mhurhangee/ep-ind-claims huggingface dataset:
Device comprising an x-ray unit for producing x-ray recordings of an object, wherein the x-ray unit can be aligned with the object using an alignable positioning unit, furthermore an ultrasound unit is provided for producing ultrasound recordings of the object, wherein the ultrasound unit can be fastened with a coupling unit to the x-ray unit and aligned with the object, characterised in that when a predeterminable contact pressure of the ultrasound unit on the object to be examined is exceeded, the coupling unit becomes separated from the x-ray unit.
Calibration method for a gamma ray detector (3, 51) the gamma ray detector including a scintillator array for emitting scintillation photons at photo conversion positions in response to incident gamma rays and a photodetector array coupled thereto in light-sharing mode for determining a spatial intensity distribution of scintillation photons, said method comprising the steps of recording spatial intensity distributions of scintillation photons emitted by the scintillator array in response to multiple incident gamma rays; determining sets of coincidently emitted scintillation photons from the recorded spatial intensity distributions; determining for the sets of coincidently emitted scintillation photons center-of-gravity positions and cumulative energies; performing a clustering analysis based on the determined center-of-gravity positions and cumulative energies to obtain clusters (26a, 26b, 33) of gamma ray events attributed to a scintillator array element; cumulating for a cluster (26a, 26b, 33) the spatial intensity distributions to determine a cumulative spatial intensity distribution of scintillation photons emitted in response to incident gamma rays in the scintillator array element; and determining a light matrix including expected spatial intensity distributions of scintillation photons for different scintillator array elements based on the cumulative spatial intensity distributions.
An acoustic flowmeter comprising a flow tube including an inner elongate member in the flow tube to define at least one flow passage for the flowmeter, in which the inner elongate member is a flight within the flow tube or division of the flow tube, and two acoustic transducers (35, 36), characterised in that: the said two acoustic transducers (35, 36) are located axially spaced along the or each flow passage and are mounted on the said inner elongate core body.
An exhaust gas purification filter comprising: a honeycomb structure having porous ceramic partition walls separating and forming a plurality of cells (11, 11a, 11b) functioning as exhaust gas passages and extending from one end portion to the other end portion, plugging portions (13, 13a, 13b) disposed in one side open end portions of predetermined cells and in the other side open end portions of the other cells, and a surface trapping layer disposed on the surface of each of the cells (11, 11a, 11b) having open end portions on an exhaust gas inflow side of the honeycomb structure, wherein the partition walls have a thickness of 0.05 mm or more and 0.18 mm or less, the partition walls have a porosity of 35% or more and 50% or less, an average pore size of 10 μm or more and 18 μm or less, which is measured by mercury porosimetry, and the proportion of the volume of the pores having a size of twice the average pore size or more in the entire pore volume in a pore size distribution of the partition walls measured by mercury porosimetry is 5% or more and 40% or less, and the surface trapping layer has an average pore size of 0.1 μm or more and 4 μm or less, a porosity of 50% or more and 80% or less, and a thickness of 5 μm or more and 50 μm or less. a honeycomb structure having porous ceramic partition walls separating and forming a plurality of cells (11, 11a, 11b) functioning as exhaust gas passages and extending from one end portion to the other end portion, plugging portions (13, 13a, 13b) disposed in one side open end portions of predetermined cells and in the other side open end portions of the other cells, and a surface trapping layer disposed on the surface of each of the cells (11, 11a, 11b) having open end portions on an exhaust gas inflow side of the honeycomb structure, wherein the partition walls have a thickness of 0.05 mm or more and 0.18 mm or less, the partition walls have a porosity of 35% or more and 50% or less, an average pore size of 10 μm or more and 18 μm or less, which is measured by mercury porosimetry, and the proportion of the volume of the pores having a size of twice the average pore size or more in the entire pore volume in a pore size distribution of the partition walls measured by mercury porosimetry is 5% or more and 40% or less, and the surface trapping layer has an average pore size of 0.1 μm or more and 4 μm or less, a porosity of 50% or more and 80% or less, and a thickness of 5 μm or more and 50 μm or less.
A vehicular braking/driving-force control apparatus comprising: an accelerator operation detection part configured to detect an accelerator operation; a driving-force limiting apparatus configured to carry out driving-force limiting control of limiting driving force of an own vehicle in such a manner that an upper-limit speed that is set will not be exceeded; and an automatic braking control apparatus configured to carry out automatic braking control of automatically generating braking force in the own vehicle based on a relative distance or a relative speed between an obstacle in front of the own vehicle and the own vehicle, and have a cancelation function of inhibiting a start of the automatic braking control based on the accelerator operation; characterized by a control part configured to inhibit the cancelation function from being executed when the driving-force limiting apparatus is in an activated state where the driving-force limiting apparatus can carry out the driving-force limiting control. an accelerator operation detection part configured to detect an accelerator operation; a driving-force limiting apparatus configured to carry out driving-force limiting control of limiting driving force of an own vehicle in such a manner that an upper-limit speed that is set will not be exceeded; and an automatic braking control apparatus configured to carry out automatic braking control of automatically generating braking force in the own vehicle based on a relative distance or a relative speed between an obstacle in front of the own vehicle and the own vehicle, and have a cancelation function of inhibiting a start of the automatic braking control based on the accelerator operation; characterized by a control part configured to inhibit the cancelation function from being executed when the driving-force limiting apparatus is in an activated state where the driving-force limiting apparatus can carry out the driving-force limiting control.
An assembly comprising at least two devices and a floating device having a work deck for connecting a hollow tubular structure in erected state to the work deck, which hollow tubular structure extends in a longitudinal direction and defines a radial direction running perpendicularly of a peripheral wall of the hollow tubular structure, each device comprising two clamping parts (3, 4), a guide configured to run in the installed state in the radial direction of the hollow tubular structure when the hollow tubular structure is connected to the work deck, and the guide is further configured to connect the clamping parts (3, 4) to the work deck, and each device further comprising clamping means (37, 47, 38, 39) for shifting the clamping parts (3, 4) toward each other over the guide in the radial direction from an open position into a clamping position, in which a wall part of the structure is clamped between the clamping parts (3, 4), wherein in the clamping position the clamping parts (3, 4) can collectively be moved freely over the guide in the radial direction, wherein the at least two devices of the assembly are connected on the work deck of the floating device along the periphery of a cross-section of the hollow tubular structure when the hollow tubular structure is connected to the work deck, which allows clamping wall parts of the same hollow tubular structure in erected state in the radial direction, and the assembly further comprises support elements supported by the work deck for supporting a lower edge of the tubular structure.
An implant configured for treatment of a pelvic disorder, the implant comprising - a biodegradable polymeric mesh structure, wherein the mesh structure has a plurality of interwoven fibers (12a, 12b, 12c, 12d, 12e), the plurality of interwoven fibers (12a, 12b, 12c, 12d, 12e) including a biodegradable polymer, and - a plurality of extracellular matrix particles disposed within at least one fiber of the plurality of interwoven fibers (12a, 12b, 12c, 12d, 12e), wherein the biodegradable polymer of the at least one fiber (12a, 12b, 12c, 12d, 12e) is configured to operate as a timed-release mechanism for the plurality of ECM particles, wherein the at least one fiber has a coating of ECM particles that are adhered to the outer surface of the fiber by a binder, wherein the implant is a stent, a urethral sling, a urethral stent, a penile implant or a pouch. - a biodegradable polymeric mesh structure, wherein the mesh structure has a plurality of interwoven fibers (12a, 12b, 12c, 12d, 12e), the plurality of interwoven fibers (12a, 12b, 12c, 12d, 12e) including a biodegradable polymer, and - a plurality of extracellular matrix particles disposed within at least one fiber of the plurality of interwoven fibers (12a, 12b, 12c, 12d, 12e),
A system on a chip, SoC, configured to communicate with a host system, the SoC comprising: a plurality of processing cores, wherein each processing core is reconfigurable to function as part of a network compute subsystem of the SoC or as part of a server compute subsystem of the SoC, wherein the server compute subsystem is configured to provide compute services for offloading some of the work load of the host system and the network compute subsystem is configured for managing network traffic for the host system and the server compute subsystem; and a management compute subsystem configured for managing resources for the server compute subsystem and for the network compute subsystem. a plurality of processing cores, wherein each processing core is reconfigurable to function as part of a network compute subsystem of the SoC or as part of a server compute subsystem of the SoC, wherein the server compute subsystem is configured to provide compute services for offloading some of the work load of the host system and the network compute subsystem is configured for managing network traffic for the host system and the server compute subsystem; and a management compute subsystem configured for managing resources for the server compute subsystem and for the network compute subsystem.
A method of selecting a stored position of a working point of a manipulator, in particular of a robot, from a group of stored positions, the method comprising the steps of: detecting a current spatial position of a reference point (2.1); and determining differences (a) between the detected spatial position and stored positions of the working points of the group; characterised by the steps of: selecting at least one of the stored positions the difference of which from the detected spatial position is less than, or equal to, a predetermined threshold value; and displaying at least one of the selected positions by highlighting the program line in which this position is addressed, in a graphically represented manipulator program. detecting a current spatial position of a reference point (2.1); and determining differences (a) between the detected spatial position and stored positions of the working points of the group; characterised by the steps of: selecting at least one of the stored positions the difference of which from the detected spatial position is less than, or equal to, a predetermined threshold value; and displaying at least one of the selected positions by highlighting the program line in which this position is addressed, in a graphically represented manipulator program. selecting at least one of the stored positions the difference of which from the detected spatial position is less than, or equal to, a predetermined threshold value; and displaying at least one of the selected positions by highlighting the program line in which this position is addressed, in a graphically represented manipulator program.
A method for performing a Fast Fourier Transformation, the method comprising: receiving a first input at a first radix kernel of the FFT comprising signed binary integers, the signed binary integers of the first input each representing a component of a complex number associated with a time domain signal and having a bit width; applying a fixed left shift to the signed binary integers of the first input; performing a first radix kernel operation on the shifted first input at a bit resolution higher than the bit width; applying a fixed right shift to signed binary integers of an output of a butterfly of the first radix kernel operation which are mapped to the bit width to provide a first output of the first stage of the FFT; determining a leading bit count of signed binary integers in the first output; receiving the first output at a second radix kernel of the FFT which is a second input to the second radix kernel; applying an adaptive left shift to signed binary integers of the second input based on the leading bit count; performing a second radix kernel operation on the shifted second input at the bit resolution higher than the bit width; and applying an adaptive right shift based on the leading bit count to signed binary integers of an output of a butterfly of the second radix kernel operation which are mapped to the bit width to provide a second output of the second stage of the FFT; wherein the adaptive left shift and adaptive right shift determines the bit resolution of the FFT. receiving a first input at a first radix kernel of the FFT comprising signed binary integers, the signed binary integers of the first input each representing a component of a complex number associated with a time domain signal and having a bit width; applying a fixed left shift to the signed binary integers of the first input; performing a first radix kernel operation on the shifted first input at a bit resolution higher than the bit width; applying a fixed right shift to signed binary integers of an output of a butterfly of the first radix kernel operation which are mapped to the bit width to provide a first output of the first stage of the FFT; determining a leading bit count of signed binary integers in the first output; receiving the first output at a second radix kernel of the FFT which is a second input to the second radix kernel; applying an adaptive left shift to signed binary integers of the second input based on the leading bit count; performing a second radix kernel operation on the shifted second input at the bit resolution higher than the bit width; and applying an adaptive right shift based on the leading bit count to signed binary integers of an output of a butterfly of the second radix kernel operation which are mapped to the bit width to provide a second output of the second stage of the FFT; wherein the adaptive left shift and adaptive right shift determines the bit resolution of the FFT.
A method performed by one or more computers, the method comprising: obtaining an input sequence, the input sequence comprising a sequence of words in a first language; processing the input sequence using a first long short term memory (LSTM) neural network to convert the input sequence into an alternative representation for the input sequence; and processing the alternative representation for the input sequence using a second LSTM neural network to generate a target sequence for the input sequence, the target sequence comprising a plurality of outputs arranged according to an output order, the plurality of outputs providing a translation of the sequence of words into a second language; wherein processing the alternative representation for the input sequence using the second LSTM neural network comprises: processing the alternative representation using the second LSTM neural network only once by initializing a hidden state of the second LSTM neural network to the alternative representation for the input sequence; and updating the hidden state based upon a selected candidate output and the current hidden state. obtaining an input sequence, the input sequence comprising a sequence of words in a first language; processing the input sequence using a first long short term memory (LSTM) neural network to convert the input sequence into an alternative representation for the input sequence; and processing the alternative representation for the input sequence using a second LSTM neural network to generate a target sequence for the input sequence, the target sequence comprising a plurality of outputs arranged according to an output order, the plurality of outputs providing a translation of the sequence of words into a second language; processing the alternative representation using the second LSTM neural network only once by initializing a hidden state of the second LSTM neural network to the alternative representation for the input sequence; and updating the hidden state based upon a selected candidate output and the current hidden state.
A process for the preparation of a flocked material starting from sea-island bicomponent fibres, comprising the steps of: • spinning a bicomponent fibre of the "island-in-the-sea" type; • cutting the fibre to a length ranging between 0.1 mm and 3 mm, preferably between 0.3 and 1.25 mm; • optionally, dyeing the fibres with colouring agents; • activating the fibre by application of an aqueous solution comprising inorganic salts; • applying an adhesive agent onto a backing layer, preferably made of fabric or non-woven fabric; • laying the cut fibre on the backing layer coated with the adhesive agent by means of electrostatic deposition, which correctly orients the fibres; • drying and optionally reticulating the adhesive agent; • optionally, removing excess fibres; • optionally, applying a layer of a removable resin at the base of the fibres to protect the fibre base; • selectively and partially removing the sea component of the fibres by applying a removal agent that has a viscosity ranging between 300 mPa.s and 100.000 mPa.s, preferably between 400 and 64.000 mPa.s; • optionally, proceeding with dyeing the flocked material. • spinning a bicomponent fibre of the "island-in-the-sea" type; • cutting the fibre to a length ranging between 0.1 mm and 3 mm, preferably between 0.3 and 1.25 mm; • optionally, dyeing the fibres with colouring agents; • activating the fibre by application of an aqueous solution comprising inorganic salts; • applying an adhesive agent onto a backing layer, preferably made of fabric or non-woven fabric; • laying the cut fibre on the backing layer coated with the adhesive agent by means of electrostatic deposition, which correctly orients the fibres; • drying and optionally reticulating the adhesive agent; • optionally, removing excess fibres; • optionally, applying a layer of a removable resin at the base of the fibres to protect the fibre base; • selectively and partially removing the sea component of the fibres by applying a removal agent that has a viscosity ranging between 300 mPa.s and 100.000 mPa.s, preferably between 400 and 64.000 mPa.s; • optionally, proceeding with dyeing the flocked material.
A method for discovering neighboring network nodes by a network node connected to a configuration server, wherein said configuration server compares geographical coordinates of the network node with geographical coordinates of other network nodes stored in a data base and transmits a set of identifiers of matching neighboring network nodes to said network node.
A quadrature signal generator (100, 200, 300, 400, 500, 600) comprising a resistor-capacitor, RC, polyphase filter (102, 202, 302, 402, 502, 602) having a first and a second input terminal (104, 204, 304, 404, 504, 604), and a first, a second, a third and a fourth output terminal (106, 206, 306, 406, 506, 606), and the RC polyphase filter (102, 202, 302, 402, 502, 602) comprises a plurality of cascade-connected stages of RC units, each of the RC units having a resistive element and a capacitive element, and a first end of each resistive element being set as an input, and a second end of each resistive element being set as an output for the respective stage and wherein the capacitive element of each RC unit is connected between the second end of the resistive element of that RC unit and the first end of the resistive element of a next one of the RC units, and the capacitive element of a last one of the RC units is connected between the second end of the resistive element of the last one of the RC units of the stage and the first end of the resistive element of a first one of the RC units of the stage, and wherein the plurality of cascade-connected stages comprises an input stage connected to the first and second input terminals (104, 204, 304, 404, 504, 604) and an output stage connected to the first, second, third and fourth output terminals (106, 206, 306, 406, 506, 606); and an inductor compensation arrangement (308, 408, 508, 608) connected at the output terminals (106, 206, 306, 406, 506, 606), the inductor compensation arrangement (308, 408, 508, 608) comprising a first inductor (310, 410, 510, 610) connected between the first and the third output terminals, and a second inductor (312, 412, 512, 612) connected between the second and fourth output terminals; and wherein the first and second inductors (310, 312; 410, 412; 510, 512; 610, 612) of the inductor compensation arrangement (308, 408, 508, 608) are arranged to compensate for a capacitive load (314, 414, 514, 614), at an operating frequency, such that there is provided only resistive impedance at the first, second, third and fourth output terminals (306, 406, 506, 606) by resonating with the capacitive elements of the RC polyphase filter and the capacitive load; and the first input terminal is arranged to receive a first polarity of a signal, the second input terminal is arranged to receive a second polarity of the signal, the first output terminal is arranged to output a first polarity of an in-phase version of the signal, the second output terminal is arranged to output a first polarity of a quadrature-phase version of the signal, the third output terminal is arranged to output a second polarity of the in-phase version of the signal, and the fourth output terminal is arranged to output a second polarity of the quadrature-phase version of the signal.
A process for removing hydrogen from a dry gas comprising hydrogen as an impurity, said process comprising passing said dry gas at a temperature from about 0°C to about 60°C through at least one layer of a first hopcalite catalyst to produce product gas that is at least substantially free of hydrogen, wherein said first hopcalite catalyst has a molar ratio of copper to manganese in a range from more than 0.55 to 7, and wherein said dry gas is passed through at least one layer of a second hopcalite catalyst upstream of said layer(s) of said first hopcalite catalyst, wherein said second hopcalite catalyst has a molar ratio of copper to manganese of no more than 0.55.