mhurhangee/patent-ind-claim-en huggingface dataset:
A diagnosis support program that analyzes images of a human body and displays analysis results, the program causing a computer to execute: processing of acquiring a plurality of frame images from a database that stores the images (S1, T1); processing of selecting a specific area from each of the frame images and specifying at least a respiratory cycle based on pixels in the selected specific area (S2) and optionally as well a blood vessel beat cycle of a subject based either on pixels in the selected specific area or on measurement results by other modality devices including an electrocardiogram or a pulsimeter (T2, T3); processing of detecting a lung field based on the specified respiratory cycle (S3, T4); processing of dividing the detected lung field into a plurality of block areas (S4, T5) and calculating a change in image in each of the block areas based on a relative position between each of the block areas and a lung contour (S5, T6); processing of Fourier-transforming a change in image in each block area in each of the frame images (S6, T7); processing of performing inverse Fourier transform by extracting frequency components corresponding to the respiratory cycle or the blood vessel beat cycle for Fourier transform results of a change in image in each of the block areas (S6, T7); and processing of displaying images after the inverse Fourier transform on a display (S9, T10). processing of acquiring a plurality of frame images from a database that stores the images (S1, T1); processing of selecting a specific area from each of the frame images and specifying at least a respiratory cycle based on pixels in the selected specific area (S2) and optionally as well a blood vessel beat cycle of a subject based either on pixels in the selected specific area or on measurement results by other modality devices including an electrocardiogram or a pulsimeter (T2, T3); processing of detecting a lung field based on the specified respiratory cycle (S3, T4); processing of dividing the detected lung field into a plurality of block areas (S4, T5) and calculating a change in image in each of the block areas based on a relative position between each of the block areas and a lung contour (S5, T6); processing of Fourier-transforming a change in image in each block area in each of the frame images (S6, T7); processing of performing inverse Fourier transform by extracting frequency components corresponding to the respiratory cycle or the blood vessel beat cycle for Fourier transform results of a change in image in each of the block areas (S6, T7); and processing of displaying images after the inverse Fourier transform on a display (S9, T10).
A terminal device, comprising: a radio interface operative to receive a broadcast message from a cellular network , the broadcast message including at least one parameter associated with coverage enhancement, CE, operation of the terminal device (11, 12; 20) and to perform a CE level dependent repetition of a random access preamble transmission ; and an electronic circuit operative to control, when the terminal device (11, 12; 20) is in CE operation and based on the at least one parameter included in the broadcast message , a CE-level dependent backoff behavior for the CE level dependent repetition of the random access preamble transmission , characterised in that , the at least one parameter indicates which CE level is affected by a potential congestion situation. a radio interface operative to receive a broadcast message from a cellular network , the broadcast message including at least one parameter associated with coverage enhancement, CE, operation of the terminal device (11, 12; 20) and to perform a CE level dependent repetition of a random access preamble transmission ; and an electronic circuit operative to control, when the terminal device (11, 12; 20) is in CE operation and based on the at least one parameter included in the broadcast message , a CE-level dependent backoff behavior for the CE level dependent repetition of the random access preamble transmission , characterised in that , the at least one parameter indicates which CE level is affected by a potential congestion situation.
A shaped wafer body , in particular an intermediate bakery product, made of a baking mass baked through under pressure and containing 55 to 70 % water in an unbaked state, - wherein the shaped wafer body comprises multiple bakery products with a bakery product thickness , which are arranged next to one another along a main plane , - wherein the shaped wafer body comprises a bakery product connection , through which the bakery products are connected to one another, - wherein, in each of the areas which directly surround the bakery products , the bakery product connection forms a separating bar with a separating bar thickness , wherein the separating bar thickness is smaller than the bakery product thickness , characterized - in that each of the separating bars extends away from the bakery product transversely to the main plane , - in that the bakery products are arranged on only one side of the main plane and in particular extend to the main plane , - in that separating bars are arranged on the other side of the main plane and extend from the main plane to a secondary plane , which extends parallel to the main plane , - and in that the distance between the main plane and the secondary plane and, consequently, the height of the separating bars measured transversely to the main plane is more than 2 mm and in particular between 3 mm and 10 mm. - wherein the shaped wafer body comprises multiple bakery products with a bakery product thickness , which are arranged next to one another along a main plane , - wherein the shaped wafer body comprises a bakery product connection , through which the bakery products are connected to one another, - wherein, in each of the areas which directly surround the bakery products , the bakery product connection forms a separating bar with a separating bar thickness , wherein the separating bar thickness is smaller than the bakery product thickness , - in that each of the separating bars extends away from the bakery product transversely to the main plane , - in that the bakery products are arranged on only one side of the main plane and in particular extend to the main plane , - in that separating bars are arranged on the other side of the main plane and extend from the main plane to a secondary plane , which extends parallel to the main plane , - and in that the distance between the main plane and the secondary plane and, consequently, the height of the separating bars measured transversely to the main plane is more than 2 mm and in particular between 3 mm and 10 mm.
A multi-sensor non-invasive blood glucose monitoring instrument based on impedance spectroscopy-optical method, comprising a detection probe, a microprocessor, a display unit, and a storage unit, wherein, the detection probe comprises a pair of high-frequency electrodes , a pair of low-frequency electrodes , a temperature and humidity sensor , an LED array , a photoelectric sensor , and a contact plate ; the microprocessor controls an excitation signal generation circuit to generate high frequency and low frequency excitation signals, feedback signals from the high-frequency electrodes and the low-frequency electrodes are inputted to the microprocessor via an amplitude and phase detection circuit, and then high-frequency impedance and low-frequency impedance are obtained through calculation; temperature signals and humidity signals of the tested part are measured with the temperature and humidity sensor, and then are conditioned and inputted to the microprocessor; the LED array is controlled by a transmitter control circuit; light intensity signals measured by the photoelectric sensor are amplified and filtered, and then inputted to the microprocessor to obtain optical characteristics of the tissue; the microprocessor outputs the calculation result to the display unit for display, and the test data is saved in the storage unit at the same time; the monitoring instrument is characterized in that : the high-frequency electrodes employs a pair of parallel electrodes, and a matching inductor L is directly soldered to one of the electrodes; the distance between the positive electrode and the negative electrode of the low-frequency electrodes is 1cm∼2m; the vertical distance from the bottom of the temperature and humidity sensor to the bottom of the contact plate is 0.1mm∼20mm; the temperature and humidity sensor and the tested part of human body form an enclosed space, and slits or pores are arranged in the wall of the enclosed space to form a balanced heat and moisture storage structure.
A process for producing a frame or a frame portion for a ball-game racket comprising a head portion and a handle portion , wherein at least a part of the frame is configured as a hollow profile and comprises magnesium and wherein the wall thickness of the hollow profile varies along a cross-section through the hollow frame profile, wherein the process comprises the following steps: providing an injection mold and a core, wherein the core consists of a material having a melting temperature below 400°C; casting the frame or the frame portion by means of the thixo process by inserting a material comprising magnesium between the injection mold and the core; and melting the core by heating the frame or frame portion including the core to above the melting temperature of the core, wherein the heat resistance temperature of the frame or frame portion is not exceeded. providing an injection mold and a core, wherein the core consists of a material having a melting temperature below 400°C; casting the frame or the frame portion by means of the thixo process by inserting a material comprising magnesium between the injection mold and the core; and melting the core by heating the frame or frame portion including the core to above the melting temperature of the core, wherein the heat resistance temperature of the frame or frame portion is not exceeded.
An endodontic irrigation system comprising: a negative pressure irrigation needle including a closed distal end and two suction inlet ports located opposite one another immediately proximal to the closed distal end; and a suction manifold including a tube on one side arranged for connection to a dental vacuum system and a tube on another side arranged for connection to the negative pressure irrigation needle; and an irrigant inlet tube . a negative pressure irrigation needle including a closed distal end and two suction inlet ports located opposite one another immediately proximal to the closed distal end; and a suction manifold including a tube on one side arranged for connection to a dental vacuum system and a tube on another side arranged for connection to the negative pressure irrigation needle; and an irrigant inlet tube .
A structure comprising: a metal substrate ; an insulating layer disposed on the metal substrate, wherein the insulating layer comprises an insulator of glass, oxide glass, a ceramic-glass composite, or a combination thereof; and an electrically conductive layer disposed on the electrode layer; wherein the difference in the coefficient of thermal expansion between the metal substrate and the insulating layer is 4 parts per million per degree Kelvin change in temperature or less; characterized in that the electrically conductive layer is disposed on an electrode layer which is disposed on the insulating layer ; and in that the insulator is a mixture satisfying Equation 1: INS = aBaO + bSiO 2 + cAl 2 O 3 + dB 2 O 3 + eNiO + fCoO + g SrO , Cr 2 O 3 , Y 2 O 3 , Fe 2 O 3 , MgO , TiO 2 , ZrO 2 , or a combination thereof + h Li 2 O , Na 2 O , K 2 O , or a combination thereof ; wherein INS is a total weight of the insulator; 1.0 ≤ a/b ≤ 5.0; 0.1 % by weight ≤ e ≤ 3.0 % by weight; 0.1 % by weight ≤ f ≤ 3.0 % by weight; 0.1 % by weight ≤ g ≤ 30.0 % by weight; 0.1 % by weight ≤ h ≤ 2.2 % by weight; a+b+c+d+e+f+g+h is equal to 100 % by weight; and c+d is equal to 100 - a - b - e - f - g - h. a metal substrate ; an insulating layer disposed on the metal substrate, wherein the insulating layer comprises an insulator of glass, oxide glass, a ceramic-glass composite, or a combination thereof; and an electrically conductive layer disposed on the electrode layer; wherein the difference in the coefficient of thermal expansion between the metal substrate and the insulating layer is 4 parts per million per degree Kelvin change in temperature or less; characterized in that the electrically conductive layer is disposed on an electrode layer which is disposed on the insulating layer ; and in that the insulator is a mixture satisfying Equation 1: INS = aBaO + bSiO 2 + cAl 2 O 3 + dB 2 O 3 + eNiO + fCoO + g SrO , Cr 2 O 3 , Y 2 O 3 , Fe 2 O 3 , MgO , TiO 2 , ZrO 2 , or a combination thereof + h Li 2 O , Na 2 O , K 2 O , or a combination thereof ; wherein INS is a total weight of the insulator; 1.0 ≤ a/b ≤ 5.0; 0.1 % by weight ≤ e ≤ 3.0 % by weight; 0.1 % by weight ≤ f ≤ 3.0 % by weight; 0.1 % by weight ≤ g ≤ 30.0 % by weight; 0.1 % by weight ≤ h ≤ 2.2 % by weight; a+b+c+d+e+f+g+h is equal to 100 % by weight; and c+d is equal to 100 - a - b - e - f - g - h. wherein INS is a total weight of the insulator; 1.0 ≤ a/b ≤ 5.0; 0.1 % by weight ≤ e ≤ 3.0 % by weight; 0.1 % by weight ≤ f ≤ 3.0 % by weight; 0.1 % by weight ≤ g ≤ 30.0 % by weight; 0.1 % by weight ≤ h ≤ 2.2 % by weight; a+b+c+d+e+f+g+h is equal to 100 % by weight; and c+d is equal to 100 - a - b - e - f - g - h.
A dialysis system comprising: a dialysis machine configured to perform a dialysis treatment on a patient; a potassium sensing device configured to sense the concentration of potassium in at least one of (a) the patient's blood serum, and (b) spent dialysate resulting from treating the patient with the dialysis machine, the potassium sensing device further being configured to generate a value of the concentration of blood serum potassium; a control and computing unit comprising a processor, a memory, and an input device, the input device being configured for inputting a time-since-last-treatment value, the processor being configured to receive the blood serum potassium concentration value, compare the blood serum potassium concentration value with one or more values stored in the memory, to form a comparison, and to generate a control signal based on the comparison and the time-since-last-treatment value; and a potassium infusion circuit configured to infuse potassium solution into treatment dialysate, replacement fluid, or both, that is to be used by the dialysis machine, wherein the control and computing unit is in data transfer communication with the potassium infusion circuit, the control and computing unit is configured to send the control signal to the potassium infusion circuit, and the potassium infusion circuit is configured to receive the control signal and infuse potassium solution into the treatment dialysate, replacement fluid, or both, based on the control signal. a dialysis machine configured to perform a dialysis treatment on a patient; a potassium sensing device configured to sense the concentration of potassium in at least one of (a) the patient's blood serum, and (b) spent dialysate resulting from treating the patient with the dialysis machine, the potassium sensing device further being configured to generate a value of the concentration of blood serum potassium; a control and computing unit comprising a processor, a memory, and an input device, the input device being configured for inputting a time-since-last-treatment value, the processor being configured to receive the blood serum potassium concentration value, compare the blood serum potassium concentration value with one or more values stored in the memory, to form a comparison, and to generate a control signal based on the comparison and the time-since-last-treatment value; and a potassium infusion circuit configured to infuse potassium solution into treatment dialysate, replacement fluid, or both, that is to be used by the dialysis machine, wherein the control and computing unit is in data transfer communication with the potassium infusion circuit, the control and computing unit is configured to send the control signal to the potassium infusion circuit, and the potassium infusion circuit is configured to receive the control signal and infuse potassium solution into the treatment dialysate, replacement fluid, or both, based on the control signal.
A supporting device, in particular a garden tool supporting device, for at least one electrical unit of electrically driveable tools, in particular electrically driveable garden tools, comprising: at least one base plate to which said electrical unit is attachable; at least one receptacle unit in which said electrical unit is arrangeable; and at least one sealing unit to waterproof-seal said receptacle unit ; wherein said sealing unit comprises at least one sealing element which is arrangeable at said receptacle unit , wherein the base plate is embodied as a heat sink base plate, characterised in that the electrical unit comprises at least one electrical wire , which extends from an inside of the receptacle unit to an outside of the receptacle unit , wherein the sealing unit is provided to waterproof-seal a wire opening of the receptacle unit through which the electrical wire extends, wherein the sealing unit comprises at least one wire opening sealing element. at least one base plate to which said electrical unit is attachable; at least one receptacle unit in which said electrical unit is arrangeable; and at least one sealing unit to waterproof-seal said receptacle unit ; wherein said sealing unit comprises at least one sealing element which is arrangeable at said receptacle unit , wherein the base plate is embodied as a heat sink base plate, characterised in that the electrical unit comprises at least one electrical wire , which extends from an inside of the receptacle unit to an outside of the receptacle unit , wherein the sealing unit is provided to waterproof-seal a wire opening of the receptacle unit through which the electrical wire extends, wherein the sealing unit comprises at least one wire opening sealing element.
A biaxially oriented polypropylene film a capacitor in which a relationship between the storage elastic modulus E'23 at 23°C and the storage elastic modulus E' 125 at 125°C in the film width direction in solid viscoelasticity measurement satisfies the following expression: E ′ 125 / E ′ 23 > 0.2 , the storage elastic moduli are measured as described in the specification; and wherein the thermal shrinkage ratio in the film width direction in a heat treatment at 125°C for 15 minutes is 1% or less; and wherein the thickness of the film is 0.5 μm or more and less than 3 μm. the storage elastic moduli are measured as described in the specification; and wherein the thermal shrinkage ratio in the film width direction in a heat treatment at 125°C for 15 minutes is 1% or less; and wherein the thickness of the film is 0.5 μm or more and less than 3 μm.
Quick clamping device for a portable power tool, in particular angle grinder, which has at least one output shaft (12a; 12b; 12c; 12e; 12l) which can be driven in rotation, having at least one clamping unit (16a; 16b; 16c; 16d; 16e; 16f; 16g; 16h; 16h'; 16i; 16j; 16k; 16l; 16m; 16n) which, for tool-free fixing of an insert tool unit to the output shaft (12a; 12b; 12c; 12e; 121), has at least one movably mounted clamping element (20a, 22a; 20b, 22b; 20c, 22c) for exertion of a clamping force on the insert tool unit in a clamping position of the clamping element (20a, 22a; 20b, 22b; 20c, 22c), and having at least one operator control unit (24a; 24b; 24c; 24d; 24e; 24f; 24h; 24h'; 24i; 24j; 24k; 24l; 24n) for moving the clamping element (20a, 22a; 20b, 22b; 20c, 22c) into the clamping position and/or into a release position of the clamping element (20a, 22a; 20b, 22b; 20c, 22c), in which the insert tool unit can be removed from the clamping unit (16a; 16b; 16c; 16d; 16e; 16f; 16g; 16h; 16h'; 16i; 16j; 16k; 16l; 16m; 16n), characterized by at least one decoupling unit (26a; 26b; 26c; 26d; 26e; 26f; 26g; 26h; 26h'; 26i; 26j; 26k; 261; 26m; 26n) which is provided for decoupling the operator control unit (24a; 24b; 24c; 24d; 24e; 24f; 24h; 24h'; 24i; 24j; 24k; 24l; 24n) from the clamping unit (16a; 16b; 16c; 16d; 16e; 16f; 16g; 16h; 16h'; 16i; 16j; 16k; 16l; 16m; 16n) in a manner dependent on a rotational speed of the output shaft (12a; 12b; 12c; 12e; 121).
A method of processing a bitstream (P) comprising a plurality of content substreams , each representing an audio signal, the method including: from the bitstream, extracting one or more presentation data structures , each comprising a reference to a plurality of said content substreams, each presentation data structure further comprising a reference to loudness data and dynamic range compression (DRC) data included in a metadata substream , wherein said loudness data is dedicated to said presentation data structure and indicates what the loudness of the combination of the referenced plurality of content substreams will be when decoded, and wherein the DRC data includes multiple sets of one or more DRC gains, and corresponds to multiple DRC profiles; receiving data indicating a selected presentation data structure out of said one or more presentation data structures , and a desired loudness level; decoding the plurality of content substreams referenced by the selected presentation data structure ; and forming an output audio signal on the basis of the decoded content substreams , the method further including processing the decoded plurality of content substreams or the output audio signal on the basis of the loudness data referenced by the selected presentation data structure and at least one set of the multiple sets of one or more DRC gains to attain the desired loudness level. from the bitstream, extracting one or more presentation data structures , each comprising a reference to a plurality of said content substreams, each presentation data structure further comprising a reference to loudness data and dynamic range compression (DRC) data included in a metadata substream , wherein said loudness data is dedicated to said presentation data structure and indicates what the loudness of the combination of the referenced plurality of content substreams will be when decoded, and wherein the DRC data includes multiple sets of one or more DRC gains, and corresponds to multiple DRC profiles; receiving data indicating a selected presentation data structure out of said one or more presentation data structures , and a desired loudness level; decoding the plurality of content substreams referenced by the selected presentation data structure ; and forming an output audio signal on the basis of the decoded content substreams , the method further including processing the decoded plurality of content substreams or the output audio signal on the basis of the loudness data referenced by the selected presentation data structure and at least one set of the multiple sets of one or more DRC gains to attain the desired loudness level.