mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting video data from a wireless source device to a wireless sink device: exchanging capability information with the wireless sink device; generating video component data; rendering pixel data for local display based on said video component data; intercepting said video component data prior to rendering pixel data for local display and for adding metadata to said video component data; transmitting the video component data and said metadata to the wireless sink device; wherein a first video component comprises a call to a graphics application program interface; wherein a second video component comprises compressed video data; wherein a third video component comprises pixel data; wherein said metadata describes how the video component data is to be assembled to render a frame for display by the wireless sink device, by identifying screen locations for said video components. exchanging capability information with the wireless sink device; generating video component data; rendering pixel data for local display based on said video component data; intercepting said video component data prior to rendering pixel data for local display and for adding metadata to said video component data; transmitting the video component data and said metadata to the wireless sink device; wherein a first video component comprises a call to a graphics application program interface; wherein a second video component comprises compressed video data; wherein a third video component comprises pixel data; wherein a first video component comprises a call to a graphics application program interface; wherein a second video component comprises compressed video data; wherein a third video component comprises pixel data; wherein said metadata describes how the video component data is to be assembled to render a frame for display by the wireless sink device, by identifying screen locations for said video components.
Membrane plate structure for generating sound waves, the membrane plate structure comprising a vibrating element, a membrane plate, which is coupleable to the vibrating element for generating sound waves, wherein the membrane plate comprises at least one UD layer made of fibers, characterised in that the heat deflection temperature is higher than 130°C.
An electronic device comprising: a power supply module; and an image sensor, wherein the image sensor includes: a pixel array configured to include a plurality of pixels, an analog-to-digital converter, ADC, of a first group configured to convert an amount of light acquired through the pixel array into a first digital signal, an ADC of a second group adjacent to the first group and configured to convert power supplied from the power supply module to the image sensor into a second digital signal, a level shifter, LS, configured to receive the power supplied from the power supply module and adjust a level of the power to an available input range of the ADC of the second group, and a power control module configured to transmit the second digital signal to a processor operatively connected to the image sensor when the second digital signal is out of a designated range. a power supply module; and an image sensor, wherein the image sensor includes: a pixel array configured to include a plurality of pixels, an analog-to-digital converter, ADC, of a first group configured to convert an amount of light acquired through the pixel array into a first digital signal, an ADC of a second group adjacent to the first group and configured to convert power supplied from the power supply module to the image sensor into a second digital signal, a level shifter, LS, configured to receive the power supplied from the power supply module and adjust a level of the power to an available input range of the ADC of the second group, and a power control module configured to transmit the second digital signal to a processor operatively connected to the image sensor when the second digital signal is out of a designated range. a pixel array configured to include a plurality of pixels, an analog-to-digital converter, ADC, of a first group configured to convert an amount of light acquired through the pixel array into a first digital signal, an ADC of a second group adjacent to the first group and configured to convert power supplied from the power supply module to the image sensor into a second digital signal, a level shifter, LS, configured to receive the power supplied from the power supply module and adjust a level of the power to an available input range of the ADC of the second group, and a power control module configured to transmit the second digital signal to a processor operatively connected to the image sensor when the second digital signal is out of a designated range.
A method of generating a low-temperature plasma in a vacuum chamber comprising a hollow cathode and an electrode, wherein said method comprises the step of igniting a pulse DC discharge in the hollow cathode on a background of RF capacitive discharge, wherein the method further comprises the steps of: applying a positive voltage pulse (U E+) on the electrode before igniting said pulse DC discharge; applying a negative voltage pulse (U C) on the hollow cathode; wherein said positive voltage pulse (U E+) at least in part overlaps with said negative voltage pulse (U C). wherein said method comprises the step of igniting a pulse DC discharge in the hollow cathode on a background of RF capacitive discharge, wherein the method further comprises the steps of: applying a positive voltage pulse (U E+) on the electrode before igniting said pulse DC discharge; applying a negative voltage pulse (U C) on the hollow cathode; wherein said positive voltage pulse (U E+) at least in part overlaps with said negative voltage pulse (U C). applying a positive voltage pulse (U E+) on the electrode before igniting said pulse DC discharge; applying a negative voltage pulse (U C) on the hollow cathode; wherein said positive voltage pulse (U E+) at least in part overlaps with said negative voltage pulse (U C).
Annular diaphragm compression driver for a horn loudspeaker for electro-acoustic conversion having an annular diaphragm, which bears at least one moving coil, having a compression driver housing, which a closed housing base, opposite the housing base a sound wave routing element having a sound discharge channel which is open at the end, and having at least one annular magnet system unit, which has an annular magnet gap and a compression chamber, adjoining the magnet gap, for an associated annular diaphragm, wherein the open sound exit end of the sound discharge channel is in slot form and the sound entry start of the sound discharge channel - which sound entry start is opposite the open sound exit end and adjacent to the compression chamber - is annular, and the sound path between the at least one compression chamber and the sound entry start of the sound discharge channel contains an annular collecting space, characterized in that the collecting space and the sound discharge channel contain a central sound guidance body having a portion which merges from an annular cross section into a linear cross section which matches the slot-like sound exit end of the sound discharge channel, and the sound discharge channel is formed between the sound guidance body and a circumferential wall of the sound wave routing element, wherein the circumferential outer wall of the central sound guidance body forms the inner wall of the collecting space and the inner wall of the sound discharge channel.
In-vitro process for removal of at least one undesired substance from blood, comprising the step of contacting blood to a dialysis liquid via a semipermeable membrane, wherein the dialysis liquid is characterized by: (i) a pH the range from pH 8.0 to pH 11.0; (ii) comprising at least one buffering agent, wherein the buffering agent is a non-CO 2 -forming buffering agent selected from albumin, THAM, and Tris; and has at least one pKa value in the range from 7.0 to 11.0; and (iii) a buffering capacity of 12 mmol/l or more for H + ions; and wherein the dialysis liquid comprises 0 to 40 mmol/l carbonate/bicarbonate. (i) a pH the range from pH 8.0 to pH 11.0; (ii) comprising at least one buffering agent, wherein the buffering agent is a non-CO 2 -forming buffering agent selected from albumin, THAM, and Tris; and has at least one pKa value in the range from 7.0 to 11.0; and (iii) a buffering capacity of 12 mmol/l or more for H + ions; and wherein the dialysis liquid comprises 0 to 40 mmol/l carbonate/bicarbonate.
A component-mounting system (10, 10B), comprising: multiple component mounting machines installed along the direction in which a mounting target object is conveyed, each component mounting machine mounting components supplied from component supply units to the mounting target object, and having a mounting section to which the component supply units are detachable; a unit storage container which is installed in the same line as that of the multiple component mounting machines being arranged, and has multiple stages of mounting units to which component supply units are detachable; a first unit moving device for exchanging the component supply units between the mounting section of a specific stage from among multiple stages of the unit storage container and the mounting section of each component mounting machine, and a second unit moving device for exchanging the component supply units between the mounting section of the specific stage of the unit storage container and the mounting section of a non-specific stage different from the specific stage of the unit storage container. multiple component mounting machines installed along the direction in which a mounting target object is conveyed, each component mounting machine mounting components supplied from component supply units to the mounting target object, and having a mounting section to which the component supply units are detachable; a unit storage container which is installed in the same line as that of the multiple component mounting machines being arranged, and has multiple stages of mounting units to which component supply units are detachable; a first unit moving device for exchanging the component supply units between the mounting section of a specific stage from among multiple stages of the unit storage container and the mounting section of each component mounting machine, and a second unit moving device for exchanging the component supply units between the mounting section of the specific stage of the unit storage container and the mounting section of a non-specific stage different from the specific stage of the unit storage container.
A compound of the formula wherein R is independently SO 3 - or CH 3; the spacer is a flexible spacer of a length of 19 atoms; the charge of the pentasaccharide residue is compensated by positively charged counterions; and the total number of sulfate groups in the pentasaccharide residue is 4, 5 or 6; or a pharmaceutically acceptable salt or solvate thereof wherein R is independently SO 3 - or CH 3; the spacer is a flexible spacer of a length of 19 atoms; the charge of the pentasaccharide residue is compensated by positively charged counterions; and the total number of sulfate groups in the pentasaccharide residue is 4, 5 or 6; or a pharmaceutically acceptable salt or solvate thereof
A display system comprising: a plurality of waveguides (3002, 3004, 3006, 3008) forming a stack of waveguides; and an image injection device configured to direct a multiplexed light stream into the waveguides (3002, 3004, 3006, 3008), the multiplexed light stream comprising a plurality of light streams (A, B, C, D) having different light properties, wherein the plurality of waveguides (3002, 3004, 3006, 3008) comprises a first waveguide comprising first in-coupling optical elements configured to selectively in-couple a first of the streams of light while being transmissive to one or more other streams of light (B, C, D), and wherein the first in-coupling optical elements include a metasurface. a plurality of waveguides (3002, 3004, 3006, 3008) forming a stack of waveguides; and an image injection device configured to direct a multiplexed light stream into the waveguides (3002, 3004, 3006, 3008), the multiplexed light stream comprising a plurality of light streams (A, B, C, D) having different light properties, wherein the plurality of waveguides (3002, 3004, 3006, 3008) comprises a first waveguide comprising first in-coupling optical elements configured to selectively in-couple a first of the streams of light while being transmissive to one or more other streams of light (B, C, D), and wherein the first in-coupling optical elements include a metasurface.
A cutting head for a cutting-off machine, said cutting head comprising: - a bearing base, - a support structure mounted to said bearing base to rotate about a first rotation axis (Z-Z), said support structure comprising a support surface for a workpiece to be cut and a cutting area, which is configured to receive the workpiece to be cut, - a cutting unit comprising a circular blade which is mounted to rotate about a second rotation axis (A-A), said cutting unit being mounted to tilt about a tilt axis (U-U), parallel to said second rotation axis (A-A) between a rest position, in which said circular blade is disengaged from said cutting area and a cutting position, in which said circular blade is in said cutting area to cut said workpiece to be cut, - a circular blade inclination unit, which is coupled to said cutting unit to incline said cutting unit about an inclination axis (Y-Y) perpendicular to said first rotation axis (Z-Z) and said second rotation axis (A-A), - a circular blade feeding unit, fixed to said support structure and is coupled to said circular blade inclination unit to move said circular blade inclination unit and said cutting unit along a rectilinear feeding direction (V-V), which is parallel or coincident with the inclination axis (Y-Y), between a first travel limit position and a second travel limit position. - a bearing base, - a support structure mounted to said bearing base to rotate about a first rotation axis (Z-Z), said support structure comprising a support surface for a workpiece to be cut and a cutting area, which is configured to receive the workpiece to be cut, - a cutting unit comprising a circular blade which is mounted to rotate about a second rotation axis (A-A), said cutting unit being mounted to tilt about a tilt axis (U-U), parallel to said second rotation axis (A-A) between a rest position, in which said circular blade is disengaged from said cutting area and a cutting position, in which said circular blade is in said cutting area to cut said workpiece to be cut, - a circular blade inclination unit, which is coupled to said cutting unit to incline said cutting unit about an inclination axis (Y-Y) perpendicular to said first rotation axis (Z-Z) and said second rotation axis (A-A), - a circular blade feeding unit, fixed to said support structure and is coupled to said circular blade inclination unit to move said circular blade inclination unit and said cutting unit along a rectilinear feeding direction (V-V), which is parallel or coincident with the inclination axis (Y-Y), between a first travel limit position and a second travel limit position.
An automated storage system for the temporary storage of items, comprising: - at least one conveyor belt of items; - at least one storage room of said items, said at least one storage room comprising a plurality of removable compartments for containing said items; - a mechanical movement unit of said items which is configured for transferring said items from the conveyor belt to said at least one storage room, said mechanical movement unit being further configured to transfer said items from said at least one storage room to the conveyor belt, characterised in that each compartment of said plurality of compartments comprises a plurality of housings for containing one or more layers of items. - at least one conveyor belt of items; - at least one storage room of said items, said at least one storage room comprising a plurality of removable compartments for containing said items; - a mechanical movement unit of said items which is configured for transferring said items from the conveyor belt to said at least one storage room, said mechanical movement unit being further configured to transfer said items from said at least one storage room to the conveyor belt,
A combination check valve and filter comprising: - a housing formed of first and second unitary molded thermoplastic elements (60, 62) joined to provide a cavity therebetween and providing fluid communication between an opposed entrance port formed in the first unitary molded thermoplastic element and an exit port formed in the second unitary molded thermoplastic element; - a flexible diaphragm responsive to fluid flow through the cavity; and - a filter medium disposed in the housing; wherein the filter medium is integrally bonded at its periphery to the first unitary molded thermoplastic element. characterized in that a valve seat is attached to a cavity wall formed by the first unitary molded thermoplastic element; wherein the flexible diaphragm is positioned adjacent to the valve seat to seal against the valve seat with fluid flow from the exit port to the entrance port and to unseal away from the valve seat with fluid flow from the entrance port and to the exit port and to be moved against radial ribs of the second unitary molded thermoplastic element blocking further distention of the flexible diaphragm, but allowing flow through peripheral openings placed in the flexible diaphragm and through channels placed in the second unitary molded thermoplastic element and through an opening also placed in the second unitary molded thermoplastic element, said opening leading to the exit port, wherein the filter medium is disposed between the entrance port and the valve seat. - a housing formed of first and second unitary molded thermoplastic elements (60, 62) joined to provide a cavity therebetween and providing fluid communication between an opposed entrance port formed in the first unitary molded thermoplastic element and an exit port formed in the second unitary molded thermoplastic element; - a flexible diaphragm responsive to fluid flow through the cavity; and - a filter medium disposed in the housing;
A system for continuously loading utility vehicles with material, having: - at least one multiple chute which can be switched into different switching states in order to load different utility vehicles successively with material, - at least three utility vehicles (21, 22, 23, 24), wherein the utility vehicles (21, 22, 23, 24) are arranged in at least two rows (41, 42), specifically at least two utility vehicles (21, 22) in a front row and at least one utility vehicle (23, 24) in at least one subsequent row, wherein at least one utility vehicle (21, 22) in the front row is followed, counter to its direction of travel, by the at least one utility vehicle (23, 24) unfilled in the at least one subsequent row. - a drive-through control system, wherein each utility vehicle (21, 22, 23, 24) is assigned a drive-through control element (51, 52, 53, 54), - a presence sensor system, wherein each utility vehicle (21, 22, 23, 24) is assigned a presence sensor (61, 62, 63, 64), - a material filling level detection system, wherein each utility vehicle (21, 22) in the front row is assigned a material filling level detection sensor (71, 72) and - a computer system for controlling the switching status of the multiple chute on the basis of the data from the presence sensor system and of the material filling level detection system. - at least one multiple chute which can be switched into different switching states in order to load different utility vehicles successively with material, - at least three utility vehicles (21, 22, 23, 24), wherein the utility vehicles (21, 22, 23, 24) are arranged in at least two rows (41, 42), specifically at least two utility vehicles (21, 22) in a front row and at least one utility vehicle (23, 24) in at least one subsequent row, wherein at least one utility vehicle (21, 22) in the front row is followed, counter to its direction of travel, by the at least one utility vehicle (23, 24) unfilled in the at least one subsequent row. - a drive-through control system, wherein each utility vehicle (21, 22, 23, 24) is assigned a drive-through control element (51, 52, 53, 54), - a presence sensor system, wherein each utility vehicle (21, 22, 23, 24) is assigned a presence sensor (61, 62, 63, 64), - a material filling level detection system, wherein each utility vehicle (21, 22) in the front row is assigned a material filling level detection sensor (71, 72) and - a computer system for controlling the switching status of the multiple chute on the basis of the data from the presence sensor system and of the material filling level detection system.
A method for controlling the growth of microbial prokaryotic or eukaryotic cells in a liquid culture to high cell densities by the enzyme-based fed-batch technique, characterized in that a metabolically inactive water-soluble substrate-polymer or substrate-oligomer is degraded by the controlled addition of an enzyme to release the growth-limiting substrate-monomer in a controlled way into the medium, wherein the enzyme is added in dependence from the oxygen content of the culture medium.
A marker of the degree of release of elements that are difficultly or slowly biodegradable (harmful elements) into the environment for objects which release elements that are difficultly or slowly biodegradable (harmful elements) into the environment due to use and/or washing, is characterised in that it consists of an element (1, 1', 1") comprising a variable structure which is modified at a rate in accordance with the degree of release of elements that are difficultly or slowly biodegradable (harmful elements) into the environment of the object, warning the user when the object is going to enter the phase of exponential or accelerated release of elements that are difficultly or slowly biodegradable, where said element (1, 1', 1") comprises two layers, a surface one and a central or lower one and in that the variation of the structure of the element (1, 1', 1") is by means of erosion or wear of a surface layer which when it disappears causes a central layer to be accessible by the user.