mhurhangee/patent-ind-claim-en huggingface dataset:
A signal processing device comprising: an input information acquisition unit configured to acquire input information input through a touch operation performed by a user; a feedback control unit configured to output mutually different kinds of feedback control in accordance with a kind of the input information continuously acquired in response to movement of a position touched through the touch operation; and further comprising an operation speed calculation unit configured to calculate an operation speed at which the position touched through the touch operation moves, wherein the feedback control unit changes output of the feedback control in accordance with the operation speed calculated by the operation speed calculation unit , wherein the feedback control unit outputs first feedback control in a case where the kind of the input information is a first kind, and outputs second feedback control in a case where the kind of the input information is a second kind that is input at a frequency lower than a frequency of the first kind, characterized in that in a case where the operation speed calculated by the operation speed calculation unit is equal to or higher than a predetermined threshold speed, the feedback control unit performs a change to stop outputting of the first feedback control so that only the second feedback control is output. an input information acquisition unit configured to acquire input information input through a touch operation performed by a user; a feedback control unit configured to output mutually different kinds of feedback control in accordance with a kind of the input information continuously acquired in response to movement of a position touched through the touch operation; and further comprising an operation speed calculation unit configured to calculate an operation speed at which the position touched through the touch operation moves, wherein the feedback control unit changes output of the feedback control in accordance with the operation speed calculated by the operation speed calculation unit , wherein the feedback control unit outputs first feedback control in a case where the kind of the input information is a first kind, and outputs second feedback control in a case where the kind of the input information is a second kind that is input at a frequency lower than a frequency of the first kind, characterized in that in a case where the operation speed calculated by the operation speed calculation unit is equal to or higher than a predetermined threshold speed, the feedback control unit performs a change to stop outputting of the first feedback control so that only the second feedback control is output.
Permanent magnet system comprising a magnet arrangement (1; 1'; 1"; 1 ′′′; 1ʺʺ) which is constructed in a ring around a z-axis for generating a homogeneous magnetic field in a direction perpendicular to the z-axis in a measuring volume (0; 0'; 0"; 0′′′; 0ʺʺ) within the ring-shaped magnet arrangement (1; 1'; 1"; 1′′′; 1ʺʺ), which arrangement comprises at least one ring-shaped magnet element (2; 2a'; 2b'; 2"; 2′′′; 2"") having magnetic material in a ring plane, comprising a number n of individual magnet segments (3; 3a', 3b'; 3"; 3′′′; 3"") in a Halbach configuration, which are arranged adjacently to one another and in each case having surface contact, which magnet segments have changing magnetization directions in rotation about the ring-shaped magnet element (2; 2a', 2b'; 2"; 2′′′; 2""), according to the rules of a Halbach arrangement, and together generate a magnetic dipole field in the ring plane of the ring-shaped magnet arrangement (1; 1'; 1"; 1 ′′′; 1ʺʺ), and which have the same polyhedral geometry and an identical, convex, regular polygonal cross section in the ring plane in each case, characterized in that the magnet segments (3; 3a', 3b'; 3"; 3′′′; 3"") each have an identical, convex, regularly pentagonal or heptagonal cross section in the ring plane.
A negative current collector, wherein the negative current collector comprises a support layer and a metal conductive layer that is disposed on at least one of two opposite surfaces of the support layer in a thickness direction of the support layer; a density of the support layer is less than a density of the metal conductive layer; the density of the metal conductive layer is 8.0g/cm 3 to 8.96g/cm 3 ; a thickness D 1 of the metal conductive layer is 300nm≤D 1 ≤2μm; and when a tensile strain of the negative current collector is 2.5%, a sheet resistance growth rate T of the metal conductive layer is T≤5% wherein the methods for measuring the density of the metal conductive layer, the tensile strain of the negative current collector and the sheet resistance growth rate T of the metal conductive layer is defined in the description. a density of the support layer is less than a density of the metal conductive layer; the density of the metal conductive layer is 8.0g/cm 3 to 8.96g/cm 3 ; a thickness D 1 of the metal conductive layer is 300nm≤D 1 ≤2μm; and when a tensile strain of the negative current collector is 2.5%, a sheet resistance growth rate T of the metal conductive layer is T≤5% wherein the methods for measuring the density of the metal conductive layer, the tensile strain of the negative current collector and the sheet resistance growth rate T of the metal conductive layer is defined in the description.
A device for storing heat energy/cold energy, comprising - a container comprising a wall comprising a first interface suitable for letting a fluid into the device and a second interface suitable for letting the fluid out of the device , - a plurality of storage elements arranged in said container and configured to store heat energy/cold energy supplied by the fluid, which container has at least one perforated internal wall (105, 105 1 , 105 2 , 105 3 , 105 4 , 105 5 ) comprising openings of dimensions smaller than the dimensions of the storage elements and defining a first compartment (13 1 ) and at least one second compartment (13 2 ) in the container, the plurality of storage elements being distributed in the first compartment (13 1 ) and in said at least one second compartment (13 2 ), characterized in that the device comprises drainage holes (30 1 , 30 2 , 30 3 , 30 4 ) for draining condensates out of the storage device, which drainage holes (30 1 , 30 2 , 30 3 , 30 4 ) are distinct from the first and second interfaces and are made in the wall of the container at the lowest level of the wall of said container, and in that each compartment (13 1 , 13 2 ) has a drainage hole (30 1 , 30 2 , 30 3 , 30 4 ). - a container comprising a wall comprising a first interface suitable for letting a fluid into the device and a second interface suitable for letting the fluid out of the device , - a plurality of storage elements arranged in said container and configured to store heat energy/cold energy supplied by the fluid, which container has at least one perforated internal wall (105, 105 1 , 105 2 , 105 3 , 105 4 , 105 5 ) comprising openings of dimensions smaller than the dimensions of the storage elements and defining a first compartment (13 1 ) and at least one second compartment (13 2 ) in the container, the plurality of storage elements being distributed in the first compartment (13 1 ) and in said at least one second compartment (13 2 ), characterized in that the device comprises drainage holes (30 1 , 30 2 , 30 3 , 30 4 ) for draining condensates out of the storage device, which drainage holes (30 1 , 30 2 , 30 3 , 30 4 ) are distinct from the first and second interfaces and are made in the wall of the container at the lowest level of the wall of said container, and in that each compartment (13 1 , 13 2 ) has a drainage hole (30 1 , 30 2 , 30 3 , 30 4 ).
Method for cleaning soil contaminated with calcium sulfate, - in which soil contaminated with calcium sulfate is treated in a soil washing plant and sodium carbonate is added to at least part of the soil, and - in which sodium sulfate, which is formed according to the chemical reaction CaSO 4 + Na 2 CO 3 → CaCO 3 + Na 2 SO 4 formed during an exposure time, is separated by rinsing and dewatering the sodium carbonate-treated soil, characterized in that the sodium carbonate-treated soil is introduced into at least one shaft-like storage , preferably silo , having a lower opening (18.1) with closure (18.2), and is collected there up to a predetermined or predeterminable filling quantity, wherein the storage has a dewatering device which is connected to a collecting device for collecting rinsing water (SP) separated by means of the dewatering device , wherein rinsing water (SP) is added to the sodium carbonate-treated soil collected in the storage , wherein at least a part of the rinsing water (SP) with sodium sulfate dissolved therein is separated from the soil collected in the storage by means of the dewatering means and discharged into the collecting device, and wherein the rinsed and dewatered soil is removed from the storage at the lower opening (18.1) thereof. - in which soil contaminated with calcium sulfate is treated in a soil washing plant and sodium carbonate is added to at least part of the soil, and - in which sodium sulfate, which is formed according to the chemical reaction CaSO 4 + Na 2 CO 3 → CaCO 3 + Na 2 SO 4 formed during an exposure time, is separated by rinsing and dewatering the sodium carbonate-treated soil, characterized in that the sodium carbonate-treated soil is introduced into at least one shaft-like storage , preferably silo , having a lower opening (18.1) with closure (18.2), and is collected there up to a predetermined or predeterminable filling quantity, wherein the storage has a dewatering device which is connected to a collecting device for collecting rinsing water (SP) separated by means of the dewatering device , wherein rinsing water (SP) is added to the sodium carbonate-treated soil collected in the storage , wherein at least a part of the rinsing water (SP) with sodium sulfate dissolved therein is separated from the soil collected in the storage by means of the dewatering means and discharged into the collecting device, and wherein the rinsed and dewatered soil is removed from the storage at the lower opening (18.1) thereof.
A ducted heat exchanger system for a gas turbine engine, comprising: a heat exchanger core ; and a fairing in communication with said heat exchanger core, said fairing including an additively manufactured surface to facilitate heat transfer from said heat exchanger core , said additively manufactured surface contoured to follow the aerodynamic lines of said fairing to communicate airflow to said heat exchanger core , said additively manufactured surface manufactured of a material different than that of the fairing . a heat exchanger core ; and a fairing in communication with said heat exchanger core, said fairing including an additively manufactured surface to facilitate heat transfer from said heat exchanger core , said additively manufactured surface contoured to follow the aerodynamic lines of said fairing to communicate airflow to said heat exchanger core , said additively manufactured surface manufactured of a material different than that of the fairing .
A lifting apparatus with a safety apparatus, mounted suspendably to a holding apparatus , wherein in operation a pivotal angle of the lifting apparatus deviating from a vertical straight line can be limited by way of the safety apparatus, wherein the pivotal angle is adapted to be monitorable and limitable in two mutually opposite directions by the safety apparatus, wherein swinging settlement of the lifting apparatus back in the direction of the vertical straight line remains unimpeded, characterised in that - the safety apparatus has at least one sensor, at least one controlling unit and at least one blocking apparatus, and that - at a pivotal angle detected at the at least one sensor between predeterminable first and second threshold values deviating from the vertical straight line a pivotal movement increasing the pivotal angle can be limited by a blocking apparatus and a pivotal movement back in the direction of the vertical straight line remains open, and that - the at least one blocking apparatus co-operates with a hydraulic cylinder and comprises at least two blocking valves , and that - the blocking valves are arranged in co-operable relationship with at least two non-return valves on a compensating line , and that - the through-flow from the first chamber (C1) to the second chamber (C2) can be closed or enabled in the hydraulic cylinder by one of the blocking valves in co-operating relationship with a non-return valve and the through-flow from the second chamber (C2) to the first chamber (C1) can be closed or enabled by the other blocking valve in co-operating relationship with a non-return valve , and that - the blocking valves are actuable individually or simultaneously by the controlling unit . - the safety apparatus has at least one sensor, at least one controlling unit and at least one blocking apparatus, and that - at a pivotal angle detected at the at least one sensor between predeterminable first and second threshold values deviating from the vertical straight line a pivotal movement increasing the pivotal angle can be limited by a blocking apparatus and a pivotal movement back in the direction of the vertical straight line remains open, and that - the at least one blocking apparatus co-operates with a hydraulic cylinder and comprises at least two blocking valves , and that - the blocking valves are arranged in co-operable relationship with at least two non-return valves on a compensating line , and that - the through-flow from the first chamber (C1) to the second chamber (C2) can be closed or enabled in the hydraulic cylinder by one of the blocking valves in co-operating relationship with a non-return valve and the through-flow from the second chamber (C2) to the first chamber (C1) can be closed or enabled by the other blocking valve in co-operating relationship with a non-return valve , and that - the blocking valves are actuable individually or simultaneously by the controlling unit .
Process for the stabilization of a composition based on PAEK, said process comprising a step of incorporating an agent which stabilizes with regard to phenomena of thermal oxidation, said process being characterized in that the stabilizing agent incorporated is a phosphate salt or a mixture of phosphate salts, characterized in that the phosphate salt or the mixture of phosphate salts is incorporated into the composition in proportions of between 10 ppm and 50 000 ppm.
A method for estimating a temperature of an object of interest, the method comprising: (i) directing, using a radio frequency (RF) applicator, one or more RF energy pulses into a tissue region of interest, the tissue region of interest comprising the object of interest and at least one reference that are separated by at least one boundary, wherein the at least one boundary is at location between two different types of tissue, further wherein the two different types of tissue are the object of interest and the reference; (ii) detecting, using an acoustic receiver, at least one bipolar acoustic signal generated in the region of interest at the at least one boundary in response to the RF energy pulses and processing the at least one bipolar acoustic signal to determine a peak-to-peak amplitude thereof; and (iii) calculating a temperature at the at least one boundary using the peak-to-peak amplitude of the at least one bipolar acoustic signal; and (iv) estimating the temperature of the object of interest based on the calculated temperature at the at least one boundary. (i) directing, using a radio frequency (RF) applicator, one or more RF energy pulses into a tissue region of interest, the tissue region of interest comprising the object of interest and at least one reference that are separated by at least one boundary, wherein the at least one boundary is at location between two different types of tissue, further wherein the two different types of tissue are the object of interest and the reference; (ii) detecting, using an acoustic receiver, at least one bipolar acoustic signal generated in the region of interest at the at least one boundary in response to the RF energy pulses and processing the at least one bipolar acoustic signal to determine a peak-to-peak amplitude thereof; and (iii) calculating a temperature at the at least one boundary using the peak-to-peak amplitude of the at least one bipolar acoustic signal; and (iv) estimating the temperature of the object of interest based on the calculated temperature at the at least one boundary.
Fastening means for tracheal cannulae comprising an adhesive plate having a first surface and a second surface and at least one tape connected to the adhesive plate for connection to a holding means of a tracheal cannula, the first surface comprising an adhesive layer for adhering to a skin surface and the second surface comprising a first hook-and-loop fastener part wherein the tape comprises, at least on one side, a second hook-and-loop fastener part corresponding to the first hook-and-loop fastener part of the adhesive plate , characterized in that the first hook-and-loop fastener part extends over the entire surface of the first surface of the adhesive plate .
Processing machine, in particular offset printing machine, having a printing unit that has an ink fountain, wherein the ink fountain comprises a ductor roller , an ink fountain base , and end walls , which delimit an ink chamber for a printing ink, wherein the ink fountain is open toward the top, and wherein one or more ink slides are arranged along a margin of the ink fountain base in order to form, together with the ductor roller , an ink outlet gap for the printing ink, characterized in that in the region of the ink slide (s) and/or in the region of an edge between an end wall and the ductor roller , pneumatic means are provided for sealing the ink chamber with respect to the printing ink, wherein, by means of the pneumatic means, a positive pressure, which is elevated in relation to the ambient pressure and which counteracts a penetration of the printing ink, can be and/or is generated in gaps between ink slides and/or in gaps between end walls and ink slides , wherein a compressed gas line is formed by means of bore holes in the ink slide (s) and/or in the end walls and in the ink slide(s) , and/or can be and/or is generated in gaps between end walls and the ductor roller . wherein the ink fountain comprises a ductor roller , an ink fountain base , and end walls , which delimit an ink chamber for a printing ink, wherein the ink fountain is open toward the top, and wherein one or more ink slides are arranged along a margin of the ink fountain base in order to form, together with the ductor roller , an ink outlet gap for the printing ink, characterized in that in the region of the ink slide (s) and/or in the region of an edge between an end wall and the ductor roller , pneumatic means are provided for sealing the ink chamber with respect to the printing ink, wherein, by means of the pneumatic means, a positive pressure, which is elevated in relation to the ambient pressure and which counteracts a penetration of the printing ink, can be and/or is generated in gaps between ink slides and/or in gaps between end walls and ink slides , wherein a compressed gas line is formed by means of bore holes in the ink slide (s) and/or in the end walls and in the ink slide(s) , and/or can be and/or is generated in gaps between end walls and the ductor roller .
Nerve stimulation electrode structure for external ear, said electrode structure comprising a first electrode , a second electrode , a base (B) for supporting the electrodes, said electrode structure further comprising connecting points for the electrodes for creating connection to a stimulation device , wherein at least in the area between the electrodes the base (B), said base (B) being planar, comprises a flexible bending area for enabling the electrode structure to be bent to an inclined position forming a first wing (W1) for the first electrode and a second wing (W2) for the second electrode for enabling electrode-contact to the ear on both outer sides of the bended electrode structure.
A physical condition determination device configured to determine a physical condition of a person by analyzing a biosignal collected by a biosignal measurement device which is disposed in contact with a back of the person and is configured to capture the biosignal propagated through a body surface of the back, the physical condition determination device comprising: a heart rate-related index calculation unit configured to find a time-series waveform of an index corresponding to a variation in heart rate from a time-series waveform of the biosignal; a blood pressure-related index calculation unit configured to find a time-series waveform of an index corresponding to a variation in blood pressure from the time-series waveform of the biosignal; and a physical condition sudden change determination unit configured to specify a preset time zone in which the time-series waveform obtained from the heart rate-related index calculation unit presents a predetermined waveform variation, as an appearance time of a sign of a sudden change in the heart rate, specify a preset time zone in which the time-series waveform obtained from the blood pressure-related index calculation unit presents a predetermined waveform variation, as an appearance time of a sign of a sudden change in the blood pressure, and determine that a sudden change in the physical condition has occurred in a case where the appearance time of the sign of the sudden change in the heart rate and the appearance time of the sign of the sudden change in the blood pressure are within a predetermined time range. a heart rate-related index calculation unit configured to find a time-series waveform of an index corresponding to a variation in heart rate from a time-series waveform of the biosignal; a blood pressure-related index calculation unit configured to find a time-series waveform of an index corresponding to a variation in blood pressure from the time-series waveform of the biosignal; and a physical condition sudden change determination unit configured to specify a preset time zone in which the time-series waveform obtained from the heart rate-related index calculation unit presents a predetermined waveform variation, as an appearance time of a sign of a sudden change in the heart rate, specify a preset time zone in which the time-series waveform obtained from the blood pressure-related index calculation unit presents a predetermined waveform variation, as an appearance time of a sign of a sudden change in the blood pressure, and determine that a sudden change in the physical condition has occurred in a case where the appearance time of the sign of the sudden change in the heart rate and the appearance time of the sign of the sudden change in the blood pressure are within a predetermined time range.