mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting a direct sequence spread spectrum, DSSS, signal from a transmitter (102, 402-1, 402-2, 402-3, 402-4, 402-5, 402-n, 502), the method comprising: identifying a threshold spectral flux density for a given physical location that is in proximity to an adversary; as a result of identifying the threshold spectral flux density, transmitting the DSSS signal at a power level causing the signal to be below the spectral flux density at the given physical location, the DSSS signal being transmitted at a data rate; receiving feedback from a receiver (106, 406) indicating the signal-to-noise ratio of the DSSS signal at the receiver (106, 406); lowering the data rate of the DSSS signal based on the feedback, wherein the feedback is used to determine that signal-to-noise ratio should be increased, or raising the data rate of the DSSS signal based on the feedback, wherein the feedback is used to determine that the signal-to-noise ratio should be decreased; and continuing transmitting the DSSS signal at the raised or lowered data rate and power level. identifying a threshold spectral flux density for a given physical location that is in proximity to an adversary; as a result of identifying the threshold spectral flux density, transmitting the DSSS signal at a power level causing the signal to be below the spectral flux density at the given physical location, the DSSS signal being transmitted at a data rate; receiving feedback from a receiver (106, 406) indicating the signal-to-noise ratio of the DSSS signal at the receiver (106, 406); lowering the data rate of the DSSS signal based on the feedback, wherein the feedback is used to determine that signal-to-noise ratio should be increased, or raising the data rate of the DSSS signal based on the feedback, wherein the feedback is used to determine that the signal-to-noise ratio should be decreased; and continuing transmitting the DSSS signal at the raised or lowered data rate and power level.
An article comprising a polyester polymer phase wherein the polyester polymer phase is at least 80% by weight of the composition of the article and the polyester polymer phase further comprises a sulfonated polyester polymer; at least 1% by weight of the article of a polyamide polymer, and a stabilizer; wherein the stabilizer is present at a level of at least 100 parts stabilizer per million parts article, wherein at least 2% by weight of the total amount of stabilizer is present in the polyester polymer phase and said article is a compartmentalized pellet of core-shell design with the shell comprising polyester polymer phase and stabilizer and the core comprising polyester polymer phase, stabilizer and the polyamide.
Method for separating foreign bodies from a first tobacco stream, which first tobacco stream is conveyed in the region of a first foreign body detection device by means of an air stream (12, 32, 32', 34'), and foreign bodies in the first tobacco stream are detected by means of the first foreign body detection device on the basis of at least one property and then removed from the first tobacco stream by means of a jet of compressed air, thereby forming the first tobacco stream from which foreign bodies have been removed and a second stream of tobacco particles and foreign bodies entrained by the jet of compressed air, characterised in that the second stream removed from the first tobacco stream is accelerated and foreign bodies in the second stream are detected again by means of a second foreign body detection device on the basis of at least one property and then removed by means of a jet of compressed air, and the second stream is accelerated upstream of the second foreign body detection device due to a reduction in the volume of a discharge passage (23, 44) for the second stream.
An air conditioner comprising: a housing; a heat exchanger disposed in the housing to heat-exchange air in the air conditioner; a blower fan disposed in the housing to blow the air heat-exchanged with the heat exchanger out of the housing; a flow path forming frame disposed in the housing to define a flow path to guide the air blown by the blower fan; a door; a discharge plate disposed to form the flow path together with the flow path forming frame, the discharge plate comprising: an opening openable and closeable by the door and configured to discharge the air blown by the blower fan out of the housing, and a plurality of discharge holes configured to discharge the air around the opening; and a discharge guide disposed between the flow path forming frame and the discharge plate to guide the air from the blower fan to the opening, wherein the discharge guide is configured to allow the air flowing through the plurality of discharge holes to branch off from the discharge guide. a housing; a heat exchanger disposed in the housing to heat-exchange air in the air conditioner; a blower fan disposed in the housing to blow the air heat-exchanged with the heat exchanger out of the housing; a flow path forming frame disposed in the housing to define a flow path to guide the air blown by the blower fan; a door; a discharge plate disposed to form the flow path together with the flow path forming frame, the discharge plate comprising: an opening openable and closeable by the door and configured to discharge the air blown by the blower fan out of the housing, and a plurality of discharge holes configured to discharge the air around the opening; and an opening openable and closeable by the door and configured to discharge the air blown by the blower fan out of the housing, and a plurality of discharge holes configured to discharge the air around the opening; and a discharge guide disposed between the flow path forming frame and the discharge plate to guide the air from the blower fan to the opening, wherein the discharge guide is configured to allow the air flowing through the plurality of discharge holes to branch off from the discharge guide.
A process for the preparation of an industrial butter with increased hardness, consisting of the following steps: (i) separation of raw milk into a skimmed milk fraction and a cream fraction; (ii) ripening of the cream fraction by alternate heating and cooling; (iii) churning of the ripened cream fraction at about 10 °C in a butter churn with rotating cylinder; (iv) heating the commercial butter thus obtained, which has a fat content ranging from 80 to 88 % by weight, a non-fat dry matter content in the range from 1 to 3 % by weight and a water content not exceeding 16 % by weight, at 18 to 25 °C (v) cooling the heated butter in 2 to 5 scraped heat exchangers connected in series; and (vi) forming the hardened industrial butter thus obtained. (i) separation of raw milk into a skimmed milk fraction and a cream fraction; (ii) ripening of the cream fraction by alternate heating and cooling; (iii) churning of the ripened cream fraction at about 10 °C in a butter churn with rotating cylinder; (iv) heating the commercial butter thus obtained, which has a fat content ranging from 80 to 88 % by weight, a non-fat dry matter content in the range from 1 to 3 % by weight and a water content not exceeding 16 % by weight, at 18 to 25 °C (v) cooling the heated butter in 2 to 5 scraped heat exchangers connected in series; and (vi) forming the hardened industrial butter thus obtained.
A system for encoding light field image data as a light field image file, comprising: a processor; and memory containing an encoding application and light field image data, where the light field image data comprises a plurality of low resolution images of a scene captured from different viewpoints; wherein the encoding application configures the processor to: synthesize a higher resolution image of the scene from a reference viewpoint using the low resolution images, where synthesizing the higher resolution image involves creating a depth map that specifies depths from the reference viewpoint for pixels in the higher resolution image including creating a confidence map for the depth map, where the confidence map indicates the reliability of the depth value for a pixel in the depth map; encode the higher resolution image; and create a light field image file including the encoded image and metadata describing the encoded image, where the metadata includes the depth map and the confidence map. a processor; and memory containing an encoding application and light field image data, where the light field image data comprises a plurality of low resolution images of a scene captured from different viewpoints; wherein the encoding application configures the processor to: synthesize a higher resolution image of the scene from a reference viewpoint using the low resolution images, where synthesizing the higher resolution image involves creating a depth map that specifies depths from the reference viewpoint for pixels in the higher resolution image including creating a confidence map for the depth map, where the confidence map indicates the reliability of the depth value for a pixel in the depth map; encode the higher resolution image; and create a light field image file including the encoded image and metadata describing the encoded image, where the metadata includes the depth map and the confidence map. synthesize a higher resolution image of the scene from a reference viewpoint using the low resolution images, where synthesizing the higher resolution image involves creating a depth map that specifies depths from the reference viewpoint for pixels in the higher resolution image including creating a confidence map for the depth map, where the confidence map indicates the reliability of the depth value for a pixel in the depth map; encode the higher resolution image; and create a light field image file including the encoded image and metadata describing the encoded image, where the metadata includes the depth map and the confidence map.
A method for coating an optoelectronic chip-on-board module (1, 11 - 11'''), which comprises a two-dimensional support (2, 2'), which is equipped with one or a plurality of optoelectronic components, comprising a transparent, UV- and temperature-resistant coating of a silicon, characterised by the following method steps: a) pouring the liquid silicone (21, 22) into a mould, which is open to the top and which has external dimensions, which correspond to the external dimensions of the support (2, 2') or exceed them, b) inserting the support (2, 2') into the mould, wherein the optoelectronic component or the optoelectronic components are immersed completely into the silicon, and a surface of the support (2, 2') touches the silicon holohedrally, or the support (2, 2') is immersed at least partially holohedrally into the silicon, c) curing and cross-linking the silicon with the optoelectronic components and the support (2, 2'), and d) removing the support (2, 2') comprising the coating of the cured silicon from the mould; characterised in that the method steps a) and/or b) and/or c) are performed under an increased atmospheric pressure, in particular at an atmospheric pressure of between 4 and 10 bar, in particular between 5 and 7 bar. a) pouring the liquid silicone (21, 22) into a mould, which is open to the top and which has external dimensions, which correspond to the external dimensions of the support (2, 2') or exceed them, b) inserting the support (2, 2') into the mould, wherein the optoelectronic component or the optoelectronic components are immersed completely into the silicon, and a surface of the support (2, 2') touches the silicon holohedrally, or the support (2, 2') is immersed at least partially holohedrally into the silicon, c) curing and cross-linking the silicon with the optoelectronic components and the support (2, 2'), and d) removing the support (2, 2') comprising the coating of the cured silicon from the mould;
A method comprising: performing non-rigid registration of a radiological brain image of a subject acquired after administration of a radiotracer to the subject that binds to a target substance indicative of a clinical pathology with a positive template indicative of having the clinical pathology; performing non-rigid registration of the radiological brain image with a negative template indicative of not having the clinical pathology; generating a positive result metric quantifying closeness of the non-rigid registration of the radiological brain image with the positive template; and generating a negative result metric quantifying closeness of the non-rigid registration of the radiological brain image with the negative template; generating a test result for the subject respective to the clinical pathology based on the positive result metric and the negative result metric; wherein the non-rigid registration operations and the generating operations are performed by a digital processing device. performing non-rigid registration of a radiological brain image of a subject acquired after administration of a radiotracer to the subject that binds to a target substance indicative of a clinical pathology with a positive template indicative of having the clinical pathology; performing non-rigid registration of the radiological brain image with a negative template indicative of not having the clinical pathology; generating a positive result metric quantifying closeness of the non-rigid registration of the radiological brain image with the positive template; and generating a negative result metric quantifying closeness of the non-rigid registration of the radiological brain image with the negative template; generating a test result for the subject respective to the clinical pathology based on the positive result metric and the negative result metric; wherein the non-rigid registration operations and the generating operations are performed by a digital processing device.
A method for reducing the concentration of a contaminant in a soil, comprising: introducing an oxidant and a surfactant into a subsurface containing the soil; allowing the surfactant to solubilize or desorb the contaminant; and allowing the oxidant to oxidize the solubilized contaminant in the subsurface, so that the amount of the contaminant in the soil is substantially reduced, wherein the overall rate of oxidization of the contaminant is controlled to a predetermined value and the overall rate of solubilization of the contaminant is controlled to a predetermined value by selecting the oxidant, surfactant and adjusting the concentrations of surfactants, oxidants, and antioxidants, so that the rate of oxidation of the contaminant is greater than, less than, or equal to the rate of solubilization of the contaminant, wherein the contaminant is a nonaqueous phase contaminant, wherein the surfactant forms a Windsor I solution or microemulsion, wherein the oxidant and surfactant are selected so that the oxidant does not substantially react with the surfactant. introducing an oxidant and a surfactant into a subsurface containing the soil; allowing the surfactant to solubilize or desorb the contaminant; and allowing the oxidant to oxidize the solubilized contaminant in the subsurface, so that the amount of the contaminant in the soil is substantially reduced, wherein the overall rate of oxidization of the contaminant is controlled to a predetermined value and the overall rate of solubilization of the contaminant is controlled to a predetermined value by selecting the oxidant, surfactant and adjusting the concentrations of surfactants, oxidants, and antioxidants, so that the rate of oxidation of the contaminant is greater than, less than, or equal to the rate of solubilization of the contaminant, wherein the contaminant is a nonaqueous phase contaminant, wherein the surfactant forms a Windsor I solution or microemulsion, wherein the oxidant and surfactant are selected so that the oxidant does not substantially react with the surfactant.
Measurement marker system for calibrating a machine which has a machine head that is displaceable along at least one spatial direction (y) during operation, said measurement marker system comprising - at least one measurement marker which is intended to be attached to the machine, and - a scanning unit for capturing the at least one measurement marker using electromagnetic radiation, wherein the intention is for the scanning unit to be arranged on the machine in such a way that it is displaceable relative to the measurement marker together with the machine head, and - an imaging optical unit (6, 10, 10', 12, 14, 16, 18) assigned to the measurement marker in order to produce a virtual measurement marker in an imaging plane spaced apart from the measurement marker when the electromagnetic radiation produced by the scanning unit interacts with the measurement marker, wherein the scanning unit is configured to optically scan the virtual measurement marker, and wherein the scanning unit comprises an electromagnetic radiation source for irradiating the measurement marker and a detector arrangement for optical detection of the virtual measurement marker, characterized - in that the at least one measurement marker has, at least in portions, a grating structure (101, 102; 103, 104; 111 to 118) and - in that the imaging optical unit (6, 10, 10', 12, 14, 16, 18) comprises a transmission grating disposed downstream of the radiation source and upstream of the measurement marker such that the virtual measurement marker is produced in the form of a self-image of the transmission grating. - at least one measurement marker which is intended to be attached to the machine, and - a scanning unit for capturing the at least one measurement marker using electromagnetic radiation, wherein the intention is for the scanning unit to be arranged on the machine in such a way that it is displaceable relative to the measurement marker together with the machine head, and - an imaging optical unit (6, 10, 10', 12, 14, 16, 18) assigned to the measurement marker in order to produce a virtual measurement marker in an imaging plane spaced apart from the measurement marker when the electromagnetic radiation produced by the scanning unit interacts with the measurement marker, - in that the at least one measurement marker has, at least in portions, a grating structure (101, 102; 103, 104; 111 to 118) and - in that the imaging optical unit (6, 10, 10', 12, 14, 16, 18) comprises a transmission grating disposed downstream of the radiation source and upstream of the measurement marker such that the virtual measurement marker is produced in the form of a self-image of the transmission grating.
A ginger extract, comprising (a) 25 to 30 % b.w. -gingerol (b) 5 to 10 % b.w. -gingerol (c) 5 to 10 % b.w. -gingerol (d) 1.5 to 4 % b.w. -shogaol (e) 0.3 to 1.3 % b.w. -shogaol; (f) 0.03 to 1 % b.w. -shogaol; (g) 0.001 to 1 % b.w. zingerone, on condition that the content of gingerols sums up to 35 to 50 % b.w. and the content of shogaols sums up to 1.5 to 6 % b.w. (a) 25 to 30 % b.w. -gingerol (b) 5 to 10 % b.w. -gingerol (c) 5 to 10 % b.w. -gingerol (d) 1.5 to 4 % b.w. -shogaol (e) 0.3 to 1.3 % b.w. -shogaol; (f) 0.03 to 1 % b.w. -shogaol; (g) 0.001 to 1 % b.w. zingerone,
An air conditioning system comprising: air conditioners (10a, 10b...) having one or more than one installed function of multiple functions; and a mobile terminal carried by a user of the air conditioners (10a, 10b,...), and having an air conditioning management program for management of the air conditioners (10a, 10b,...); characterized in that the air conditioners (10a, 10b,...) store installed function information, which is information classifying a multitude of functions with which the air conditioners (10a, 10b,...) are potentially provided into functions that are actually installed in the air conditioners (10a, 10b,...) and functions that are not installed [see page 9,1. 20 to 23]; the air conditioning system further comprising information intermediation devices (40, 20a, 20b...) configured to carry out exchange of installed function information between the air conditioners (10a, 10b,...) and the mobile terminal, using a public network, and the air conditioning management program of the mobile terminal reads out the installed function information via the information intermediation devices (40, 20a, 20b,...), and generates, in accordance with the installed function information, an air conditioner management screen image displayed on a display of the mobile terminal. air conditioners (10a, 10b...) having one or more than one installed function of multiple functions; and a mobile terminal carried by a user of the air conditioners (10a, 10b,...), and having an air conditioning management program for management of the air conditioners (10a, 10b,...); characterized in that the air conditioners (10a, 10b,...) store installed function information, which is information classifying a multitude of functions with which the air conditioners (10a, 10b,...) are potentially provided into functions that are actually installed in the air conditioners (10a, 10b,...) and functions that are not installed [see page 9,1. 20 to 23]; the air conditioning system further comprising information intermediation devices (40, 20a, 20b...) configured to carry out exchange of installed function information between the air conditioners (10a, 10b,...) and the mobile terminal, using a public network, and the air conditioning management program of the mobile terminal reads out the installed function information via the information intermediation devices (40, 20a, 20b,...), and generates, in accordance with the installed function information, an air conditioner management screen image displayed on a display of the mobile terminal.