mhurhangee/patent-ind-claim-en huggingface dataset:
Method of manufacturing a plastic component using a foil which comprises at least one region with lamination (3-1, 3-2, 3-3) and at least one region without lamination (4-1, 4-2, 4-3) on the upper side (2-1) of the foil, and an injection moulding tool consisting of at least two moulding tool parts (1-1, 1-2), wherein the first moulding tool part (1-1) comprises a positive or negative structure in the form of one or more elevations or depressions which is congruent in the opposite direction to the at least one region with lamination (3-1, 3-2) and to the at least one region without lamination (4-1) on the upper side (2-1) of the foil, with the following steps: lit. a. inserting and placing the foil into the injection moulding tool , lit. b. fixing the foil in the injection moulding tool by or when closing the two moulding tool parts (1-1, 1-2), lit. c. injecting a first plastic material into the second moulding tool part (1-2), whereby lit. d. the foil is pressed against the first moulding tool part (1-1) by the first plastic material injected into a cavity of the second moulding tool part (1-2) and the foil is positively brought into the one or more depressions or around the one or more elevations of the first moulding tool part (1-1) by the pressure of the plastic material injected into the cavity of the second moulding tool part (1-2) so that a 3D effect is created, lit. e. injection of at least one plastic layer onto the upper side (2-1) of the foil by using at least one further, differently shaped cavity in the injection moulding tool , lit. f. removing the plastic component from the injection moulding tool . lit. a. inserting and placing the foil into the injection moulding tool , lit. b. fixing the foil in the injection moulding tool by or when closing the two moulding tool parts (1-1, 1-2), lit. c. injecting a first plastic material into the second moulding tool part (1-2), whereby lit. d. the foil is pressed against the first moulding tool part (1-1) by the first plastic material injected into a cavity of the second moulding tool part (1-2) and the foil is positively brought into the one or more depressions or around the one or more elevations of the first moulding tool part (1-1) by the pressure of the plastic material injected into the cavity of the second moulding tool part (1-2) so that a 3D effect is created, lit. e. injection of at least one plastic layer onto the upper side (2-1) of the foil by using at least one further, differently shaped cavity in the injection moulding tool , lit. f. removing the plastic component from the injection moulding tool .
An automated raw material screening device adapted to perform a measurement on a sample with an NMR spectrometer and to process resulting signals to generate a sample NMR spectrum of the sample , the device comprising: a spectral database (128; 208) containing a plurality of spectral entries of known reference material, a knowledgebase (132; 212) containing definitions of spectral properties of all compounds of the spectral database (128; 208) including information about the areas in the NMR spectrum of the compound where a signal intensity peak is expected and the number of atoms at the peak is defined, and a shape definition of the peak within each area including the expected coupling pattern, a qualitative analysis unit with a compound identification program adapted to compare at least one reference NMR spectrum stored in the spectral database (128; 208) or the knowledgebase (132; 212) corresponding to a compound present in the sample ; wherein the qualitative analysis unit is adapted to identify the one reference NMR spectrum by selecting a reference NMR spectrum that has intensity peaks at chemical shift locations at which the sample NMR spectrum has intensity peaks; the device further comprising a quantitative analysis unit adapted to determine the relative amounts of each compound present by integrating relative signal intensity signals of the sample spectrum in regions of peak intensity in the one reference NMR spectrum retrieved from the knowledgebase (132; 212) and to compare integration results to a number of atoms in each region in order to confirm identification of the compound. a spectral database (128; 208) containing a plurality of spectral entries of known reference material, a knowledgebase (132; 212) containing definitions of spectral properties of all compounds of the spectral database (128; 208) including information about the areas in the NMR spectrum of the compound where a signal intensity peak is expected and the number of atoms at the peak is defined, and a shape definition of the peak within each area including the expected coupling pattern, a qualitative analysis unit with a compound identification program adapted to compare at least one reference NMR spectrum stored in the spectral database (128; 208) or the knowledgebase (132; 212) corresponding to a compound present in the sample ; wherein the qualitative analysis unit is adapted to identify the one reference NMR spectrum by selecting a reference NMR spectrum that has intensity peaks at chemical shift locations at which the sample NMR spectrum has intensity peaks; the device further comprising a quantitative analysis unit adapted to determine the relative amounts of each compound present by integrating relative signal intensity signals of the sample spectrum in regions of peak intensity in the one reference NMR spectrum retrieved from the knowledgebase (132; 212) and to compare integration results to a number of atoms in each region in order to confirm identification of the compound.
A method for coding 360-degree video content, the method comprising: identifying a first sampling position in a first projection format and a second sampling position in a second projection format, the second sampling position relating to the corresponding first sampling position via a transform function; identifying a reference parameter weight for the first sampling position, wherein the reference parameter weight corresponds to a first weighted spherically uniform peak signal-to-noise ratio, WS-PSNR, weight; determining an adjustment factor associated with the reference parameter weight for the first sampling position based on a horizontal derivative and a vertical derivative of the transform function computed in the second sampling position; calculating an adjusted parameter weight for the second sampling position based on the reference parameter weight for the first sampling position and the adjustment factor associated with the reference parameter weight for the first sampling position, and wherein the adjusted parameter weight corresponds to a second WS-PSNR weight; and applying the adjusted parameter weight to the second sampling position in the second projection format when coding the 360-degree video content. identifying a first sampling position in a first projection format and a second sampling position in a second projection format, the second sampling position relating to the corresponding first sampling position via a transform function; identifying a reference parameter weight for the first sampling position, wherein the reference parameter weight corresponds to a first weighted spherically uniform peak signal-to-noise ratio, WS-PSNR, weight; determining an adjustment factor associated with the reference parameter weight for the first sampling position based on a horizontal derivative and a vertical derivative of the transform function computed in the second sampling position; calculating an adjusted parameter weight for the second sampling position based on the reference parameter weight for the first sampling position and the adjustment factor associated with the reference parameter weight for the first sampling position, and wherein the adjusted parameter weight corresponds to a second WS-PSNR weight; and applying the adjusted parameter weight to the second sampling position in the second projection format when coding the 360-degree video content.
An in-situ incremental reheating system configured to increase steam temperature and thermodynamic efficiencies of a steam turbine , comprising: (a) a pump ; (b) a radiant heater ; (c) piping inter-connecting the pump, radiant heater and steam turbine to create a flow circuit; (d) a heat transfer material configured to flow through the flow circuit and transfer heat directly to steam used in the steam turbine, wherein the pump moves the heat transfer material through the flow circuit and the radiant heater regenerates the heat transfer material after the heat transfer material transfers heat to the steam; characterised in that the heat transfer material flows through internal flow passages of stator blades of the steam turbine to transfer heat directly to the steam. (a) a pump ; (b) a radiant heater ; (c) piping inter-connecting the pump, radiant heater and steam turbine to create a flow circuit; (d) a heat transfer material configured to flow through the flow circuit and transfer heat directly to steam used in the steam turbine, wherein the pump moves the heat transfer material through the flow circuit and the radiant heater regenerates the heat transfer material after the heat transfer material transfers heat to the steam;
Trichostatin A (TSA) for use in the treatment of cancer in an individual, the dosage regime comprising: determining, from a tumor sample obtained from the individual's body, a level of aurora kinase A (AURKA) expression; and in the case that the level of AURKA expression is indicative of overexpression, administering to the individual trichostatin A (TSA) to decrease the AURKA level in an individual. determining, from a tumor sample obtained from the individual's body, a level of aurora kinase A (AURKA) expression; and in the case that the level of AURKA expression is indicative of overexpression, administering to the individual trichostatin A (TSA) to decrease the AURKA level in an individual.
Leaf spring device for a vehicle, having a first spring leaf and at least one further spring leaf , wherein the first spring leaf and the further spring leaf interact in order to realize a progressive spring arrangement, wherein the first spring leaf has a receiving space and the further spring leaf is arranged in the receiving space , characterized in that an elastic material is arranged in the receiving space and between the first spring leaf and the further spring leaf .
A hydraulic rescue device for manual operation by a rescuer , comprising a hydraulic cylinder comprising a cylinder tube and at least one piston rod that can be adjusted relative to the cylinder tube , at least one first support surface formed on the cylinder tube for supporting the rescue device in a load-transferring manner on first object surfaces that can be freely selected by a rescuer , at least one second support surface formed on the at least one piston rod for supporting the rescue device in a load bearing manner on second object surfaces that can be freely selected by a rescuer , and at least one control valve that can be operated manually for the optional initiation and termination of adjusting movements of the at least one piston rod relative to the cylinder tube , characterized in that at least one or multiple markings , which can be read by a rescuer , are formed on the lateral surface of the at least one piston rod , which at least one marking is provided at least to signal a remaining stroke of the at least one piston rod that is still available relative to the cylinder tube .
An ophthalmic imaging system, comprising an ocular lens and an optical coherence tomography (OCT) imaging module, wherein the OCT imaging module comprises a retina imaging mode and an anterior segment imaging mode; in the retina imaging mode, the OCT imaging module includes a first intermediate image plane located between the ocular lens and the OCT imaging module; and from the retina imaging mode, an anterior segment imaging via the anterior segment imaging mode is achieved by inserting a switching lens group into the optical path inside the OCT imaging module, characterised in that , after the insertion, the OCT imaging module includes a second new intermediate image plane with a different position from that of the retina imaging mode and located in the OCT imaging module and a conjugate of the entrance pupil of the OCT imaging module being located between the ocular lens and the OCT imaging module. in the retina imaging mode, the OCT imaging module includes a first intermediate image plane located between the ocular lens and the OCT imaging module; and from the retina imaging mode, an anterior segment imaging via the anterior segment imaging mode is achieved by inserting a switching lens group into the optical path inside the OCT imaging module, characterised in that , after the insertion, the OCT imaging module includes a second new intermediate image plane with a different position from that of the retina imaging mode and located in the OCT imaging module and a conjugate of the entrance pupil of the OCT imaging module being located between the ocular lens and the OCT imaging module.
A sensor arrangement, comprising at least one electro-optical transmission element and/or at least one electro-optical reception element that are positioned on a circuit board , wherein the circuit board is arranged in a housing comprising a housing top and a housing base and the shell-shaped housing top disposed opposite the transmission and/or reception element has at least one lens , wherein the housing base supporting the housing top is formed by the circuit board , wherein the housing top consists of a plastic, wherein the surfaces of the housing top facing the housing interior are coated by a metalization layer , and wherein the circuit board is multilayer, characterized in that a metal layer forming the outer side of the circuit board is connected free of a useful signal and the metal layer forming the outer side of the circuit board is formed as a screening element and the metalization layer is connected to the edge metalization of the circuit board .
Construction system with a supporting framework, new or pre-existent, made of reinforced concrete or steel, integrated with infill panels made of wood, wherein said supporting framework is constituted by a frame of columns and beams , characterised in that said infill panels are inserted in one or more fields of the frame of the structure, such that all along their perimeter said infill panels are forced inside said fields without play.
Electrical cooking appliance , in particular an electric fryer, comprising a cooking assembly , a draining support forming a draining receptacle , and a lid intended for being mounted on the draining support , the electrical cooking appliance adopting a draining configuration in which the draining support supports the cooking assembly , the cooking assembly comprising a vessel capable of receiving a cooking bath, the vessel being provided with a draining device comprising a valve capable of adopting a closed stable return position and an open position, a control member moving the valve into the open position when the electrical cooking appliance adopts the draining configuration, characterised in that when the electrical cooking appliance adopts the draining configuration, the lid is mounted on the draining support supporting the cooking assembly , the lid providing a passage for the flow into the draining receptacle of the cooking bath coming from the draining device .
Method for determining a local refractive power of volume elements of a panel-shaped transparent object in the direction of an optical axis, for example a direction of view through a windscreen, comprising a pattern which is observed through the transparent object by means of a first camera , wherein the optical axis is defined by the observation direction of the first camera , wherein a local refractive power is determined for the respective volume element by observing the pattern through the transparent object, characterised in that the three-dimensional shape and position of the surface of the respective volume element of the transparent object facing the pattern is determined and is used to determine the local refractive power in such a way that the local refractive power determined by observing the pattern is adjusted based on the known three-dimensional shape and position of the surface if the respective volume element is located off the optical axis.
A control stick pivot, comprising: a primary pivot bearing ; and a redundant pivot bearing on one side of the primary pivot bearing , wherein the redundant pivot bearing becomes operative as a bearing in the event that the primary pivot bearing malfunctions; characterised by a detection component for detecting malfunction of the primary pivot bearing . a primary pivot bearing ; and a redundant pivot bearing on one side of the primary pivot bearing , wherein the redundant pivot bearing becomes operative as a bearing in the event that the primary pivot bearing malfunctions; characterised by a detection component for detecting malfunction of the primary pivot bearing .
A system, comprising: an external device (45; 50) and an implantable spinal cord stimulator device configured to treat back pain of a patient, wherein the external device (45; 50) is configured to determine information for the patient during a testing procedure by providing test pulses to the patient and determining a perception threshold for the test pulses, wherein the information comprises a range or volume of stimulation parameters for the patient, wherein the external device (45; 50) is configured to transmit the information to the stimulator device ; and wherein the stimulator device is configured to execute instructions, the instructions specifying an amplitude, a pulse width, and a frequency of stimulation pulses provided at one of more of electrodes in an electrode array of the stimulator device , wherein during the execution of the instructions the amplitude, the pulse width, and the frequency are automatically varied over time within the range or volume of stimulation parameters determined for the patient. an external device (45; 50) and an implantable spinal cord stimulator device configured to treat back pain of a patient, wherein the external device (45; 50) is configured to determine information for the patient during a testing procedure by providing test pulses to the patient and determining a perception threshold for the test pulses, wherein the information comprises a range or volume of stimulation parameters for the patient, wherein the external device (45; 50) is configured to transmit the information to the stimulator device ; and wherein the stimulator device is configured to execute instructions, the instructions specifying an amplitude, a pulse width, and a frequency of stimulation pulses provided at one of more of electrodes in an electrode array of the stimulator device , wherein during the execution of the instructions the amplitude, the pulse width, and the frequency are automatically varied over time within the range or volume of stimulation parameters determined for the patient.
A sampling container assembly comprising: a sample receiving residue tube (1110a-b, 2110a-b, 3110a-b); a residue tube cap (1180a-b, 2180a-b, 3180a-b) assembled with the residue tube and defining inlet and outlet ports (1192a-b, 2192a-b, 3192a-b; 2193a-b, 3193a-b); a fixture block ; an inner pipe (1120a-b, 2120a-b) having a lower end sealingly mounted to the fixture block and surrounding the residue tube to define an inner cavity (1125a-b, 2125a-b) for receiving a heat transfer fluid; an outer pipe (1130a-b, 2130a-b) having a lower end sealingly mounted to the fixture block and surrounding the inner pipe to define an outer annulus (1135a-b, 2135a-b; a container cap (1170a-b, 2170a-b) sealingly assembled with an upper end of the outer pipe; and a supply conduit (1242a-b, 2242a-b) extending through the fixture block and the outer annulus and connected with the inlet port of the residue tube cap for providing a sample fluid to the residue tube; wherein the fixture block defines a passage extending to the outer annulus for supplying a chilling fluid to the outer annulus for chilling the heat transfer fluid in the inner cavity. a sample receiving residue tube (1110a-b, 2110a-b, 3110a-b); a residue tube cap (1180a-b, 2180a-b, 3180a-b) assembled with the residue tube and defining inlet and outlet ports (1192a-b, 2192a-b, 3192a-b; 2193a-b, 3193a-b); a fixture block ; an inner pipe (1120a-b, 2120a-b) having a lower end sealingly mounted to the fixture block and surrounding the residue tube to define an inner cavity (1125a-b, 2125a-b) for receiving a heat transfer fluid; an outer pipe (1130a-b, 2130a-b) having a lower end sealingly mounted to the fixture block and surrounding the inner pipe to define an outer annulus (1135a-b, 2135a-b; a container cap (1170a-b, 2170a-b) sealingly assembled with an upper end of the outer pipe; and a supply conduit (1242a-b, 2242a-b) extending through the fixture block and the outer annulus and connected with the inlet port of the residue tube cap for providing a sample fluid to the residue tube; wherein the fixture block defines a passage extending to the outer annulus for supplying a chilling fluid to the outer annulus for chilling the heat transfer fluid in the inner cavity.
A micro-analyte detection device, characterized in that , including: a bottom case, a bottom board of the bottom case is provided with a mounting hole, and a first fastener part is provided at an edge of the mounting hole; a sensor structure, the sensor structure includes a sensor and a sensor base, and the sensor includes a signal output end and a detection end, a second fastener part is provided at an edge of the sensor base, contour shapes of the edge of the sensor base and of the mounting hole match each other, the first fastener part and the second fastener part are fastened with each other, the edge of the mounting hole and the edge of the sensor base are interlocked, and the sensor base is installed in the mounting hole; and a transmitter, the transmitter includes a transmitter housing and an electronic device disposed in the transmitter housing, the electronic device is provided with an electrical connection area, when the transmitter is installed in a working position, the electrical connection area is electrically connected with the signal output end, wherein the sensor's shape is an arc or a polyline, wherein a straight line determined by a longitudinal direction of the signal output end is perpendicular to a straight line determined by a longitudinal direction of the detection end. a bottom case, a bottom board of the bottom case is provided with a mounting hole, and a first fastener part is provided at an edge of the mounting hole; a sensor structure, the sensor structure includes a sensor and a sensor base, and the sensor includes a signal output end and a detection end, a second fastener part is provided at an edge of the sensor base, contour shapes of the edge of the sensor base and of the mounting hole match each other, the first fastener part and the second fastener part are fastened with each other, the edge of the mounting hole and the edge of the sensor base are interlocked, and the sensor base is installed in the mounting hole; and a transmitter, the transmitter includes a transmitter housing and an electronic device disposed in the transmitter housing, the electronic device is provided with an electrical connection area, when the transmitter is installed in a working position, the electrical connection area is electrically connected with the signal output end, wherein the sensor's shape is an arc or a polyline, wherein a straight line determined by a longitudinal direction of the signal output end is perpendicular to a straight line determined by a longitudinal direction of the detection end.