mhurhangee/ep-ind-claims huggingface dataset:
A bed with canopy comprising: a canopy; a bed, disposed below the canopy; a solar energy converter, disposed on the canopy for receiving solar energy and converting the solar energy into electrical energy; a power storage device, electrically connected with the solar energy converter and disposed at the bed or the canopy; a controller, electrically connected with the solar energy converter and the power storage device; wherein the controller captures an electricity signal of the power storage device and controls whether the solar energy converter is operated based on the electricity signal, when the solar energy converter is operating, the solar energy is converted into the electrical energy, and the electrical energy is stored in the power storage device; and a power consumer device, electrically connected with the power storage device and being powered by the power storage device, wherein the power consumer device is mounted at the bed or the canopy, characterised in that the canopy comprises a pillar, a roof frame and a top canopy, the roof frame is disposed at an upper end of the pillar, the bed is disposed at a lower end of the pillar, and the top canopy is movably disposed at the roof frame, and wherein the top canopy comprises a sliding bar and a tarpaulin, the tarpaulin is connected with the sliding bar, two ends of the sliding bar have pulleys, the roof frame has sliding grooves, and the pulleys are fitted in the sliding grooves and movably cooperated with the sliding grooves. a canopy; a bed, disposed below the canopy; a solar energy converter, disposed on the canopy for receiving solar energy and converting the solar energy into electrical energy; a power storage device, electrically connected with the solar energy converter and disposed at the bed or the canopy; a controller, electrically connected with the solar energy converter and the power storage device; wherein the controller captures an electricity signal of the power storage device and controls whether the solar energy converter is operated based on the electricity signal, when the solar energy converter is operating, the solar energy is converted into the electrical energy, and the electrical energy is stored in the power storage device; and a power consumer device, electrically connected with the power storage device and being powered by the power storage device, wherein the power consumer device is mounted at the bed or the canopy, characterised in that the canopy comprises a pillar, a roof frame and a top canopy, the roof frame is disposed at an upper end of the pillar, the bed is disposed at a lower end of the pillar, and the top canopy is movably disposed at the roof frame, and wherein the top canopy comprises a sliding bar and a tarpaulin, the tarpaulin is connected with the sliding bar, two ends of the sliding bar have pulleys, the roof frame has sliding grooves, and the pulleys are fitted in the sliding grooves and movably cooperated with the sliding grooves.
A micronized starch with an average particle size as assessed by Polarization Intensity Differential Plus Electric Light Scattering according to the method used in Example 8 of the specification of less than 5 μm and a degree of polymerization as determined according to the method in Example 22 of the specification of greater than 100, wherein the micronized starch exhibits at least 20% of the crystallinity as determined by X-ray diffraction of the base granular starch according to the method used in Example 3 of the specification, wherein the micronized starch has an average particle size of at least 20% less than the average particle size of the base granular starch and wherein the micronized starch is obtained by a method comprising the steps of: a) dehydrating a base granular starch to a moisture content of less than 5% on a w/w basis, and b) micronization of the dehydrated base granular starch in an environment containing less than 5% oxygen in a v/v basis to result in a micronized starch, wherein the micronized starch has a moisture content of no greater than 5% on a w/w basis of the base granular starch as determined according to the method used in Example 2 of the specification and wherein the starch is sourced from corn, pea, potato, sweet potato, banana, Barley, wheat, sago, oat, amaranth, tapioca, arrowroot, canna, sorghum, and waxy or high amylose varieties thereof. a) dehydrating a base granular starch to a moisture content of less than 5% on a w/w basis, and b) micronization of the dehydrated base granular starch in an environment containing less than 5% oxygen in a v/v basis to result in a micronized starch,
A method comprising: receiving, by a computing device, a first ranking of content delivery networks for selecting a content delivery network for a request in a playback session of a video; receiving, by the computing device, global constraints for the content delivery networks, wherein the global constraints define an allocation for respective content delivery networks to be assigned for processing requests for videos in which content delivery networks are assigned; altering, by the computing device, a score for a content delivery network in the first ranking based on a value of the global constraint to generate a globally constrained score, wherein the globally constrained score is used to generate a second ranking of content delivery networks; and selecting, by the computing device, a content delivery network from the second ranking for the request in the playback session of the video. receiving, by a computing device, a first ranking of content delivery networks for selecting a content delivery network for a request in a playback session of a video; receiving, by the computing device, global constraints for the content delivery networks, wherein the global constraints define an allocation for respective content delivery networks to be assigned for processing requests for videos in which content delivery networks are assigned; altering, by the computing device, a score for a content delivery network in the first ranking based on a value of the global constraint to generate a globally constrained score, wherein the globally constrained score is used to generate a second ranking of content delivery networks; and selecting, by the computing device, a content delivery network from the second ranking for the request in the playback session of the video.
A lithographic printing plate precursor comprising: - a support, the support having a front side and a back side, and - an image recording layer on the front side of the support and - a non-continuous back layer on the back side of the support, the non-continuous back layer is obtainable by at least partially curing a curable liquid deposited onto the back side of the support by means of a technique selected from the group of ink jet printing, valve jet printing, and aerosol jetting, characterised in that the non-continuous back layer has a Shore A hardness of 90 or less. - a support, the support having a front side and a back side, and - an image recording layer on the front side of the support and - a non-continuous back layer on the back side of the support, the non-continuous back layer is obtainable by at least partially curing a curable liquid deposited onto the back side of the support by means of a technique selected from the group of ink jet printing, valve jet printing, and aerosol jetting,
An electronic device (1700; 1850) for determining a driving plan of a vehicle (110; 310; 510; 610; 710; 810; 910; 1010; 1110; 1800), the electronic device comprising: a sensor (511; 1710; 1810) disposed in or mounted on the vehicle and configured to generate sensing data; and a processor (1720; 1820) configured to: determine a predicted position (311; 911; 1011; 1111) of the vehicle and a region of interest, 'ROI', (320; 620; 720; 820; 920) based on a driving plan of the vehicle; select a target position offset based on an available sensing region (111; 360; 660; 760; 860; 960) of the sensor in the ROI and the predicted position; and update the driving plan of the vehicle based on the target position offset, characterized in that the processor is configured to select the target position offset in an adjustable driving range from a plurality of position offsets based on the predicted position of the vehicle, the plurality of position offsets in the adjustable driving range comprising an offset spaced apart from the sensor in a front direction of the vehicle, an offset spaced apart from the sensor in a rear direction of the vehicle, an offset spaced apart from the sensor in a first side direction of the vehicle, and an offset spaced apart from the sensor in a second side direction of the vehicle that is opposite to the first side direction. a sensor (511; 1710; 1810) disposed in or mounted on the vehicle and configured to generate sensing data; and a processor (1720; 1820) configured to: determine a predicted position (311; 911; 1011; 1111) of the vehicle and a region of interest, 'ROI', (320; 620; 720; 820; 920) based on a driving plan of the vehicle; select a target position offset based on an available sensing region (111; 360; 660; 760; 860; 960) of the sensor in the ROI and the predicted position; and update the driving plan of the vehicle based on the target position offset, determine a predicted position (311; 911; 1011; 1111) of the vehicle and a region of interest, 'ROI', (320; 620; 720; 820; 920) based on a driving plan of the vehicle; select a target position offset based on an available sensing region (111; 360; 660; 760; 860; 960) of the sensor in the ROI and the predicted position; and update the driving plan of the vehicle based on the target position offset, characterized in that the processor is configured to select the target position offset in an adjustable driving range from a plurality of position offsets based on the predicted position of the vehicle, the plurality of position offsets in the adjustable driving range comprising an offset spaced apart from the sensor in a front direction of the vehicle, an offset spaced apart from the sensor in a rear direction of the vehicle, an offset spaced apart from the sensor in a first side direction of the vehicle, and an offset spaced apart from the sensor in a second side direction of the vehicle that is opposite to the first side direction.
A pharmaceutical composition comprising a pharmaceutically acceptable carrier and one or more isolated exosomes and/or microvesicles from NK-92 cells, for use in a method of treating a fungal infection in a patient.
A tracking system comprising: a reading device including a radio frequency identification reader and an optical indicia reader being an image reader or barcode reader; a radio frequency identification circuit disposed on a substrate; an encapsulation cap encapsulating the radio frequency identificaton circuit and substrate; and, an information bearing indicia disposed on the encapsulation cap; wherein the radio frequency identification circuit and the information bearing indicia provide at least some redundant information relative to each other when read with the reading device; and characterised in that the indicia reader is adapted to take precedence to resolve the more than one radio frequency identification signal read, should the radio frequency identification reader read more than one radio frequency identification circuit. a reading device including a radio frequency identification reader and an optical indicia reader being an image reader or barcode reader; a radio frequency identification circuit disposed on a substrate; an encapsulation cap encapsulating the radio frequency identificaton circuit and substrate; and, an information bearing indicia disposed on the encapsulation cap;
A method for influencing a control program of a controller, the control program comprising a plurality of first functions (F1A, F1B, F1C,...F1N) and at least one of the first functions (F1A, F1B, F1C,..F1N) being implemented for controlling an actuator, and a memory being provided and the memory comprising memory areas occupied by subroutines associated with the first functions (F1A, F1, F1C,..F1N), and the control program being a binary program code, a jump address being present in the program code of the control program when calling one of the first functions (F1A, F1B, F1C,..F1N), and the jump address pointing to a memory address of the subroutine associated with the function call, and the subroutine being a sequence of binary program code and a return command being present at the end of the sequence of the program code of the subroutine, characterized in that the program code of the control program is checked for the occurrence of function calls and the jump addresses associated with the function calls and addresses of the return commands are determined and the size of the memory areas of the memory occupied by each of the subroutines is determined from the determination and the identifiers associated with the first functions (F1A, F1B, F1C,..F1N) and the sizes and addresses of the memory areas associated with the first functions (F1A, F1B, F1C,..F1N) are shown in a display unit, wherein the display unit is implemented as part of a computer system and at least one of the first functions (F1A, F1B, F1C,..F1N) is selected for deletion by means of the computer system and the size and address of the selected first function (F1A, F1 B, F1C,..F1N) is saved in an information structure and at least one function call of the selected first function (F1A, F1B, F1C,..F1N) is deactivated and/or the first function (F1A, F1B, F1C,..F1N) is replaced by a second function (F2A) in that the program code of the selected first function (F1A, F1B, F1C,..F1N) is overwritten by the program code of the second function (F2A).
Range extractor hood, which has a screen and at least one filter element, that is retained on the screen by means of at least one pivot bearing and at least one locking means, - wherein the screen has a framework and the framework is permanently joined to the housing of the range extractor hood, - wherein the range extractor hood includes a locking device for, at least partially, releasing the retainer, effected by the at least one pivot bearing and at least one locking means, of the filter element, and the releasing device is located on the screen of the range extractor hood, characterised in that - the screen consists of a framework and a pull-out drawer which is attached to the framework in a sliding manner and is guided in the framework via a guide, - the filter element is retained in the pull-out drawer by the guide of the pull-out drawer, - the guide of the pull-out drawer acts as the locking means, - the locking action is cancelled merely by the sliding of the pull-out drawer into a withdrawn position, in which the pull-out drawer is withdrawn forwards beyond an operating position of the pull-out drawer, which is a withdrawn position of the pull-out drawer. - wherein the screen has a framework and the framework is permanently joined to the housing of the range extractor hood, - wherein the range extractor hood includes a locking device for, at least partially, releasing the retainer, effected by the at least one pivot bearing and at least one locking means, of the filter element, and the releasing device is located on the screen of the range extractor hood, - the screen consists of a framework and a pull-out drawer which is attached to the framework in a sliding manner and is guided in the framework via a guide, - the filter element is retained in the pull-out drawer by the guide of the pull-out drawer, - the guide of the pull-out drawer acts as the locking means, - the locking action is cancelled merely by the sliding of the pull-out drawer into a withdrawn position, in which the pull-out drawer is withdrawn forwards beyond an operating position of the pull-out drawer, which is a withdrawn position of the pull-out drawer.
A method of installing a liner (100; 200) in a turbomachinery case, wherein the liner is formed from composite materials, the method comprising: overlaying (312, 314, 316) a reinforcing layer (102; 202, 204) and a release layer (104; 206), wherein the reinforcing layer is uncured; spiral coiling the reinforcing layer and the release layer about an axis of the liner, wherein an inner surface of the reinforcing layer radially overlays an outer surface of the reinforcing layer; vacuum bagging and curing the reinforcing layer after spiral coiling the reinforcing layer and the release layer; winding the spiral coiled reinforcing layer about the liner axis in a diameter-reducing direction (330; 412) to form a wound liner having a diameter that is smaller than an inner diameter of the case; and positioning the wound liner axially within the case, whereby the liner unwinds (430; 432) to line the case, after the reinforcing layer is cured. overlaying (312, 314, 316) a reinforcing layer (102; 202, 204) and a release layer (104; 206), wherein the reinforcing layer is uncured; spiral coiling the reinforcing layer and the release layer about an axis of the liner, wherein an inner surface of the reinforcing layer radially overlays an outer surface of the reinforcing layer; vacuum bagging and curing the reinforcing layer after spiral coiling the reinforcing layer and the release layer; winding the spiral coiled reinforcing layer about the liner axis in a diameter-reducing direction (330; 412) to form a wound liner having a diameter that is smaller than an inner diameter of the case; and positioning the wound liner axially within the case, whereby the liner unwinds (430; 432) to line the case, after the reinforcing layer is cured.
A method of digitally printing a textile comprising the steps of: (a) pretreating the textile with an aqueous pretreatment solution consisting of a nonionic latex polymer and a multivalent cationic salt solution, (b) drying the pretreated textile, (c) digitally printing the dried, pretreated textile with a colored ink jet ink, wherein the nonionic latex polymer has sufficient nonionic components such that the nonionic latex polymer is stable in the presence of the multivalent cationic salt solution, and the polymer is a urethane; wherein the nonionic component of the nonionic latex polymer includes ethylene oxide, and wherein the multivalent cation salt is selected from one or more of the group of multivalent cations of elements Mg, Ca, Sr, Ba, Sc, Y, La, Ti, Zr, V, Cr, Mn, Fe, Ru, Co, Rh, Ni, Pd, Pt, Cu, Au, Zn, Al, Ga, In, Sb, Bi, Ge, Sn and Pb. (a) pretreating the textile with an aqueous pretreatment solution consisting of a nonionic latex polymer and a multivalent cationic salt solution, (b) drying the pretreated textile, (c) digitally printing the dried, pretreated textile with a colored ink jet ink, wherein the nonionic latex polymer has sufficient nonionic components such that the nonionic latex polymer is stable in the presence of the multivalent cationic salt solution, and the polymer is a urethane; wherein the nonionic component of the nonionic latex polymer includes ethylene oxide, and wherein the multivalent cation salt is selected from one or more of the group of multivalent cations of elements Mg, Ca, Sr, Ba, Sc, Y, La, Ti, Zr, V, Cr, Mn, Fe, Ru, Co, Rh, Ni, Pd, Pt, Cu, Au, Zn, Al, Ga, In, Sb, Bi, Ge, Sn and Pb.
A display module in a mobile terminal comprising: a touchscreen configured to display a plurality of icons (610, 620, 630, 640) and to receive a first touch input that sets a 3D display setting for at least one of the icons; and a controller configured to set the 3D display setting according to a pattern of the touch input, wherein the touch pattern determines whether the at least one icon is perceived to project or recede into the touch screen and a magnitude of the projection or recession, characterized in that in response to another touch input to move a first icon of said plurality of icons to overlap a second icon of said plurality of icons being completed, the first and second icons (610, 640) overlap each other in a manner that either the first or second icon relatively further recessed is increased in size, if the perceived magnitude of projection or recession of the first and second icons (610, 640) are different, and the first icon is displayed adjacent to the second icon if the perceived magnitude of projection or recession of the first and second icons (610, 640) are the same. a touchscreen configured to display a plurality of icons (610, 620, 630, 640) and to receive a first touch input that sets a 3D display setting for at least one of the icons; and a controller configured to set the 3D display setting according to a pattern of the touch input, wherein the touch pattern determines whether the at least one icon is perceived to project or recede into the touch screen and a magnitude of the projection or recession, characterized in that in response to another touch input to move a first icon of said plurality of icons to overlap a second icon of said plurality of icons being completed, the first and second icons (610, 640) overlap each other in a manner that either the first or second icon relatively further recessed is increased in size, if the perceived magnitude of projection or recession of the first and second icons (610, 640) are different, and the first icon is displayed adjacent to the second icon if the perceived magnitude of projection or recession of the first and second icons (610, 640) are the same.
An apparatus comprising: a first string of charge storage devices associated with a first pillar comprising semiconductor material; a second string of charge storage devices associated with a second pillar; each string including: a source gate device having a gate, the source gate device coupled to a source; and a source select device having a gate, the source select device coupled between the charge storage devices and the source gate device, wherein the gates of the source gate devices are coupled to each other to be controlled in common; and wherein the gates of the source select devices are separate from one another to be controllable independently of one another. a first string of charge storage devices associated with a first pillar comprising semiconductor material; a second string of charge storage devices associated with a second pillar; each string including: a source gate device having a gate, the source gate device coupled to a source; and a source select device having a gate, the source select device coupled between the charge storage devices and the source gate device, wherein the gates of the source gate devices are coupled to each other to be controlled in common; and wherein the gates of the source select devices are separate from one another to be controllable independently of one another. a source gate device having a gate, the source gate device coupled to a source; and a source select device having a gate, the source select device coupled between the charge storage devices and the source gate device, wherein the gates of the source gate devices are coupled to each other to be controlled in common; and wherein the gates of the source select devices are separate from one another to be controllable independently of one another.