mhurhangee/ep-ind-claims huggingface dataset:
A movable shingle array of rectangular strip modules fitted with crystalline and thin-film solar cells on optionally different carrier materials, wherein support structures for holding and moving in an extendable or fold-out rail system are arranged under the rectangular strip modules along at least two outer edges, wherein one row or two rows or multiple rows of crystalline and thin-film solar cells arranged next to each other are arranged interconnected in a rectangular strip module, two or more rectangular strip modules overlap each other in the manner of shingles when they are extended, characterized in that contacts are formed on the outside of the short side of each rectangular strip module, the contacts are arranged on the short side directly laterally in or on the rectangular strip module or in the rail system, wherein each rectangular strip module is individually contacted and connected, a defined hole structure consisting of depressions or through openings is arranged along a long side of the rectangular strip module, elevations or pins), specifically studs or spikes, of a next arranged rectangular strip module engage in the openings of the hole structure, and the rectangular strip modules are coupled to one another via a cable pull or a rail system or via an articulated arm, and the rectangular strip modules are designed to be extendable or retractable and/or erectable and adjustable by means of the cable pull or a rail system or an articulated arm. one row or two rows or multiple rows of crystalline and thin-film solar cells arranged next to each other are arranged interconnected in a rectangular strip module, two or more rectangular strip modules overlap each other in the manner of shingles when they are extended, characterized in that contacts are formed on the outside of the short side of each rectangular strip module, the contacts are arranged on the short side directly laterally in or on the rectangular strip module or in the rail system, wherein each rectangular strip module is individually contacted and connected, a defined hole structure consisting of depressions or through openings is arranged along a long side of the rectangular strip module, elevations or pins), specifically studs or spikes, of a next arranged rectangular strip module engage in the openings of the hole structure, and the rectangular strip modules are coupled to one another via a cable pull or a rail system or via an articulated arm, and the rectangular strip modules are designed to be extendable or retractable and/or erectable and adjustable by means of the cable pull or a rail system or an articulated arm.
An in vitro method for identifying a patient who has metastatic cancer that is suitable for targeted cancer therapy comprising: providing a first binding agent capable of binding prostate specific membrane antigen (PSMA); scoring a patient by assessing the amount of the first binding agent in a tissue, cells or bodily fluid in a patient; and identifying a patient suitable for targeted cancer therapy, wherein said therapy comprises a therapeutic dose of a second binding agent capable of binding prostate specific membrane antigen (PSMA), wherein the patient is identified only if the score is above a predetermined threshold, wherein the score above the threshold is indicative of cancer susceptible to the targeted cancer therapy and wherein the predetermined threshold is above the amount of the first binding agent in a healthy control sample. providing a first binding agent capable of binding prostate specific membrane antigen (PSMA); scoring a patient by assessing the amount of the first binding agent in a tissue, cells or bodily fluid in a patient; and identifying a patient suitable for targeted cancer therapy, wherein said therapy comprises a therapeutic dose of a second binding agent capable of binding prostate specific membrane antigen (PSMA), wherein the patient is identified only if the score is above a predetermined threshold, wherein the score above the threshold is indicative of cancer susceptible to the targeted cancer therapy and wherein the predetermined threshold is above the amount of the first binding agent in a healthy control sample.
Prepolymerized catalyst component for the polymerization of olefins comprising a solid catalyst component which comprises Mg, Ti, and chlorine atoms and an electron donor said prepolymerized catalyst component being characterized by the fact that: - the electron donor comprises at least 80%mol of 1,3 diethers with respect to the total molar amount of electron donor compounds; - the prepolymerized catalyst has a porosity due to pores with diameters up to 1μm of less than 0.2 cm 3 /g and - the said prepolymerized catalysts component comprises an amount of ethylene prepolymer of less than 45% with respect to the total weight of prepolymerized catalyst. - the electron donor comprises at least 80%mol of 1,3 diethers with respect to the total molar amount of electron donor compounds; - the prepolymerized catalyst has a porosity due to pores with diameters up to 1μm of less than 0.2 cm 3 /g and - the said prepolymerized catalysts component comprises an amount of ethylene prepolymer of less than 45% with respect to the total weight of prepolymerized catalyst.
A variable compression-ratio device comprising: a gear shaft disposed inside a crankshaft of an internal combustion engine coaxially with the crankshaft and configured to be rotationally driven by a power source; an input gear connected to the gear shaft; an intermediate gear supported by a crank web of the crankshaft and engaged with the input gear; and an eccentric cam disposed between a crank pin of the crankshaft and a large end of a connecting rod and engaged with the intermediate gear; characterized in that the variable compression-ratio device further comprising: a first oil channel configured to supply lubricating oil to the input gear, wherein the crankshaft is provided with a primary gear collar to position a primary gear, and wherein at least part of the first oil channel is provided inside the primary gear collar. a gear shaft disposed inside a crankshaft of an internal combustion engine coaxially with the crankshaft and configured to be rotationally driven by a power source; an input gear connected to the gear shaft; an intermediate gear supported by a crank web of the crankshaft and engaged with the input gear; and an eccentric cam disposed between a crank pin of the crankshaft and a large end of a connecting rod and engaged with the intermediate gear; a first oil channel configured to supply lubricating oil to the input gear, wherein the crankshaft is provided with a primary gear collar to position a primary gear, and wherein at least part of the first oil channel is provided inside the primary gear collar.
A silicate glass, wherein said glass has a threshold diffusivity D of at least 6 μm 2 /hour, wherein the threshold diffusivity D describes the susceptibility of the article to chemical tempering in case of optional chemical tempering and wherein D is calculated from depth of ion exchanged layer (DoL) and chemical tempering time (t) according to the following formula: DoL = 1.4 * sqrt( 4 * D * t) for chemical tempering in KNO 3 at 450°C for 9 hours; wherein the glass has a hydrolytic resistance corresponding to at most 80% of the limit type I according to USP660/Glass Grains; wherein the glass has at least 12 ppm Fe 2 O 3 (based on Mol-%); wherein the sum of the z-value and x-value is higher than the y-value by a factor of at least 1.5 according to the CIE 1931 color space when measured at a sample thickness of 1 mm; and wherein the glass has a composition characterized by the following components: component Mol-% SiO 2 55-85 Al 2 O 3 5-25 Na 2 O 5-20 K 2 O 0.5-5 CaO 3.5-20 MgO 0.1-5 Fe 2 O 3 0.0012-0.1 TiO 2 0-0.3 ZrO 2 0.1-10 Cl 0.1-3 wherein the glass has a hydrolytic resistance corresponding to at most 80% of the limit type I according to USP660/Glass Grains; wherein the glass has at least 12 ppm Fe 2 O 3 (based on Mol-%); wherein the sum of the z-value and x-value is higher than the y-value by a factor of at least 1.5 according to the CIE 1931 color space when measured at a sample thickness of 1 mm; and wherein the glass has a composition characterized by the following components: component Mol-% SiO 2 55-85 Al 2 O 3 5-25 Na 2 O 5-20 K 2 O 0.5-5 CaO 3.5-20 MgO 0.1-5 Fe 2 O 3 0.0012-0.1 TiO 2 0-0.3 ZrO 2 0.1-10 Cl 0.1-3
An ophthalmic lens providing a desired prescription, said lens comprising: a first lens surface and a second lens surface on the opposite side of the lens from the first lens surface, wherein the first lens surface comprises a continuous, gradual increase in optical power over substantially its entire optically useable surface from one edge to substantially the opposite edge, wherein the continuous, gradual increase in optical power comprises a change in spherical power and the optical power increases without inflection points or discontinuities from one edge of the optically useable surface to substantially the opposite edge of the optically useable surface; and wherein the second lens surface is calculated in combination with the first lens surface's increase in optical power and the second lens surface is shaped such that the lens provides at least a first effective area of stabilized optical power at least 6 mm in its minimum diameter, wherein the stabilized optical power does not vary by greater than +/- 0.12D from the desired prescription power. a first lens surface and a second lens surface on the opposite side of the lens from the first lens surface, wherein the first lens surface comprises a continuous, gradual increase in optical power over substantially its entire optically useable surface from one edge to substantially the opposite edge, wherein the continuous, gradual increase in optical power comprises a change in spherical power and the optical power increases without inflection points or discontinuities from one edge of the optically useable surface to substantially the opposite edge of the optically useable surface; and wherein the second lens surface is calculated in combination with the first lens surface's increase in optical power and the second lens surface is shaped such that the lens provides at least a first effective area of stabilized optical power at least 6 mm in its minimum diameter, wherein the stabilized optical power does not vary by greater than +/- 0.12D from the desired prescription power.
A method of forming a compound barb on a medical device, comprising the steps of: providing a medical device having a longitudinal axis and an elongate body; applying vibrational energy to a cutting element to form a compound barb on at least a portion of the medical device, characterised in that the method comprises: forming a first linear cut in the medical device to form a first portion formed from the elongate body at a first angle α of from 30 degrees to 50 degrees and a first ratio cut depth which is approximately 1% to about 40% of the elongate body; forming a second linear cut in the medical device to form a second portion formed from the elongate body at a second angle β of approximately 5 degrees to about 40 degrees and a second ratio cut depth which is approximately 5% to about 50% of the elongate body wherein the first angle α is greater than the second angle β to provide the compound barb comprising the first portion disposed at a first orientation relative to the longitudinal axis of the elongate body and the second portion disposed at a second orientation relative to the longitudinal axis of the elongate body. providing a medical device having a longitudinal axis and an elongate body; applying vibrational energy to a cutting element to form a compound barb on at least a portion of the medical device, characterised in that the method comprises: forming a first linear cut in the medical device to form a first portion formed from the elongate body at a first angle α of from 30 degrees to 50 degrees and a first ratio cut depth which is approximately 1% to about 40% of the elongate body; forming a second linear cut in the medical device to form a second portion formed from the elongate body at a second angle β of approximately 5 degrees to about 40 degrees and a second ratio cut depth which is approximately 5% to about 50% of the elongate body wherein the first angle α is greater than the second angle β to provide the compound barb comprising the first portion disposed at a first orientation relative to the longitudinal axis of the elongate body and the second portion disposed at a second orientation relative to the longitudinal axis of the elongate body. forming a first linear cut in the medical device to form a first portion formed from the elongate body at a first angle α of from 30 degrees to 50 degrees and a first ratio cut depth which is approximately 1% to about 40% of the elongate body; forming a second linear cut in the medical device to form a second portion formed from the elongate body at a second angle β of approximately 5 degrees to about 40 degrees and a second ratio cut depth which is approximately 5% to about 50% of the elongate body wherein the first angle α is greater than the second angle β to provide the compound barb comprising the first portion disposed at a first orientation relative to the longitudinal axis of the elongate body and the second portion disposed at a second orientation relative to the longitudinal axis of the elongate body.
A method of ultrasound imaging, comprising: transmitting an ultrasound ping from at least one transmit element into a patient to insonify an entire imaged region within the patient; storing transmit information pertaining to the ultrasound ping in a raw data memory; receiving echoes corresponding to the ultrasound ping with a plurality of receive elements of two or more receive apertures; receiving transducer element location data that provides an acoustic position of the at least one transmit element relative to the plurality of receive elements; sampling the echoes at a plurality of sampling points to generate a digital record containing a signal magnitude and timestamp entry; storing the digital record in the raw data memory for each sampling point; beamforming the digital record using the transducer element location data to form at least one ultrasound image; and re-beamforming a selected region of the digital record to form a zoomed ultrasound image using a multiple aperture ping imaging process. transmitting an ultrasound ping from at least one transmit element into a patient to insonify an entire imaged region within the patient; storing transmit information pertaining to the ultrasound ping in a raw data memory; receiving echoes corresponding to the ultrasound ping with a plurality of receive elements of two or more receive apertures; receiving transducer element location data that provides an acoustic position of the at least one transmit element relative to the plurality of receive elements; sampling the echoes at a plurality of sampling points to generate a digital record containing a signal magnitude and timestamp entry; storing the digital record in the raw data memory for each sampling point; beamforming the digital record using the transducer element location data to form at least one ultrasound image; and re-beamforming a selected region of the digital record to form a zoomed ultrasound image using a multiple aperture ping imaging process.
An aqueous solution for preserving and/or rinsing organs to be transplanted comprising: - sodium (Na +) ions at a concentration between 30 and 150 mmol.L -1; - potassium ions (K +) at a concentration between 10 and 40 mmol.L -1; - polyethylene glycol with a molecular weight of 35,000 g.mol -1 (PEG 35000) at a concentration between 2 and 5 g.L -1. - sodium (Na +) ions at a concentration between 30 and 150 mmol.L -1; - potassium ions (K +) at a concentration between 10 and 40 mmol.L -1; - polyethylene glycol with a molecular weight of 35,000 g.mol -1 (PEG 35000) at a concentration between 2 and 5 g.L -1.
A system for treating a tissue site, comprising: a tape comprising a flexible material for placing in contact with a perimeter of the tissue site, wherein the flexible material of the tape comprises a hydrogel including a non-adherent upper surface and a tissue-facing surface in the form of segments formed from the hydrogel and reinforced with an internal textile scrim; a tissue interface comprising a granulating surface for placing in contact with the tissue site, inside of a boundary formed by the tape; a cover for positioning over the tape and tissue interface and a portion of an epidermis surrounding the tissue site, wherein the cover has an adherent material comprising a medically-acceptable, pressure-sensitive adhesive that extends about a periphery of the cover for coupling to the epidermis surrounding the tissue site and operable to form a fluid seal, and wherein the cover is non-adherent to the non-adherent upper surface of the tape; and a negative-pressure subsystem for providing negative pressure to the tissue interface. a tape comprising a flexible material for placing in contact with a perimeter of the tissue site, wherein the flexible material of the tape comprises a hydrogel including a non-adherent upper surface and a tissue-facing surface in the form of segments formed from the hydrogel and reinforced with an internal textile scrim; a tissue interface comprising a granulating surface for placing in contact with the tissue site, inside of a boundary formed by the tape; a cover for positioning over the tape and tissue interface and a portion of an epidermis surrounding the tissue site, wherein the cover has an adherent material comprising a medically-acceptable, pressure-sensitive adhesive that extends about a periphery of the cover for coupling to the epidermis surrounding the tissue site and operable to form a fluid seal, and wherein the cover is non-adherent to the non-adherent upper surface of the tape; and a negative-pressure subsystem for providing negative pressure to the tissue interface.
A method for reducing nonlinear interference in an optical communication system, comprising: obtaining an estimate of inter-channel nonlinear interference experienced on a first optical channel of the optical communication system due to transmissions on a second optical channel in the optical communication system, where the second optical channel is distinct from the first optical channel, and where the first optical channel and the second optical channel have respective different wavelengths; determining filter tap coefficient values for a number of parallel linear finite impulse response filters (131, 132, 133) based, at least in part, on the estimate of inter-channel nonlinear interference, wherein the parallel linear finite impulse response filters (131, 132, 133) operate on sequences constructed from products of optical field samples of an optical signal intended for transmission over the second optical channel, according to the filter tap coefficient values and a predetermined number of filter taps; implementing (210, 330), by means of the filters, a perturbation to the optical signal intended for transmission over the second optical channel to produce a pre-distorted optical signal, wherein the pre-distorted optical signal is configured for reducing the inter-channel nonlinear interference experienced on the first optical channel; and transmitting (220, 340) the pre-distorted optical signal over the second optical channel through an optical transmission medium. obtaining an estimate of inter-channel nonlinear interference experienced on a first optical channel of the optical communication system due to transmissions on a second optical channel in the optical communication system, where the second optical channel is distinct from the first optical channel, and where the first optical channel and the second optical channel have respective different wavelengths; determining filter tap coefficient values for a number of parallel linear finite impulse response filters (131, 132, 133) based, at least in part, on the estimate of inter-channel nonlinear interference, wherein the parallel linear finite impulse response filters (131, 132, 133) operate on sequences constructed from products of optical field samples of an optical signal intended for transmission over the second optical channel, according to the filter tap coefficient values and a predetermined number of filter taps; implementing (210, 330), by means of the filters, a perturbation to the optical signal intended for transmission over the second optical channel to produce a pre-distorted optical signal, wherein the pre-distorted optical signal is configured for reducing the inter-channel nonlinear interference experienced on the first optical channel; and transmitting (220, 340) the pre-distorted optical signal over the second optical channel through an optical transmission medium.
A method for uplink, UL, orthogonal frequency division-multiple access, OFDMA, transmission, the method comprising: sending, by an access point, AP, to a plurality of stations, STAs, scheduling information for periodic UL transmission; sending, to the STAs, a short synchronous signal, SSS, in accordance with the scheduling information for periodic UL transmission; and receiving, from the STAs, a corresponding UL transmission in response to receiving the SSS, wherein the UL transmission sent by each of the plurality of the STAs arrive at the AP at a same time, wherein the scheduling information indicates a time period for sending the SSS recurrently to the STAs and receiving in response the corresponding UL transmission from each of the plurality of the STAs. sending, by an access point, AP, to a plurality of stations, STAs, scheduling information for periodic UL transmission; sending, to the STAs, a short synchronous signal, SSS, in accordance with the scheduling information for periodic UL transmission; and receiving, from the STAs, a corresponding UL transmission in response to receiving the SSS, wherein the UL transmission sent by each of the plurality of the STAs arrive at the AP at a same time, wherein the scheduling information indicates a time period for sending the SSS recurrently to the STAs and receiving in response the corresponding UL transmission from each of the plurality of the STAs.
A method comprising: in response to receiving a request to perform an operation for a snapshot comprising snapshot data stored within an object of an object store according to an object format where the snapshot data is structured according to a snapshot file system tree structure, on-demand generating a plurality of data connector components as stateless containers; wherein the requested operation is one of integrity checking and anomaly detection; wherein the state information of the stateless containers does not need to be tracked, saved, or restored; assigning portions of the snapshot file system tree structure to the plurality of data connector components; and executing the plurality of data connector components in parallel to concurrently perform the requested operation on different non-overlapping portions of the snapshot file system tree structure. in response to receiving a request to perform an operation for a snapshot comprising snapshot data stored within an object of an object store according to an object format where the snapshot data is structured according to a snapshot file system tree structure, on-demand generating a plurality of data connector components as stateless containers; wherein the requested operation is one of integrity checking and anomaly detection; wherein the state information of the stateless containers does not need to be tracked, saved, or restored; wherein the requested operation is one of integrity checking and anomaly detection; wherein the state information of the stateless containers does not need to be tracked, saved, or restored; assigning portions of the snapshot file system tree structure to the plurality of data connector components; and executing the plurality of data connector components in parallel to concurrently perform the requested operation on different non-overlapping portions of the snapshot file system tree structure.