mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a strand in the tobacco-processing industry, having the following method steps: - conveying a first material web having a first width and a second material web having a second width, - gluing at least the second material web, wherein the gluing happens in particular over the entire surface or approximately over the entire surface, - merging the first and the second material web (25, 26) in an offset manner such that the first and the second material web (25, 26) are located above one another and are bonded, - forming the material webs (25, 26) which are located above one another into a tubular strand, characterized in that in order to form the material webs (25, 26) located above one another into a tubular strand, a format belt which is conveyed in a longitudinally axial conveying direction is only partially wound around the material webs (25, 26) located above one another, namely less than or equal to 70% and more than or equal to 30% of the width of the material webs (25, 26) located above one another. - conveying a first material web having a first width and a second material web having a second width, - gluing at least the second material web, wherein the gluing happens in particular over the entire surface or approximately over the entire surface, - merging the first and the second material web (25, 26) in an offset manner such that the first and the second material web (25, 26) are located above one another and are bonded, - forming the material webs (25, 26) which are located above one another into a tubular strand, characterized in that in order to form the material webs (25, 26) located above one another into a tubular strand, a format belt which is conveyed in a longitudinally axial conveying direction is only partially wound around the material webs (25, 26) located above one another, namely less than or equal to 70% and more than or equal to 30% of the width of the material webs (25, 26) located above one another.
Use of DHA and AA for the manufacture of a nutrient-enriched formula containing DHA and AA in quantities that, if said nutrient-enriched formula were the sole source of caloric intake, would deliver an average daily intake per kg body weight of 2 to 65 mg DHA and 2 to 65 mg AA, in a feeding regimen continuing until said preterm infant reaches a corrected age of six months, for enhancing the neurological development of a preterm infant.
A method, comprising: receiving, by a set of components of a first device, a synchronization command to synchronize time information among each component of the set of components in a communication path within the first device; generating, by a first component of the set of components, a power state message; and transmitting, by the first component of the set of components, the power state message to the remaining components of the set of components in the communication path within the first device, the power state message configured to reduce the power consumption of the remaining components of the set of components from a first power amount to a second power amount for a time period, the time period being associated with the synchronized time information. receiving, by a set of components of a first device, a synchronization command to synchronize time information among each component of the set of components in a communication path within the first device; generating, by a first component of the set of components, a power state message; and transmitting, by the first component of the set of components, the power state message to the remaining components of the set of components in the communication path within the first device, the power state message configured to reduce the power consumption of the remaining components of the set of components from a first power amount to a second power amount for a time period, the time period being associated with the synchronized time information.
A disc-shaped susceptor (4, 8) that is provided in a vapor deposition apparatus and on which wafers are mounted, the susceptor comprising: a plurality of recesses (43, 83) that are aligned in a circumferential direction on an upper surface of the susceptor (4, 8) and in which the wafers are respectively mounted, wherein the susceptor (4, 8) is formed so that a center of the susceptor (4, 8) is concave toward a lower surface thereof from an outer edge thereof, and a bottom (43A, 84A) of the recess (43, 83) has a surface roughness Ra that is more than 0.5 μm and less than 16 μm. a plurality of recesses (43, 83) that are aligned in a circumferential direction on an upper surface of the susceptor (4, 8) and in which the wafers are respectively mounted, wherein the susceptor (4, 8) is formed so that a center of the susceptor (4, 8) is concave toward a lower surface thereof from an outer edge thereof, and a bottom (43A, 84A) of the recess (43, 83) has a surface roughness Ra that is more than 0.5 μm and less than 16 μm.
A non-invasive method for determining blood flow distribution in a region of interest, the method comprising: illuminating the region of interest of a subject with a coherent light source; sequentially acquiring at least two speckle images of the region of interest, wherein sequentially acquiring the at least two speckle images comprises acquiring the at least two speckle images in synchronization with motion of the heart of the subject by electronically monitoring an EKG cardiac cycle of the subject and electronically synchronizing acquisition of speckle images with EKG signals obtained from the electronic monitoring so as to enable relative comparison of the same region of interest over time; electronically processing the at least two acquired speckle images based on the temporal variation of the pixel intensities in the at least two acquired speckle images to generate a laser speckle contrast imaging, LSCI, image; analyzing the LSCI image to determine distribution of blood flow speed in principal vessels and quantify perfusion distribution in tissue in the region of interest from the LSCI image; generating a graph (56B, 58D, 59D, 61D, 62D) of average pixel intensity against time in the LCSI image, representative of blood flow speed against time in the region of interest; identifying portions of the graph (56B, 58D, 59D, 61D, 620) corresponding to diastole and/or systole during a cardiac cycle using the EKG signals to synchronize data acquisition; and highlighting the identified portions on the graph (56B, 58D, 59D, 61D, 62D). illuminating the region of interest of a subject with a coherent light source; sequentially acquiring at least two speckle images of the region of interest, wherein sequentially acquiring the at least two speckle images comprises acquiring the at least two speckle images in synchronization with motion of the heart of the subject by electronically monitoring an EKG cardiac cycle of the subject and electronically synchronizing acquisition of speckle images with EKG signals obtained from the electronic monitoring so as to enable relative comparison of the same region of interest over time; electronically processing the at least two acquired speckle images based on the temporal variation of the pixel intensities in the at least two acquired speckle images to generate a laser speckle contrast imaging, LSCI, image; analyzing the LSCI image to determine distribution of blood flow speed in principal vessels and quantify perfusion distribution in tissue in the region of interest from the LSCI image; generating a graph (56B, 58D, 59D, 61D, 62D) of average pixel intensity against time in the LCSI image, representative of blood flow speed against time in the region of interest; identifying portions of the graph (56B, 58D, 59D, 61D, 620) corresponding to diastole and/or systole during a cardiac cycle using the EKG signals to synchronize data acquisition; and highlighting the identified portions on the graph (56B, 58D, 59D, 61D, 62D).
An ophthalmic pharmaceutical composition useful in the treatment of glaucoma and control of intraocular pressure, comprising 0.001 percent weight/volume to 2 percent weight/volume of a compound or a pharmaceutically acceptable salt thereof, wherein the compound is represented by the following formula: in which A is where: R 1, R 2, R 3 = OH; and a pharmaceutically acceptable vehicle therefor. R 1, R 2, R 3 = OH; and a pharmaceutically acceptable vehicle therefor.
A sealed switch assembly for use with a disconnect operator movable between an on state, a tripped state, and an off state, the disconnect operator housed within a sealed enclosure, the switch assembly comprising; a housing; a handle coupled to the disconnect operator and disposed at least partially within the housing, the handle moveable between an on position and an off position, wherein the handle does not move when the disconnect operator moves from the on position to the tripped position; characterised by a base seal providing a static seal between the housing and an enclosure to inhibit ingress of solids and liquids therebetween, a handle seal providing a continuous radial seal, allowing the handle to rotate while maintaining a seal to the housing to inhibit ingress of solids and liquids therebetween, and a low-friction trip indicator mechanism (30, 34, 38) that operates independent of the handle to indicate when the disconnect operator is in the tripped state.
A system for use during administration of cardiopulmonary resuscitation, CPR, chest compressions and defibrillating shock on a victim, the system comprising: a chest compression monitor comprising a motion sensor configured to provide signals indicative of motion of the chest of the victim during the chest compressions; and a control system operatively coupled to the chest compression monitor, the control system configured to: receive the signals from the chest compression monitor to determine a compression waveform representative of the chest compressions experienced by the victim, determine at least one compression waveform characteristic from the compression waveform, determine a source of the chest compressions based on the at least one compression waveform characteristic, predetermined compression waveform characteristics for manual chest compressions provided by a CPR provider, and predetermined compression waveform characteristics for automated chest compressions provided by a belt-based chest compression device, and provide feedback for a rescuer, wherein the feedback is based on the determined source of the chest compressions. a chest compression monitor comprising a motion sensor configured to provide signals indicative of motion of the chest of the victim during the chest compressions; and a control system operatively coupled to the chest compression monitor, the control system configured to: receive the signals from the chest compression monitor to determine a compression waveform representative of the chest compressions experienced by the victim, determine at least one compression waveform characteristic from the compression waveform, determine a source of the chest compressions based on the at least one compression waveform characteristic, predetermined compression waveform characteristics for manual chest compressions provided by a CPR provider, and predetermined compression waveform characteristics for automated chest compressions provided by a belt-based chest compression device, and provide feedback for a rescuer, wherein the feedback is based on the determined source of the chest compressions. receive the signals from the chest compression monitor to determine a compression waveform representative of the chest compressions experienced by the victim, determine at least one compression waveform characteristic from the compression waveform, determine a source of the chest compressions based on the at least one compression waveform characteristic, predetermined compression waveform characteristics for manual chest compressions provided by a CPR provider, and predetermined compression waveform characteristics for automated chest compressions provided by a belt-based chest compression device, and the at least one compression waveform characteristic, predetermined compression waveform characteristics for manual chest compressions provided by a CPR provider, and predetermined compression waveform characteristics for automated chest compressions provided by a belt-based chest compression device, and provide feedback for a rescuer, wherein the feedback is based on the determined source of the chest compressions.
Solenoid valve for a hydraulic system, in particular for an automatic transmission of a motor vehicle, with an armature chamber fluidly connectable with hydraulic lines of the hydraulic system and filled with hydraulic medium, in which an armature is mounted to be adjustable in stroke (h1, h2), which has a shut-off body, such that the armature divides the armature space into a passage-side chamber facing the flow passage (27, 33) and into an inner chamber facing away from it, wherein during a stroke movement (h1, h2) of the armature an oil exchange takes place in which a displacement volume of the hydraulic medium from the passage-side chamber flows into the inner chamber, wherein the solenoid valve has a hydraulic medium reservoir for supplying the hydraulic medium adjustment volume, which has a hydraulic medium with a higher degree of purity in comparison to the hydraulic medium in the hydraulic line (27, 29, 31) and which is fluidly connected to the passage-side chamber, wherein the hydraulic medium reservoir is at least partially filled with disc filtered hydraulic medium, wherein the shut-off body of the armature is adjustably guided in the hydraulic space to form a valve aperture providing a bearing clearance between a hydraulic space and the shut-off body, characterised in that the hydraulic chamber on the end face of the shut-off body facing away from the armature is connected via a drainage line to the hydraulic medium reservoir, so that leakage of the disc filtered hydraulic medium into the hydraulic space takes place through the valve aperture and the disc filtered hydraulic medium can be filled into the hydraulic medium reservoir, wherein the drainage line is connected via a connecting line to the passage-side chamber or the inner chamber, and wherein the adjustment volume of the hydraulic medium is at least partially performed during the oil exchange via the connecting line.
An electronic apparatus, comprising: a display configured to provide a user interface, UI, screen, the UI screen comprising a UI element including a plurality of areas, each area corresponding to at least one sound content, respectively; and a processor configured to acquire a main color value from images related to the sound contents, respectively, based on an average color value of an object which exceeds a preset size from among the objects included in the image, control the display to display the UI element, and when a user interface apparatus is located at one of the plurality of areas, control the display to provide a thumbnail image of a sound content corresponding to the one of the plurality of areas on the UI element, wherein thumbnail images of sound content corresponding to areas other than the one of the plurality of areas are not displayed on the UI element. a display configured to provide a user interface, UI, screen, the UI screen comprising a UI element including a plurality of areas, each area corresponding to at least one sound content, respectively; and a processor configured to acquire a main color value from images related to the sound contents, respectively, based on an average color value of an object which exceeds a preset size from among the objects included in the image, control the display to display the UI element, and when a user interface apparatus is located at one of the plurality of areas, control the display to provide a thumbnail image of a sound content corresponding to the one of the plurality of areas on the UI element, wherein thumbnail images of sound content corresponding to areas other than the one of the plurality of areas are not displayed on the UI element. acquire a main color value from images related to the sound contents, respectively, based on an average color value of an object which exceeds a preset size from among the objects included in the image, control the display to display the UI element, and when a user interface apparatus is located at one of the plurality of areas, control the display to provide a thumbnail image of a sound content corresponding to the one of the plurality of areas on the UI element, wherein thumbnail images of sound content corresponding to areas other than the one of the plurality of areas are not displayed on the UI element.
A method for automatically determining at least one potential transmission region (124A, 124B), comprising: acquiring multiple binary reception indications for a direct line of sight between a transmitter and at least one airborne vehicle respective of multiple geo-positions of said at least one airborne vehicle; acquiring each of said multiple geo-positions of said at least one airborne vehicle respective of each of said multiple binary reception indications for said direct lines of sight, for each one of said acquired geo-positions of said at least one airborne vehicle for said binary reception indication for said direct line of sight, determining a respective layer of access area respective of topographical elevation and location data for a geographical region, as a subset of said geographical region that includes at least one potential point of said geographical region defining potential lines of sight between said transmitter towards said at least one airborne vehicle at said one of said acquired geo-positions, thereby determining multiple layers of access; determining an overlap between said multiple layers of access; and determining, from said overlap, said at least one potential transmission region respective of said transmitter and each of said different geo-positions of said at least one airborne vehicle. acquiring multiple binary reception indications for a direct line of sight between a transmitter and at least one airborne vehicle respective of multiple geo-positions of said at least one airborne vehicle; acquiring each of said multiple geo-positions of said at least one airborne vehicle respective of each of said multiple binary reception indications for said direct lines of sight, for each one of said acquired geo-positions of said at least one airborne vehicle for said binary reception indication for said direct line of sight, determining a respective layer of access area respective of topographical elevation and location data for a geographical region, as a subset of said geographical region that includes at least one potential point of said geographical region defining potential lines of sight between said transmitter towards said at least one airborne vehicle at said one of said acquired geo-positions, thereby determining multiple layers of access; determining an overlap between said multiple layers of access; and determining, from said overlap, said at least one potential transmission region respective of said transmitter and each of said different geo-positions of said at least one airborne vehicle.
A method of manufacturing a battery electrode, the method comprising: mixing an active material A, carbon fibers B having a fiber diameter of not less than 50 nm and not more than 300 nm, carbon fibers C having a fiber diameter of not less than 5 nm and not more than 40 nm, carbon black D and a binder E by dry process to obtain a mixture, to the mixture, adding not less than 5/95 and not more than 20/80 of a liquid medium by mass relative to the total mass of the active material A, the carbon fibers B, the carbon fibers C, the carbon black D and the binder E, kneading the mixture to which the liquid medium has been added to obtain a kneaded material, and shaping the kneaded material into a sheet form. mixing an active material A, carbon fibers B having a fiber diameter of not less than 50 nm and not more than 300 nm, carbon fibers C having a fiber diameter of not less than 5 nm and not more than 40 nm, carbon black D and a binder E by dry process to obtain a mixture, to the mixture, adding not less than 5/95 and not more than 20/80 of a liquid medium by mass relative to the total mass of the active material A, the carbon fibers B, the carbon fibers C, the carbon black D and the binder E, kneading the mixture to which the liquid medium has been added to obtain a kneaded material, and shaping the kneaded material into a sheet form.
A method for node-to-node transfer of a plurality of Time Division Multiplex, TDM, frames (301,401, 405) over packet transfer of traffic from a transmitting node to a receiving node, said method comprising: in said transmitting node for each TDM frame: identifying ranges of allocated (303, 304, 305) and unallocated (306, 307) slots in said TDM frame; determining an initial number of slots N of said TDM frame; mapping said allocated slots and a subset of said identified ranges of unallocated slots (308, 309, 310) to a transport TDM frame according to a mapping configuration, and performing synchronized change of said mapping configuration based on different traffic conditions, thereby allowing an effective capacity of the transport TDM frame to dynamically increase and decrease over time. in said transmitting node for each TDM frame: identifying ranges of allocated (303, 304, 305) and unallocated (306, 307) slots in said TDM frame; determining an initial number of slots N of said TDM frame; mapping said allocated slots and a subset of said identified ranges of unallocated slots (308, 309, 310) to a transport TDM frame according to a mapping configuration, and performing identifying ranges of allocated (303, 304, 305) and unallocated (306, 307) slots in said TDM frame; determining an initial number of slots N of said TDM frame; mapping said allocated slots and a subset of said identified ranges of unallocated slots (308, 309, 310) to a transport TDM frame according to a mapping configuration, and performing synchronized change of said mapping configuration based on different traffic conditions, thereby allowing an effective capacity of the transport TDM frame to dynamically increase and decrease over time.
A method of recovering iron from a zinc sulfate solution produced by a leaching process in which zinc ore is dissolved in sulfuric acid, the method comprising: a conditioning process including a step of reducing a conditioning process input solution, which is the zinc sulfate solution; and an iron precipitation process for recovering iron as hematite, including a step of pressurizing and oxidizing an iron precipitation process input solution discharged from the conditioning process, wherein the iron precipitation process input solution has oxidation-reduction potential of -100 mV or less when a silver/silver chloride (Ag/AgCl) electrode is used as a reference electrode, wherein the iron precipitation process is performed at a temperature a temperature of 135 °C or higher and less than 150 °C and a pressure ranging from 0.6 MPa (5 barg) to 1.1 MPa (10 barg). a conditioning process including a step of reducing a conditioning process input solution, which is the zinc sulfate solution; and an iron precipitation process for recovering iron as hematite, including a step of pressurizing and oxidizing an iron precipitation process input solution discharged from the conditioning process, wherein the iron precipitation process input solution has oxidation-reduction potential of -100 mV or less when a silver/silver chloride (Ag/AgCl) electrode is used as a reference electrode, wherein the iron precipitation process is performed at a temperature a temperature of 135 °C or higher and less than 150 °C and a pressure ranging from 0.6 MPa (5 barg) to 1.1 MPa (10 barg).