mhurhangee/patent-ind-claim-en huggingface dataset:
A projector display system capable of recycling light from a plurality of light sources, said projector display system comprising: a plurality of partially coherent colored light sources , each emitting a colored light for modulation; a light recycling module including an integrated rod, said integrating rod configured to receive light from said light source at a proximal end and wherein said proximal end comprising a reflective surface, capable of reflecting light down said integrating rod; a first modulator, said first modulator comprising a plurality of moveable mirrors, said plurality of moveable mirrors being capable of reflecting light received from said integrating rod in a first projection direction and a light recycling direction, wherein said light recycling direction is substantially in the direction of the integrating rod; and a controller configured to receive input image and/or video data, to output control signals to the first modulator and to modulate the light source for adjusting the light source intensity, the controller being configured to: - receive an input image; - calculate an average picture level for each individual modulated colored light; - determine the relative brightness increase by recycled light for each individual modulated colored light; and - reduce the intensity of the illumination from the colored light sources according to the reciprocal of the relative brightness increase for the colored light. a plurality of partially coherent colored light sources , each emitting a colored light for modulation; a light recycling module including an integrated rod, said integrating rod configured to receive light from said light source at a proximal end and wherein said proximal end comprising a reflective surface, capable of reflecting light down said integrating rod; a first modulator, said first modulator comprising a plurality of moveable mirrors, said plurality of moveable mirrors being capable of reflecting light received from said integrating rod in a first projection direction and a light recycling direction, wherein said light recycling direction is substantially in the direction of the integrating rod; and a controller configured to receive input image and/or video data, to output control signals to the first modulator and to modulate the light source for adjusting the light source intensity, the controller being configured to: - receive an input image; - calculate an average picture level for each individual modulated colored light; - determine the relative brightness increase by recycled light for each individual modulated colored light; and - reduce the intensity of the illumination from the colored light sources according to the reciprocal of the relative brightness increase for the colored light. - receive an input image; - calculate an average picture level for each individual modulated colored light; - determine the relative brightness increase by recycled light for each individual modulated colored light; and - reduce the intensity of the illumination from the colored light sources according to the reciprocal of the relative brightness increase for the colored light.
A display device for use in a vehicle and configured to perform communication with at least one processor provided in the vehicle , the display device comprising: a first display configured to output first light forming first visual information; a supporting unit configured to support a mobile terminal having a second display ; and at least one light synthesizing unit configured to transmit either one of the first light output from the first display and second light output from the second display and to reflect another light of the first light output from the first display and the second light output from the second display , wherein the supporting unit is spaced apart from the first display with the light synthesizing unit interposed therebetween, and configured to support the mobile terminal so that the second light is directed to the light synthesizing unit . a first display configured to output first light forming first visual information; a supporting unit configured to support a mobile terminal having a second display ; and at least one light synthesizing unit configured to transmit either one of the first light output from the first display and second light output from the second display and to reflect another light of the first light output from the first display and the second light output from the second display , wherein the supporting unit is spaced apart from the first display with the light synthesizing unit interposed therebetween, and configured to support the mobile terminal so that the second light is directed to the light synthesizing unit .
Table or bench with a top, legs and a collapsible stand which is fastened to the underside of the top , with pivot bearings for the legs which are arranged on the underside of the top , with support struts which engage in an articulated manner on the legs and which, in the set-up position, extend diagonally with respect to the underside of the top , wherein, in the stacking position, the legs and the support struts extend approximately parallel to the underside of the top , and wherein, in the set-up position, the legs are locked with a locking element of the collapsible stand , which locking element is configured as a pivot lever mounted at one end which locks at least one leg in a gravity-actuated manner, and the locking element is supported and mounted in a bracket on the underside of the top , characterized in that the bracket has an insertion ramp for a transverse bolt at the free end of the support struts , wherein the support struts are displaceable with a free end, namely with the transverse bolt , in a guide element of the collapsible stand , wherein the guide element is formed in the shape of a bow so that the bolt is guided between the underside of the top and the guide element .
Method for preparing a residue originating from a fermenter reactor, in the form of digestate, as mashing substrate for solid or solids-containing organic biomass for biomass generation, in which solid-liquid separation of the residue is performed, the liquid portion is supplied as a thin-running substance to an isolated reaction container, in which the thin-running substance is subjected to anaerobic ammonium oxidation using anammox organisms to reduce the ammonium concentration in a submersion method, the coenosis of the reaction container being kept at a temperature of between 35 and 45 °C, and, after a retention time in the reaction container has elapsed, the nitrogen-depleted substrate is mixed as process water into a biomass intended for the biogas fermentation, and guided together therewith to a hydrolysis as the first step of a biogas process, the anammox organisms, as autotrophic organisms, using a carbon dioxide, which occurs diversely in the hydrolysis, in the form of water-soluble hydrogen carbonate as a growth substrate, and thus decreasing a relative carbon dioxide content in the hydrolysis gas and in the final biogas, and advance swelling of the biomass taking place when the low-nitrogen process water is used as mashing water at the temperature of between 35 and 45 °C.
A magnetic flowmeter , comprising: at least one coil configured to generate a magnetic field within a process fluid flow; a pair of electrodes configured to detect an electromotive force within the process fluid flow in response to the magnetic field; measurement circuitry operably coupled to the pair of electrodes and configured to provide an indication of the detected electromotive force; and a processor coupled to the measurement circuitry and configured to receive the indication of the detected electromotive force and an indication of process noise, the processor being configured to change a dead time parameter based on the indication of process noise and provide a process fluid flow output based on the indication of detected electromotive force and the dead time parameter characterized in that : the processor is configured to obtain the indication of process noise using a statistical parameter on a plurality of detected electromotive force indications. at least one coil configured to generate a magnetic field within a process fluid flow; a pair of electrodes configured to detect an electromotive force within the process fluid flow in response to the magnetic field; measurement circuitry operably coupled to the pair of electrodes and configured to provide an indication of the detected electromotive force; and a processor coupled to the measurement circuitry and configured to receive the indication of the detected electromotive force and an indication of process noise, the processor being configured to change a dead time parameter based on the indication of process noise and provide a process fluid flow output based on the indication of detected electromotive force and the dead time parameter characterized in that : the processor is configured to obtain the indication of process noise using a statistical parameter on a plurality of detected electromotive force indications.
A filter comprising: a porous element comprising a cylindrical body including an upper surface , a lower surface and a circumferential sidewall intersecting the upper surface and the lower surface , and a compression element comprising a cylindrical body having an upper surface , a lower surface , an inner circumferential surface and an outer circumferential surface , the inner circumferential surface configured to receive the porous element , thereby forming an assembly , wherein the diameter of the sidewall of the porous element is substantially the same or slightly smaller than the diameter of the inner circumferential surface of the compression element such that the compression element receives the porous element in a slip-fit relationship wherein the filter further comprises a housing having an opening formed therein, the opening configured to receive the assembly in a press-fit relationship, such that an interaction between the opening and the outer surface of the compression element is suitable to convert a force applied to the assembly , into a radial force between the inner circumferential surface of the compression element and the side wall of the porous element so that the assembly is retained within the opening when the assembly is received therein. a porous element comprising a cylindrical body including an upper surface , a lower surface and a circumferential sidewall intersecting the upper surface and the lower surface , and a compression element comprising a cylindrical body having an upper surface , a lower surface , an inner circumferential surface and an outer circumferential surface , the inner circumferential surface configured to receive the porous element , thereby forming an assembly , wherein the diameter of the sidewall of the porous element is substantially the same or slightly smaller than the diameter of the inner circumferential surface of the compression element such that the compression element receives the porous element in a slip-fit relationship wherein the filter further comprises a housing having an opening formed therein, the opening configured to receive the assembly in a press-fit relationship, such that an interaction between the opening and the outer surface of the compression element is suitable to convert a force applied to the assembly , into a radial force between the inner circumferential surface of the compression element and the side wall of the porous element so that the assembly is retained within the opening when the assembly is received therein.
A battery diagnosing apparatus , comprising: a profile generating unit configured to generate a differential profile (PDa, PDb) representing a corresponding relationship between a voltage (V) of a battery and a differential capacity (dQ/dV) for the voltage (V) of the battery; and a control unit configured to receive the differential profile (PDa, PDb) from the profile generating unit , determine a target peak (TPa, TPb) in the differential profile (PDa, PDb), determine a behavior pattern of the target peak (TPa, TPb) based on a reference peak (RPa, RPb) included in a preset reference profile (Pa, Pb), and diagnose a state of a negative electrode of the battery by comparing the behavior pattern determined for the target peak (TPa, TPb) with a plurality of preset behavior types, characterized in that the control unit is configured to determine the behavior pattern of the target peak (TPa, TPb) by comparing the voltages (V) of the reference peak (RPa, RPb) and the target peak (TPa, TPb) and comparing the differential capacities (dQ/dV) of the reference peak (RPa, RPb) and the target peak (TPa, TPb). a profile generating unit configured to generate a differential profile (PDa, PDb) representing a corresponding relationship between a voltage (V) of a battery and a differential capacity (dQ/dV) for the voltage (V) of the battery; and a control unit configured to receive the differential profile (PDa, PDb) from the profile generating unit , determine a target peak (TPa, TPb) in the differential profile (PDa, PDb), determine a behavior pattern of the target peak (TPa, TPb) based on a reference peak (RPa, RPb) included in a preset reference profile (Pa, Pb), and diagnose a state of a negative electrode of the battery by comparing the behavior pattern determined for the target peak (TPa, TPb) with a plurality of preset behavior types, characterized in that the control unit is configured to determine the behavior pattern of the target peak (TPa, TPb) by comparing the voltages (V) of the reference peak (RPa, RPb) and the target peak (TPa, TPb) and comparing the differential capacities (dQ/dV) of the reference peak (RPa, RPb) and the target peak (TPa, TPb).
A flowmeter for measuring the flow rate of a fluid having a measuring tube that forms a measuring space through which the fluid can flow and having at least one baffle that is arranged in the measuring space and wherein a measured value sensor that is deflectable when flowed around by the fluid due to a vortex formation at the baffle is furthermore arranged downstream of the baffle in the measuring space , wherein the measuring tube has an elliptical cross-section (Q1) at least in the region f the arrangement of the baffle , characterized in that a circular cross-section (Q1) of a fluid inlet and/or of a fluid outlet has a diameter measurement that corresponds to the length of a main axis of the elliptical cross-section (Q1) so that the width of the measuring space transversely to the baffle axis remains constant from the fluid inlet up to the fluid outlet .
A garden tool , comprising a main body , a walking wheel mounted on the main body and a control panel disposed on the main body , wherein the control panel comprises a main blade control assembly , the main blade control assembly comprising a main blade button and a main blade pull rod , wherein the garden tool is configured to start by performing two actions; operating the main blade button and operating the main blade pull rod , which can be operated at different points in time, but need to be completed within a predetermined period of time, characterized in that said control panel is further provided with a self-propelled control assembly , and said self-propelled control assembly comprises a self-propelled start paddle and a speed regulating button , and wherein, after the self-propelled start paddle has been turned on, the self-propelled start paddle is releasable during a self-propelling process of the garden tool , the speed regulating button is adjustable in a short time, preferably 1.5s, and when the self-propelled start paddle is re-pressed after an adjustment of the speed regulating button the garden tool can continue the self-propelling process.
Process for the preparation of an aqueous dispersion of fructan-containing particles, comprising: a) the step of bringing fructan and water together to form a mixture; b) optionally a hydrolysis step, wherein a portion of the fructans in the mixture is hydrolysed, such that at the end of this step b) between 5 wt.% and 25 wt.% of all fructans in the mixture are essentially non-soluble at 21°C; c) optionally a purification step, wherein the mixture is brought into contact with a purification agent, followed by removal of the purification agent from the mixture; d) a concentrating step, wherein the mixture is concentrated, such that the solids content lies between 61 and 80%, whereby the aqueous dispersion is formed, wherein during or subsequent to step d) a shearing step e) is done, wherein shear is applied to the mixture. a) the step of bringing fructan and water together to form a mixture; b) optionally a hydrolysis step, wherein a portion of the fructans in the mixture is hydrolysed, such that at the end of this step b) between 5 wt.% and 25 wt.% of all fructans in the mixture are essentially non-soluble at 21°C; c) optionally a purification step, wherein the mixture is brought into contact with a purification agent, followed by removal of the purification agent from the mixture; d) a concentrating step, wherein the mixture is concentrated, such that the solids content lies between 61 and 80%, whereby the aqueous dispersion is formed,
A method of providing biomarker for early detection of Alzheimer's Disease, comprising: training a processor using magnetic resonance imaging (MRI) images containing the anatomical structure of Hippocampus and Mini-Mental State Examination (MMSE) data as a training data set (S110), and the training comprising acts of: proceeding an MRI image preprocessing to determine volume of a Hippocampus of each MRI images, and segmenting the Hippocampus into sections (S111), wherein the segmentations of the Hippocampus are alveus, parasubiculum, presubiculum, subiculum, CA1, CA2/3, CA4, GC-DG, HATA, fimbria, molecular layer, Hippocampus fissure and Hippocampus tail; building a 3 Dimensions Hippocampus model and determining surface areas for each section of each Hippocampus in MRI images (S112); determining a Ratio of Principal Curvature (RPC) for each section of each Hippocampus (S113); and selecting candidate parameters as inputs to iteratively train an iterative neural network in the processor, wherein the candidate parameters comprise the volume of Hippocampus, the surface areas and the RPC of sections of Hippocampus, and scores of MMSE data (S114). proceeding an MRI image preprocessing to determine volume of a Hippocampus of each MRI images, and segmenting the Hippocampus into sections (S111), wherein the segmentations of the Hippocampus are alveus, parasubiculum, presubiculum, subiculum, CA1, CA2/3, CA4, GC-DG, HATA, fimbria, molecular layer, Hippocampus fissure and Hippocampus tail; building a 3 Dimensions Hippocampus model and determining surface areas for each section of each Hippocampus in MRI images (S112); determining a Ratio of Principal Curvature (RPC) for each section of each Hippocampus (S113); and selecting candidate parameters as inputs to iteratively train an iterative neural network in the processor, wherein the candidate parameters comprise the volume of Hippocampus, the surface areas and the RPC of sections of Hippocampus, and scores of MMSE data (S114).
A processor-implemented method of estimating a state of a battery , the method comprising: acquiring current information and voltage information of a battery ; determining time interval values based on the acquired current information such that current integration values corresponding to the time interval values satisfy a condition; generating a feature vector including the determined time interval values and voltage values, the voltage values corresponding to the determined time interval values in the acquired voltage information; and determining state information of the battery based on the generated feature vector and a state estimation model , wherein the state information includes a state of charge, SOC, and/or a state of health, SOH. acquiring current information and voltage information of a battery ; determining time interval values based on the acquired current information such that current integration values corresponding to the time interval values satisfy a condition; generating a feature vector including the determined time interval values and voltage values, the voltage values corresponding to the determined time interval values in the acquired voltage information; and determining state information of the battery based on the generated feature vector and a state estimation model , wherein the state information includes a state of charge, SOC, and/or a state of health, SOH.
A distributed mode loudspeaker comprising: a display panel ; a support attached to the display panel; a piezoelectric transducer , the piezoelectric transducer comprising a layer of piezoelectric material , the piezoelectric transducer being rigidly connected to the support at one end and extending parallel to the display panel to a free end opposite the end attached to the support, the piezoelectric transducer further comprising electrode layers arranged on opposing sides of the layer of piezoelectric material, the electrode layers comprising two or more electrode pairs (110-114), each electrode pair comprising a first electrode on a first side of the opposing sides and a second electrode on a second side of the opposing sides; and a drive module connected to each of the two or more electrode pairs and adapted to selectively provide current to the two or more electrode pairs to generate a force that, when provided to the display panel, causes the display panel to generate sound waves. a display panel ; a support attached to the display panel; a piezoelectric transducer , the piezoelectric transducer comprising a layer of piezoelectric material , the piezoelectric transducer being rigidly connected to the support at one end and extending parallel to the display panel to a free end opposite the end attached to the support, the piezoelectric transducer further comprising electrode layers arranged on opposing sides of the layer of piezoelectric material, the electrode layers comprising two or more electrode pairs (110-114), each electrode pair comprising a first electrode on a first side of the opposing sides and a second electrode on a second side of the opposing sides; and a drive module connected to each of the two or more electrode pairs and adapted to selectively provide current to the two or more electrode pairs to generate a force that, when provided to the display panel, causes the display panel to generate sound waves.
Electric vehicle with two or three wheels comprising a standard bicycle frame having a cylindrical space adapted to house a bottom bracket, an electric gear motor unit and pedal cranks for the transmission of the advancing motion of the vehicle, wherein said gear motor unit is a gear motor outrunner unit with a motor having a rotor outside a stator , said gear motor outrunner unit being installable coaxially to the cylindrical space of the frame and comprising a gear box of planetary type, nested inside a stator cavity, wherein the electric gear motor unit comprises a hub in form of a tube and suitably shaped so as to be inserted in said cylindrical space adapted to house the bottom bracket, said electric gear motor unit being installable by means of said tube coaxially to the cylindrical space of the standard bicycle frame , , in a manner such that the revolution axes of the motor, of the gear box and of a pedal crank shaft coincide, and wherein the motor and the gear box are outside the cylindrical space of the frame adapted to house the bottom bracket, the output motion of the gear box being transmitted to a rotating bell-shaped element within which the gear motor is fully housed, characterized in that the gear motor unit further comprises a cup , said cup being on, a first side, integral with the frame by means of said hub inserted within said cylindrical space of the frame adapted to house a bottom bracket while on a second side, axially opposed along the axis of the pedal crank shaft, said cup is open and it acts externally as a support of the stator and internally has an internal toothing of the planetary gear box.