mhurhangee/ep-ind-claims huggingface dataset:
A method of determining an optimized therapy for a patient, comprising: acquiring patient specific information; and selecting a therapy protocol for a selected therapy for the patient from a plurality of therapy protocols based at least on the acquired patient specific information, wherein the selected therapy protocol includes guidelines for performing the therapy; characterized by executing a program of instructions with a hardware processor to determine a candidate plan that has a selected goodness value (4, 5) for the selected therapy protocol for the selected therapy in the patient based on the acquired patient specific information; wherein the candidate plan includes at least one of a target, a trajectory for an instrument to reach the target, or a material to be delivered with the instrument. acquiring patient specific information; and selecting a therapy protocol for a selected therapy for the patient from a plurality of therapy protocols based at least on the acquired patient specific information, wherein the selected therapy protocol includes guidelines for performing the therapy; characterized by executing a program of instructions with a hardware processor to determine a candidate plan that has a selected goodness value (4, 5) for the selected therapy protocol for the selected therapy in the patient based on the acquired patient specific information; wherein the candidate plan includes at least one of a target, a trajectory for an instrument to reach the target, or a material to be delivered with the instrument.
A multi-piece golf ball comprising a center and n (n is a natural number of 4 or more) envelope layers covering the center, wherein material hardness of the envelop layers satisfies H2<H0<Hn-1; where the envelope layers formed in order from the center side are referred to as a first envelope layer, a second envelope layer, an n-1th envelope layer and an nth envelope layer (the outmost layer), respectively and H0 is a material hardness (Shore D hardness) of the center, and H1, H2, Hn-1 and Hn are material hardness (Shore D hardness) of the first envelope layer, the second envelope layer, the n-1th envelope layer and the nth envelope layer (the outmost layer), respectively; and the center is formed from a thermoplastic resin composition, and the second envelope layer is formed from a thermoplastic resin composition or a rubber composition.
An illumination system (100, 400, 500, 600), comprising: a light guide (114, 414,514, 614) having a first surface and a second surface opposite the first surface; a plurality of first individually addressable light-emitting diodes (106A, 106B, 406A, 406B, 506A, 506B, 606A, 606B, 606C) configured to direct first light into the light guide through the first surface of the light guide; focusing optics (110A, 110B; 426A, 428A, 426B, 428B; 526A, 528A, 526B, 528B; 610A, 610B, 610C) configured to at least partially focus the first light to emerge from the light guide through the second surface of the light guide as projected light (112A, 112B; 612A, 612B, 612C); a plurality of second light-emitting diodes (118A, 118B; 418A, 418B;530; 618A, 618B) configured to direct second light into the light guide as guided light that is guided between the first surface and the second surface; and a plurality of light-extraction features disposed on the second surface of the light guide and configured to direct at least some of the guided light out of the light guide through the second surface of the light guide as scattered light (124, 524), and characterized in that the first light does not interact with the plurality of light-extraction features a light guide (114, 414,514, 614) having a first surface and a second surface opposite the first surface; a plurality of first individually addressable light-emitting diodes (106A, 106B, 406A, 406B, 506A, 506B, 606A, 606B, 606C) configured to direct first light into the light guide through the first surface of the light guide; focusing optics (110A, 110B; 426A, 428A, 426B, 428B; 526A, 528A, 526B, 528B; 610A, 610B, 610C) configured to at least partially focus the first light to emerge from the light guide through the second surface of the light guide as projected light (112A, 112B; 612A, 612B, 612C); a plurality of second light-emitting diodes (118A, 118B; 418A, 418B;530; 618A, 618B) configured to direct second light into the light guide as guided light that is guided between the first surface and the second surface; and a plurality of light-extraction features disposed on the second surface of the light guide and configured to direct at least some of the guided light out of the light guide through the second surface of the light guide as scattered light (124, 524), and characterized in that the first light does not interact with the plurality of light-extraction features
A system (100, 500, 600), comprising two films (112, 114, 512, 514) that are arranged to move adjacent one another on outer surfaces of respective rollers (102, 104, 502, 504) positioned with respect to one another to define a gap (20, 520) between the films (112, 114, 512, 514) that, in turn, defines a thickness for a layer (18, 518) of a material to be coated on one of the films (112, 114, 512, 514), characterized in that a first one of the rollers (104, 504) is positioned relative a second one of the rollers (102, 502) by a bearing biased by a first pair of parallel springs and is adjustable in position with respect to the second one of the rollers (102, 502) by a pair of linear actuators (124a, 124b) configured to translate respective arms (106a, 106b) which support the first pair of parallel springs.
Method for producing a key module for a vehicle, wherein the key module has mobile function keys, which are each linked to a function in the vehicle, and immobile dummy keys which do not have a function, comprising the steps of: - providing a key support with keys fitted on it, wherein all of the keys are locked in a releasable manner to the key support and as a result are immobile, - selecting a predetermined number of keys and assigning in each case one function to the selected keys, - unlocking only those keys to which a function has been assigned, so that function keys are formed from the unlocked keys and dummy keys are formed from the locked keys, characterized in that the keys are locked by means of a flexible latching limb of the keys. - providing a key support with keys fitted on it, wherein all of the keys are locked in a releasable manner to the key support and as a result are immobile, - selecting a predetermined number of keys and assigning in each case one function to the selected keys, - unlocking only those keys to which a function has been assigned, so that function keys are formed from the unlocked keys and dummy keys are formed from the locked keys,
System for ground power supply of aircraft, the system comprising - at least one mobile transformer unit having a first vehicle chassis and a voltage transformer mounted on the first vehicle chassis, and - at least two energy stores which can alternately be connected to an input of the voltage transformer in order to supply the voltage transformer with electric energy, wherein a supply cable for ground power supply of one of the aircraft is connectable to an output of the voltage transformer, characterised in that each of the at least two energy stores is part of one of at least two mobile storage units which each include a second vehicle chassis. - at least one mobile transformer unit having a first vehicle chassis and a voltage transformer mounted on the first vehicle chassis, and - at least two energy stores which can alternately be connected to an input of the voltage transformer in order to supply the voltage transformer with electric energy, wherein a supply cable for ground power supply of one of the aircraft is connectable to an output of the voltage transformer, characterised in that each of the at least two energy stores is part of one of at least two mobile storage units which each include a second vehicle chassis.
A method for enabling communications between at least one gateway and a plurality of terminals through one or more satellites, wherein the plurality of terminals are divided into M groups of terminals, and wherein said method comprises: forwarding a plurality of communication frames in a single-carrier forward link, wherein said plurality of frames are divided into N sub-frames, and wherein traffic being carried along the forward link by each of the N sub-frames serves one or more of said M groups of terminals associated with a respective satellite from said one or more satellites, such that each group of said M groups of terminals is served by at least a fraction of a sub-frame capacity of said N sun-frames, designated by a time-slice number; and assigning, by a satellite return link scheduler of the respective satellite, a respective capacity for an MF-TDMA return link for at least one of the one or more groups of terminals, wherein said assignment takes into account which of the sub-frames is associated with that at least one group of the terminals, characterised in that the terminals belonging to the at least one group of terminals are configured such that the terminals cannot receive communication while they are transmitting communication, and wherein the assignment of the respective capacity for the MF-TDMA return link for the at least one of the one or more groups of the terminals is allocated in return link time slots at which the terminals of the at least one group of terminals are not receiving communication of the sub-frames of said forward link which are associated with said at least one group of the terminals. forwarding a plurality of communication frames in a single-carrier forward link, wherein said plurality of frames are divided into N sub-frames, and wherein traffic being carried along the forward link by each of the N sub-frames serves one or more of said M groups of terminals associated with a respective satellite from said one or more satellites, such that each group of said M groups of terminals is served by at least a fraction of a sub-frame capacity of said N sun-frames, designated by a time-slice number; and assigning, by a satellite return link scheduler of the respective satellite, a respective capacity for an MF-TDMA return link for at least one of the one or more groups of terminals, wherein said assignment takes into account which of the sub-frames is associated with that at least one group of the terminals, characterised in that the terminals belonging to the at least one group of terminals are configured such that the terminals cannot receive communication while they are transmitting communication, and wherein the assignment of the respective capacity for the MF-TDMA return link for the at least one of the one or more groups of the terminals is allocated in return link time slots at which the terminals of the at least one group of terminals are not receiving communication of the sub-frames of said forward link which are associated with said at least one group of the terminals.
Shock absorber for an at least partially muscle-powered vehicle and in particular a bicycle having at least one damper device with a first and a second damper chamber (3, 4) being in connection via at least one controllable throttle valve, wherein at least one changeable electronic unit (50a-50c) is provided comprising at least one control device to control the controllable throttle valve by means of the control device for influencing the damper properties and wherein different types of electronic units (50a-50c) can be connected, characterized in that the changeable electronic unit (50a-50c) allows to use another electronic unit (50a-50c) having a simpler or more complex control device, such that simple replacement of the electronic unit (50a-50c) allows to expand or restrict the function and control options of the shock absorber.
A vehicle seat, comprising - a seat substructure, on which a backrest is pivotally mounted, and - a backrest element, which is pivotable together with the backrest and which is pivotable relative to the backrest, wherein the backrest is pivotally mounted on the seat substructure via at least one fitting arrangement (DB1, DB2) in such a way that a pivotal movement of the backrest with respect to the seat substructure is effected about a backrest pivot axis carrying out a wobbling movement, and wherein the backrest element is mounted on the seat substructure at a first bearing point and is mounted on the backrest at a second bearing point, and at the first bearing point for mounting the backrest element there is provided a first connecting element reproducing the wobbling movement during a pivotal movement of the backrest, and at the second bearing point there is provided a second connecting element reproducing a wobbling movement during a pivotal movement of the backrest, characterized in that the first connecting element is eccentrically mounted on a component attached to the seat substructure at the first bearing point and the second connecting element is non-rotatably coupled to the backrest at the second bearing point. - a seat substructure, on which a backrest is pivotally mounted, and - a backrest element, which is pivotable together with the backrest and which is pivotable relative to the backrest, wherein the backrest is pivotally mounted on the seat substructure via at least one fitting arrangement (DB1, DB2) in such a way that a pivotal movement of the backrest with respect to the seat substructure is effected about a backrest pivot axis carrying out a wobbling movement, and wherein the backrest element is mounted on the seat substructure at a first bearing point and is mounted on the backrest at a second bearing point, and at the first bearing point for mounting the backrest element there is provided a first connecting element reproducing the wobbling movement during a pivotal movement of the backrest, and at the second bearing point there is provided a second connecting element reproducing a wobbling movement during a pivotal movement of the backrest, characterized in that the first connecting element is eccentrically mounted on a component attached to the seat substructure at the first bearing point and the second connecting element is non-rotatably coupled to the backrest at the second bearing point.
A men's briefs with a separated space for receiving the penis comprising a removable incontinence absorbent receptacle, made as short or long leg briefs, with a flexible belt, a panel, a front outer insert and a front inner insert (B'), wherein the separated space for receiving the penis is formed by the front outer insert and the front inner insert (B'); the front outer insert and the front inner insert (B') being connected to the panel and an optional part in a manner to form the men's briefs, wherein the front inner insert (B') has shape and dimensions same as the front outer insert, where the front inner insert (B') is formed from two overlapping sewed parts and having a curved hem and a curved hem, respectively, the curved hems and have an elastic means for adjustably encircling the penis, where said curved hems and form a circular like adjustable orifice for inserting the penis into the separated space, the adjustable orifice encircles the penis in a way that prevents its falling out from the separated space, characterized in that said men's briefs are further provided with the removable incontinence receptacle being in the form of a three-dimensional container ensuring retention of the urine within the removable incontinence receptacle, the removable incontinence receptacle is defined by a receptacle front panel and a receptacle back panel that are on the edges mutually firmly connected and with an orifice placed on the receptacle front panel, the removable incontinence receptacle is placed within the front outer insert and the front inner insert (B') through an embrasure formed by hems (11, 5), whereby the removable incontinence receptacle has a shape same as said front outer and front inner inserts (B, B') and, as defined in the description, dimensions to fit within said front outer and front inner inserts (B, B') in a manner that the orifice of the receptacle front panel is faced to the adjustable orifice in order that the removable incontinence receptacle receives the penis, wherein the removable incontinence receptacle consists of an outer liquid barrier cover and an inner absorption receptacle, the inner absorption receptacle is defined by two planes mutually firmly connected on their edges forming a pocket like receptacle, the inner absorption receptacle having shape same as the outer liquid barrier cover and dimensions to fit within the outer liquid barrier cover and is placed within the outer liquid barrier cover, whereby the outer liquid barrier cover and the inner absorption receptacle are provided with the concurring orifices at the same place for receiving the penis.
A composition suitable for promoting affective and soothing touch by a caregiver to a child, comprising: an emulsifier having an HLB value of between 4 and 10, wherein said composition is free of emulsifier having an HLB value of below 4 or above 10; and an emollient, wherein said emulsifier is present in an amount of from 0.2% to 2.0% by weight of the composition; wherein the emulsifier is selected from olivates, lecithin, sorbitan oleate, sorbitan monostearate NF, sorbitan stearate, sorbitan isostearate, steareth-2, oleth-2, glyceryl laurate, ceteth-2, PEG-30 dipolyhydroxystearate, glyceryl stearate SE, sucrose cocoate, PEG-4 dilaurate, methyl glucose sesquistearate, PEG-8 dioleate, sorbitan laurate, PEG-40 sorbitan peroleate, laureth-4, glycerol monostearate, sorbitan monooleate, propylene glycol monolaurate, diethylene glycol, monolaurate (soap free), sorbitan esters of palmitic acid, polyoxypropylene stearate and sorbitan monolaurate; wherein the emollient is selected from isopropyl palmitate, mineral oil, lanolin, petrolatum, paraffin, beeswax, squalene, plant oils, triethylhexanoin, shea butter, isopropyl myristate, C 12 -C 15 alkyl benzoate, cocoglycerides, coco butter and essential oils; and wherein said emollient is present in a weight amount that is equal to or greater than the weight amount of the emulsifier.
Process for carrying out a carbon monoxide shift reaction, characterized in that - a dry synthesis gas comprising essentially carbon monoxide CO and hydrogen H 2 is dissolved in dry methanol in a first reactor to form methyl formate which is fed to a first column, - the methyl formate is separated off in the first column, - cleavage of the methyl formate either into methanol and formic acid or into methanol and formate occurs in aqueous solution in a second reactor, with either the methanol and the formic acid or the methanol and the formate being fed to a second column and unreacted methyl formate also being fed to the second column, - separation of carbon dioxide, unreacted methyl formate and methanol occurs in the second column, with methyl formate being fed to the second reactor, methanol being fed to the first reactor and the product gas carbon dioxide CO 2 being separated off and aqueous formic acid or aqueous formate being fed to a third reactor, - catalytic decomposition of formic acid or formate into hydrogencarbonate occurs in the third reactor, with hydrogen being separated off as product gas and hydrogencarbonate in aqueous solution being recirculated from the third reactor to the second reactor and hydrogencarbonate also being conveyed from the second reactor to the second column, where the dry methanol is conveyed in a first circuit, water is conveyed in a second circuit and the reaction to form the methyl formate is aided by a catalyst composed of methoxide, in particular sodium methoxide. - a dry synthesis gas comprising essentially carbon monoxide CO and hydrogen H 2 is dissolved in dry methanol in a first reactor to form methyl formate which is fed to a first column, - the methyl formate is separated off in the first column, - cleavage of the methyl formate either into methanol and formic acid or into methanol and formate occurs in aqueous solution in a second reactor, with either the methanol and the formic acid or the methanol and the formate being fed to a second column and unreacted methyl formate also being fed to the second column, - separation of carbon dioxide, unreacted methyl formate and methanol occurs in the second column, with methyl formate being fed to the second reactor, methanol being fed to the first reactor and the product gas carbon dioxide CO 2 being separated off and aqueous formic acid or aqueous formate being fed to a third reactor, - catalytic decomposition of formic acid or formate into hydrogencarbonate occurs in the third reactor, with hydrogen being separated off as product gas and hydrogencarbonate in aqueous solution being recirculated from the third reactor to the second reactor and hydrogencarbonate also being conveyed from the second reactor to the second column, where the dry methanol is conveyed in a first circuit, water is conveyed in a second circuit and the reaction to form the methyl formate is aided by a catalyst composed of methoxide, in particular sodium methoxide.
Device for expelling drops of a flowable product having a rotating outer drum (12; 32) and a feed channel extending into the outer drum (12; 32) for the product to be pelletized, wherein the outer drum (12; 32) has on its circumference passage openings (14; 36) through which the product to be pelletized runs from the feed channel and then exits in droplet shape, characterized in that at least the outer circumference of the outer drum (12; 32) is provided with a coating which reduces wetting with the product to be expelled, when compared with a basic material of the outer drum (12; 32), and in that the inner walls of the passage openings (14; 36) are at least partially provided with the coating.
A computer implemented method for privatizing an iteratively reweighted least squares (IRLS) solution, comprising: perturbing a first moment of a dataset by adding noise; perturbing a second moment of the dataset by adding noise; obtaining the IRLS solution based on the perturbed first moment and the perturbed second moment; and generating a differentially private output based on the IRLS solution. perturbing a first moment of a dataset by adding noise; perturbing a second moment of the dataset by adding noise; obtaining the IRLS solution based on the perturbed first moment and the perturbed second moment; and generating a differentially private output based on the IRLS solution.