mhurhangee/ep-ind-claims huggingface dataset:
Waveguide coupling for coupling an electromagnetic signal from a high-frequency module into a waveguide (104, 105), the waveguide coupling comprising: a planar radiator element for emitting the signal; a carrier on which the planar radiator element is positioned; a housing (106, 107, 108) with a waveguide (104, 105) configured for transmitting the emitted signal from a volume defined by a start region of the waveguide along a volume defined by a main region of the waveguide; a dielectric sealing element positioned in the waveguide; wherein the planar radiator element is positioned in or immediately in front of the start region; wherein the internal diameter of the start region of the waveguide in the transition region to the main region of the waveguide is the same as an internal diameter of the main region, and becomes steadily or incrementally larger towards the planar radiator element, characterised in that the housing is connected gas tightly to the carrier such that the interior of the start region is sealed gas tightly from the environment. a planar radiator element for emitting the signal; a carrier on which the planar radiator element is positioned; a housing (106, 107, 108) with a waveguide (104, 105) configured for transmitting the emitted signal from a volume defined by a start region of the waveguide along a volume defined by a main region of the waveguide; a dielectric sealing element positioned in the waveguide; wherein the planar radiator element is positioned in or immediately in front of the start region; wherein the internal diameter of the start region of the waveguide in the transition region to the main region of the waveguide is the same as an internal diameter of the main region, and becomes steadily or incrementally larger towards the planar radiator element, characterised in that the housing is connected gas tightly to the carrier such that the interior of the start region is sealed gas tightly from the environment.
A data conversion apparatus that encrypts data by a block encryption algorithm operation using multi-bit input data and a multi-bit first key, the data conversion apparatus comprising: a first storage part (105, 115) adapted to store the multi-bit input data and output the multi-bit input data one bit at a time; a second storage part (106, 116) adapted to store the multi-bit first key and output the multi-bit first key one bit at a time; and a first serial operation part (107, 117) adapted to, every time one bit of the multi-bit input data is outputted from the first storage part (105, 115) and one bit of the multi-bit first key is outputted from the second storage part (106, 116), perform an operation on the one bit outputted from the first storage part and the one bit outputted from the second storage part; wherein the data conversion apparatus is adapted to input an operation result of an operation performed by the first serial operation part in the first storage part; wherein the data conversion apparatus further comprises: a third storage part adapted to store a multi-bit second key and output the multi-bit second key one bit at a time; wherein the data conversion apparatus is adapted to input a bit outputted from the third storage part in the second storage part; and wherein the data conversion apparatus further comprises: a second serial operation part adapted to, every time one bit is outputted from the first storage part and one bit of the multi-bit second key is outputted from the second storage part, perform an operation on the one bit outputted from the first storage part and the one bit outputted from the second storage part. a first storage part (105, 115) adapted to store the multi-bit input data and output the multi-bit input data one bit at a time; a second storage part (106, 116) adapted to store the multi-bit first key and output the multi-bit first key one bit at a time; and a first serial operation part (107, 117) adapted to, every time one bit of the multi-bit input data is outputted from the first storage part (105, 115) and one bit of the multi-bit first key is outputted from the second storage part (106, 116), perform an operation on the one bit outputted from the first storage part and the one bit outputted from the second storage part; wherein the data conversion apparatus is adapted to input an operation result of an operation performed by the first serial operation part in the first storage part; wherein the data conversion apparatus further comprises: a third storage part adapted to store a multi-bit second key and output the multi-bit second key one bit at a time; wherein the data conversion apparatus is adapted to input a bit outputted from the third storage part in the second storage part; and wherein the data conversion apparatus further comprises: a second serial operation part adapted to, every time one bit is outputted from the first storage part and one bit of the multi-bit second key is outputted from the second storage part, perform an operation on the one bit outputted from the first storage part and the one bit outputted from the second storage part.
A plastic container for containing a dental adhesive composition that contains a polymerizable monomer and a polymerization initiator; said plastic container including a container body of a hollow cylindrical shape, an ejection nozzle provided at an end of said container body on one side thereof and a cap detachably fitted to the ejection nozzle, and having a structure in which a knock-button type piston member comprising a knock button is fitted in said container body from an end on the other side thereof in a manner that the knock-button type piston member can be depressed, and the composition contained in said container body is discharged through said ejection nozzle as said piston member is depressed; wherein said body wall has a double-wall structure including an inner circumferential wall and an outer circumferential wall, and forming a heat-insulating space that is a pneumatic layer between the inner circumferential wall and the outer circumferential wall; wherein said outer circumferential wall is at least partly thicker than said inner circumferential wall; and wherein the inner circumferential wall has an oxygen permeability in a range of 10 to 500 cc/m 2 ·day·atm in a portion of the container body where the composition is contained.
An ECG signal parallel analysis apparatus, wherein the apparatus comprises an integrated memory, a CPU and a GPU, the CPU is configured for performing primary noise reduction processing on a received ECG original signal to obtain a primary ECG signal, and configured for performing abnormal heartbeat classification preliminary screening on characteristic data extracted by the GPU to obtain suspected abnormal heartbeat data; and the GPU is configured for performing characteristic extraction on the primary ECG signal to obtain the characteristic data, and configured for performing secondary noise reduction processing on the primary ECG signal to obtain a secondary ECG signal, and processing the suspected abnormal heartbeat data and the secondary ECG signal by using a template matching classification mode, to obtain final abnormal heartbeat data, characterized in that: the apparatus is a mobile terminal comprising all of the integrated memory, the CPU and the GPU, and the integrated memory comprises a first memory configured for being used by the CPU and a second memory configured for being used by the GPU, wherein the CPU is configured to be able to access also the second memory, and the CPU and the GPU are thus configured to transmit data via the integrated memory. the CPU is configured for performing primary noise reduction processing on a received ECG original signal to obtain a primary ECG signal, and configured for performing abnormal heartbeat classification preliminary screening on characteristic data extracted by the GPU to obtain suspected abnormal heartbeat data; and the GPU is configured for performing characteristic extraction on the primary ECG signal to obtain the characteristic data, and configured for performing secondary noise reduction processing on the primary ECG signal to obtain a secondary ECG signal, and processing the suspected abnormal heartbeat data and the secondary ECG signal by using a template matching classification mode, to obtain final abnormal heartbeat data, characterized in that: the apparatus is a mobile terminal comprising all of the integrated memory, the CPU and the GPU, and the integrated memory comprises a first memory configured for being used by the CPU and a second memory configured for being used by the GPU, wherein the CPU is configured to be able to access also the second memory, and the CPU and the GPU are thus configured to transmit data via the integrated memory. the apparatus is a mobile terminal comprising all of the integrated memory, the CPU and the GPU, and the integrated memory comprises a first memory configured for being used by the CPU and a second memory configured for being used by the GPU, wherein the CPU is configured to be able to access also the second memory, and the CPU and the GPU are thus configured to transmit data via the integrated memory.
A display apparatus comprising: a display panel configured to display an image based on an image signal; and a power supply configured to supply electrical power to the display panel, wherein the power supply comprises: a circuit board; and a power input connector mounted on the circuit board to detachably connect with an output connector to supply input AC power, characterised in that the power input connector comprises: a first arm; and a second arm extending in a plane direction of the circuit board, wherein each of the first and second arms comprises: a front portion; and a rear portion, which is provided at a same side of the power input connector as the front portion and extends from the front portion, the front and rear portions having a front connector fastening hole and a rear connector fastening hole, respectively, and wherein the circuit board has front board fastening holes and rear board fastening holes in which front fasteners and rear fasteners are inserted through the front connector fastening holes and the rear connector fastening holes of the first and second arms, respectively. a display panel configured to display an image based on an image signal; and a power supply configured to supply electrical power to the display panel, wherein the power supply comprises: a circuit board; and a power input connector mounted on the circuit board to detachably connect with an output connector to supply input AC power, characterised in that the power input connector comprises: a first arm; and a second arm extending in a plane direction of the circuit board, a circuit board; and a power input connector mounted on the circuit board to detachably connect with an output connector to supply input AC power, characterised in that the power input connector comprises: a first arm; and a second arm extending in a plane direction of the circuit board, a first arm; and a second arm extending in a plane direction of the circuit board, wherein each of the first and second arms comprises: a front portion; and a rear portion, which is provided at a same side of the power input connector as the front portion and extends from the front portion, the front and rear portions having a front connector fastening hole and a rear connector fastening hole, respectively, and a front portion; and a rear portion, which is provided at a same side of the power input connector as the front portion and extends from the front portion, the front and rear portions having a front connector fastening hole and a rear connector fastening hole, respectively, and wherein the circuit board has front board fastening holes and rear board fastening holes in which front fasteners and rear fasteners are inserted through the front connector fastening holes and the rear connector fastening holes of the first and second arms, respectively.
An information sending method for narrow band-internet of things, NB-IoT, system, wherein the method comprises: determining, by a base station, first information indicating a first carrier frequency offset, wherein the first carrier frequency offset is a downlink carrier frequency offset between an NB-IoT cell downlink carrier center frequency and a cell downlink carrier center frequency that is obtained by a terminal; and sending, by the base station, the first information to the terminal, wherein the first information is used to obtain the NB-IoT cell downlink carrier center frequency. determining, by a base station, first information indicating a first carrier frequency offset, wherein the first carrier frequency offset is a downlink carrier frequency offset between an NB-IoT cell downlink carrier center frequency and a cell downlink carrier center frequency that is obtained by a terminal; and sending, by the base station, the first information to the terminal, wherein the first information is used to obtain the NB-IoT cell downlink carrier center frequency.
Method for aligning a line laser, wherein at least one body, which reflects radiation at its surface (3, 4) and has a beam trap which absorbs radiation, the beam trap being formed as a slit-shaped depression, and a line laser are positioned in relation to one another, wherein the line laser and/or the body are aligned such that the radiation of the line laser is absorbed in the beam trap of the body.
A method of producing butyric acid, comprising: fermenting a feedstock with at least one strain of Clostridium to produce butyric acid, wherein the feedstock comprises lactic acid and at least one carbohydrate, and wherein the ratio of lactic acid to the at least one carbohydrate is from 1 to 10. fermenting a feedstock with at least one strain of Clostridium to produce butyric acid, wherein the feedstock comprises lactic acid and at least one carbohydrate, and wherein the ratio of lactic acid to the at least one carbohydrate is from 1 to 10.
An electrode for a secondary cell, comprising a current collector and an electrode layer disposed upon a surface of the current collector, in which the electrode layer has a gas flow passage disposed on a surface and/or in an interior of the electrode layer; the gas flow passage extends in an in-plane direction of the electrode layer; and the electrode layer is made from an electrode layer forming material that contains an electrode active material and an ion conductive liquid, characterized in that the electrode layer is a non-bonded body, and a ratio of a size of the gas flow passage in the in-plane direction of the electrode layer to a thickness of the electrode layer is 0.32 or less, wherein the size of the gas flow passage in the in-plane direction corresponds to the horizontal width of the gas flow passage.
An in vitro method for separating free sulfated glycosaminoglycans (GAGs) and the fraction associated with sulfated GAGs from a sample, which comprises: a) contacting a sample with the dimethylmethylene blue dye at an acidic pH comprised between 2 and 6.9; b) incubating the mixture from a) at a temperature comprised between 0°C and 40°C for the time required for the formation of a precipitate; c) removing the supernatant; and d) recovering the precipitate containing free sulfated GAGs and the fraction associated with sulfated GAGs, wherein the fraction associated with sulfated GAGs is a fraction containing exosomes. a) contacting a sample with the dimethylmethylene blue dye at an acidic pH comprised between 2 and 6.9; b) incubating the mixture from a) at a temperature comprised between 0°C and 40°C for the time required for the formation of a precipitate; c) removing the supernatant; and d) recovering the precipitate containing free sulfated GAGs and the fraction associated with sulfated GAGs, wherein the fraction associated with sulfated GAGs is a fraction containing exosomes.
A rolling device for shifting a point blade, which has a sole plate mounted directly or indirectly via a highly elastic intermediate plate on a sleeper or a slab track, on which sole plate a stock rail is fastened and also a slide chair and a guide frame accommodating at least one roller (7a, 7b) are arranged, wherein the blade base of the point blade rests both on the slide chair and, at least when adjusting the point blade, on the roller (7a, 7b), characterized in that the sole plate is constructed with a longitudinal-side recess ending in front of the slide chair, into which longitudinal-side recess the guide frame can be inserted running laterally adjacently to the slide chair and flush at the bottom with the sole plate, wherein the guide frame is connected to the sole plate in a detachable manner by means of elastic means such that the sole plate can move vertically relatively to the guide frame.
A portable vest for the application of pulmonary therapy, comprising a plurality of electrically activated individual vibratory elements to be arranged on the patient's chest, wherein the vibratory elements are electrodes for electrostimulation configured for being activated in an intermittent manner such that a vibratory effect is induced on the patient's chest; characterized in that it further comprises: a breathing detection sensor configured for identifying the expiratory phase; an actuation subsystem configured for controlling the plurality of electrically activated individual vibratory elements, and processing means configured for controlling the actuation subsystem such that the individual vibratory elements are only activated during said expiratory phase, and in that said individual vibratory elements are divided into simultaneously activated groups (G ijk) distributed according to the lower-upper and/or back-front directions, wherein the simultaneously activated groups (G ijk) are selectively actuated such that the vibration is applied at the beginning of the expiratory phase in the simultaneously activated lower and/or back groups and progressively moves towards the simultaneously activated upper and/or front groups while the expiratory phase lasts. a breathing detection sensor configured for identifying the expiratory phase; an actuation subsystem configured for controlling the plurality of electrically activated individual vibratory elements, and processing means configured for controlling the actuation subsystem such that the individual vibratory elements are only activated during said expiratory phase, and in that said individual vibratory elements are divided into simultaneously activated groups (G ijk) distributed according to the lower-upper and/or back-front directions, wherein the simultaneously activated groups (G ijk) are selectively actuated such that the vibration is applied at the beginning of the expiratory phase in the simultaneously activated lower and/or back groups and progressively moves towards the simultaneously activated upper and/or front groups while the expiratory phase lasts.
A method comprising: accessing, using circuitry, a key secret for a blockchain stored in a memory; the method being characterized by: determining, with the circuitry, to rewrite original data in a selected block of the blockchain with altered data that is different than the original data previously stored in the selected block; determining, with the circuitry and using the key secret, collision data including the altered data, the collision data being different from the original data and coding-consistent with a previously determined integrity output stored within a specific block of the blockchain that follows the selected block, the previously determined integrity output generated responsive to and coding-consistent with the original data; and rewriting, with the circuitry, the selected block with the collision data. accessing, using circuitry, a key secret for a blockchain stored in a memory; the method being characterized by: determining, with the circuitry, to rewrite original data in a selected block of the blockchain with altered data that is different than the original data previously stored in the selected block; determining, with the circuitry and using the key secret, collision data including the altered data, the collision data being different from the original data and coding-consistent with a previously determined integrity output stored within a specific block of the blockchain that follows the selected block, the previously determined integrity output generated responsive to and coding-consistent with the original data; and rewriting, with the circuitry, the selected block with the collision data. determining, with the circuitry, to rewrite original data in a selected block of the blockchain with altered data that is different than the original data previously stored in the selected block; determining, with the circuitry and using the key secret, collision data including the altered data, the collision data being different from the original data and coding-consistent with a previously determined integrity output stored within a specific block of the blockchain that follows the selected block, the previously determined integrity output generated responsive to and coding-consistent with the original data; and rewriting, with the circuitry, the selected block with the collision data.
Heat conduction plate consisting of a plurality of metal layers, wherein two steel layers are arranged on either side of a layer that contains aluminium, comprising a first annular region (50, 52, 54, 56, 58, 150, 152, 154) that forms a flat surface, runs with an underside in a bearing plane and is designed to rest on a heating device during operation; a second annular, conical or truncated pyramid-shaped region (60, 62, 64, 66, 68, 160, 162, 164) that is encompassed by the first annular region (50, 52, 54, 56, 58, 150, 152, 154) and rises at a first gradient towards the centre; and a third region (70, 72, 74, 76, 78, 170, 172, 174) that is encompassed by the second conical or truncated pyramid-shaped region (60, 62, 64, 66, 68, 160, 162, 164) and whose gradient towards the centre of a vessel is less at all points than the first gradient; characterised in that the first, second and third regions have a constant thickness, and that a distance of the third region at the transition to the second annular region of the bearing plane at room temperature is between 0.2 mm and 0.8 mm. a second annular, conical or truncated pyramid-shaped region (60, 62, 64, 66, 68, 160, 162, 164) that is encompassed by the first annular region (50, 52, 54, 56, 58, 150, 152, 154) and rises at a first gradient towards the centre; and a third region (70, 72, 74, 76, 78, 170, 172, 174) that is encompassed by the second conical or truncated pyramid-shaped region (60, 62, 64, 66, 68, 160, 162, 164) and whose gradient towards the centre of a vessel is less at all points than the first gradient; characterised in that the first, second and third regions have a constant thickness, and that a distance of the third region at the transition to the second annular region of the bearing plane at room temperature is between 0.2 mm and 0.8 mm.