinal axis of the pressure vessel; - a plurality of rotatable membrane filter discs arranged along the length of the shaft, where the membrane filter discs are spaced from each other, attached to the shaft and oriented transverse to the longitudinal axis of the shaft, where an interior of the membrane filter discs are in fluid communication with a permeate discharge channel characterised in that
Coolable wall element for a gas turbine, comprising a rectangular base body having four edges, a first surface subjectable to a hot gas, a second surface which is arranged opposite of the first surface and a first seat for housing edges of an impingement plate, wherein the wall element further comprises a rectangular impingement plate partly inserted into the first seat, the impingement plate located at a distance and adjacent to the second surface being removable attached onto the base body, wherein the base body comprises at each edge of two opposing edges of the second surface a step each extending along said two edges and having a height measured from the level of the second surface which is larger than the height of the other edges, each of said two steps comprising a groove as the first seat of the impingement plate, the grooves have opposing first openings facing to each other, said grooves each having on a face of the base body a second opening through which opposing edges of the impingement plate are insertable into the corresponding grooves, wherein the impingement plate is assembled onto the base body by sliding it along the grooves, characterized in that the impingement plate is a flat plate and comprises a bendable retention tab extending from the rest of the impingement plate to a free end of said retention tab, wherein the base body comprises a second seat for receiving the free end of said tab, said second seat is configured to block the moving of the impingement plate relative to the base body in its final assembly position when the bendable retention tab is released from a lifted position during assembly in which the free end is arranged outside the groove to an unbend position in the second seat, wherein the second seat located on the second surface comprises a pin located adjacent to the free end of the retention tab prohibiting the movement of said retention tab relative to the base body.