mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing high speed analogue signals in real time comprising the following steps: a) high speed analogue signals are provided to a microprocessor , b) using a high speed ADC converter , these signals are quantized and converted to digital form without further processing, c) the digital data thus acquired is sent via an interface , in particular a high speed interface, and an input data bus , to a high speed signal processing unit , d) said digital data is processed in the high speed signal processing unit in line with the processing feature implemented in said unit , e) the processing result is sent via an interface , in particular a high speed interface, and an output data bus , to the microprocessor , f) the microprocessor is used to perform operations on the processed data received in line with a program , wherein high speed analogue signals are signals that cannot be processed by an online processor in real time, such as signals with 80 million samples per second, and high speed ADC converter, high speed interface, high speed signal processing unit, are elements suitable for processing such signals, characterized in that the high speed ADC converter is integrated in said microprocessor , the program is implemented in said microprocessor , the high speed signal processing unit used is an FPGA type unit, and the high speed signal processing unit is connected into a loop by the data bus , with the microprocessor so as to make the signals from the high speed ADC converter reach directly the high speed signal processing unit . a) high speed analogue signals are provided to a microprocessor , b) using a high speed ADC converter , these signals are quantized and converted to digital form without further processing, c) the digital data thus acquired is sent via an interface , in particular a high speed interface, and an input data bus , to a high speed signal processing unit , d) said digital data is processed in the high speed signal processing unit in line with the processing feature implemented in said unit , e) the processing result is sent via an interface , in particular a high speed interface, and an output data bus , to the microprocessor , f) the microprocessor is used to perform operations on the processed data received in line with a program , the high speed ADC converter is integrated in said microprocessor , the program is implemented in said microprocessor , the high speed signal processing unit used is an FPGA type unit, and the high speed signal processing unit is connected into a loop by the data bus , with the microprocessor so as to make the signals from the high speed ADC converter reach directly the high speed signal processing unit .
A remote controller comprising: a remote controller body including a control device for a user to input a remote-control command; a holding mechanism ; a connecting mechanism connected between the remote controller body and the holding mechanism ; and a first antenna and a second antenna provided at a side of the remote controller body and rotatably connected to the remote controller body , wherein the holding mechanism is movably connected to the remote controller body via the connecting mechanism and the holding mechanism is configured to move with respect to the remote controller body , such that the holding mechanism is either in an extended state or in a contracted state, and wherein each of the first antenna and the second antenna is configured to rotate relative to the remote controller body to cause the antenna to be extended or folded, and wherein the first antenna and the second antenna are stacked when folded, and wherein an anti-collision groove is provided at each of the first antenna and the second antenna in a thickness direction, and the anti-collision grooves of the first antenna and the second antenna overlap with each other when the first antenna and the second antenna are folded to cause a stacked thickness of the first antenna and the second antenna to be equal to a maximum thickness of one of the first antenna and the second antenna . a remote controller body including a control device for a user to input a remote-control command; a holding mechanism ; a connecting mechanism connected between the remote controller body and the holding mechanism ; and a first antenna and a second antenna provided at a side of the remote controller body and rotatably connected to the remote controller body , wherein the holding mechanism is movably connected to the remote controller body via the connecting mechanism and the holding mechanism is configured to move with respect to the remote controller body , such that the holding mechanism is either in an extended state or in a contracted state, and wherein each of the first antenna and the second antenna is configured to rotate relative to the remote controller body to cause the antenna to be extended or folded, and wherein the first antenna and the second antenna are stacked when folded, and wherein an anti-collision groove is provided at each of the first antenna and the second antenna in a thickness direction, and the anti-collision grooves of the first antenna and the second antenna overlap with each other when the first antenna and the second antenna are folded to cause a stacked thickness of the first antenna and the second antenna to be equal to a maximum thickness of one of the first antenna and the second antenna .
A method for attaching a motor to a flat-member-feeding device , the flat-member-feeding device comprising: a housing ; a first roll being housed inside the housing ; and a second roll being housed inside the housing and being disposed on an upper side of the first roll in a vertical direction, the flat-member-feeding device being operable to convey a flat member being clamped by the first roll and the second roll , the motor being coupled to one of the first roll and the second roll to rotate the one of the first roll and the second roll , characterized by the method comprising the steps of: detaching, from the motor including a substantially cylindrical stator being provided with a hollow and a substantially cylindrical rotor being disposed in the hollow of the stator and being provided with a hollow, a first fixing member being disposed to avoid attachment of the stator and the rotor ; attaching a sleeve to the rotor such that the sleeve is disposed so as to occupy one part of the hollow of the rotor , wherein solely one end portion and another end portion of the substantially cylindrical rotor are supported by the sleeve , and wherein a central portion between the one end portion and the another end portion of the substantially cylindrical rotor is not supported by the sleeve ; attaching the motor to the flat-member-feeding device by attaching the sleeve to a roll shaft, the one of the first roll and the second roll being fixed to the roll shaft; and detaching a second fixing member being disposed to avoid attachment of the stator and the rotor . detaching, from the motor including a substantially cylindrical stator being provided with a hollow and a substantially cylindrical rotor being disposed in the hollow of the stator and being provided with a hollow, a first fixing member being disposed to avoid attachment of the stator and the rotor ; attaching a sleeve to the rotor such that the sleeve is disposed so as to occupy one part of the hollow of the rotor , wherein solely one end portion and another end portion of the substantially cylindrical rotor are supported by the sleeve , and wherein a central portion between the one end portion and the another end portion of the substantially cylindrical rotor is not supported by the sleeve ; attaching the motor to the flat-member-feeding device by attaching the sleeve to a roll shaft, the one of the first roll and the second roll being fixed to the roll shaft; and detaching a second fixing member being disposed to avoid attachment of the stator and the rotor .
A high-intensity focused ultrasonic wave (HIFU) treatment device comprising: a first HIFU transducer configured to emit HIFUs, and having an insertion hole formed at a center thereof; a second HIFU transducer configured to emit HIFUs and to be inserted into the insertion hole of the first HIFU transducer and rotate therein; an imaging transducer installed on the second HIFU transducer to rotate together with the second HIFU transducer and configured to obtain an image; a rotation driving part configured to rotate the second HIFU transducer; and a controller configured to control the first and second HIFU transducers , the imaging transducer , and the rotation driving part . a first HIFU transducer configured to emit HIFUs, and having an insertion hole formed at a center thereof; a second HIFU transducer configured to emit HIFUs and to be inserted into the insertion hole of the first HIFU transducer and rotate therein; an imaging transducer installed on the second HIFU transducer to rotate together with the second HIFU transducer and configured to obtain an image; a rotation driving part configured to rotate the second HIFU transducer; and a controller configured to control the first and second HIFU transducers , the imaging transducer , and the rotation driving part .
An electromagnetic actuator defining an axis of symmetry Z and an infinite number of radial planes disposed in a fan arrangement around the axis of symmetry Z, the electromagnetic actuator comprising at least one inductor (I) with a winding (lb), a movable armature (A), a driving disc (D) and elastic means (R), the armature (A) being biased, at rest, by the elastic means (R) against or away from the driving disc (D) and, when the coil (lb) is supplied with current, the armature (A) is moved axially towards the inductor (I) against the elastic means (R) away from or against the driving disc (D), the electromagnetic actuator also comprising at least one measuring module (H) comprising a magnetic field sensor , such as a Hall effect sensor, disposed in a radial plan Prv and defining a direction of sensitivity B to magnetic fields, characterized in that the measuring module (H) comprises at least one permanent magnet (42, 43; D42, D43) which moves relative to the magnetic field sensor so as to generate a magnetic field detectable by the magnetic field sensor , and in that the direction of sensitivity B of the magnetic field sensor is perpendicular to the radial plane Prv in which the magnetic field sensor is positioned.
A vehicle front portion structure comprising: front side members that are disposed at right and left side portions of a vehicle front portion and extend in a vehicle front and rear direction; suspension towers that are disposed so as to project in a vehicle upward direction from the front side members; front joining portions that are provided at the suspension towers and join the suspension towers and the front side members to each other, and at which the joint between the suspension towers and the front side members is configured to break at a time of a frontal impact; and rear joining portions that are provided at vehicle rear sides of the front joining portions in the suspension towers and that join the suspension towers and the front side members to each other; and characterized in that it comprises a suspension member that is attached by attachment portions (16H-2) to the front side members , wherein the attachment portions are disposed in positions coinciding in the vehicle front and rear direction with the rear joining portions. front side members that are disposed at right and left side portions of a vehicle front portion and extend in a vehicle front and rear direction; suspension towers that are disposed so as to project in a vehicle upward direction from the front side members; front joining portions that are provided at the suspension towers and join the suspension towers and the front side members to each other, and at which the joint between the suspension towers and the front side members is configured to break at a time of a frontal impact; and rear joining portions that are provided at vehicle rear sides of the front joining portions in the suspension towers and that join the suspension towers and the front side members to each other; and characterized in that it comprises a suspension member that is attached by attachment portions (16H-2) to the front side members , wherein the attachment portions are disposed in positions coinciding in the vehicle front and rear direction with the rear joining portions.
An optical wireless communication system comprising: a signal providing apparatus configured to receive an initial data signal from a data source and generate, based on the initial data signal, a data signal in accordance with a modulation scheme, wherein the initial data signal is provided according to a further, different modulation scheme, and the signal providing apparatus is configured to alter the modulation scheme from the further modulation scheme of the initial data signal to the modulation scheme of the data signal, wherein the data signal comprises a communication signal in accordance with a selected communication protocol; a driver apparatus remote from the signal providing apparatus ; a power cable configured to provide power to the driving apparatus ; a signal cable coupling the driving apparatus to the signal providing apparatus and having a length of at least 10 cm, wherein the driver apparatus is configured to receive the data signal from the signal providing apparatus via the signal cable and to receive power via the power cable , and the driver apparatus is configured to process the data signal to produce a driving signal, the driving signal having a higher power than the data signal; and a luminaire comprising a modulateable light source, wherein the modulateable light source is configured to be driven by the driving signal, thereby to produce modulated light; wherein the driver apparatus is positioned adjacent to or within the luminaire . a signal providing apparatus configured to receive an initial data signal from a data source and generate, based on the initial data signal, a data signal in accordance with a modulation scheme, wherein the initial data signal is provided according to a further, different modulation scheme, and the signal providing apparatus is configured to alter the modulation scheme from the further modulation scheme of the initial data signal to the modulation scheme of the data signal, wherein the data signal comprises a communication signal in accordance with a selected communication protocol; a driver apparatus remote from the signal providing apparatus ; a power cable configured to provide power to the driving apparatus ; a signal cable coupling the driving apparatus to the signal providing apparatus and having a length of at least 10 cm, wherein the driver apparatus is configured to receive the data signal from the signal providing apparatus via the signal cable and to receive power via the power cable , and the driver apparatus is configured to process the data signal to produce a driving signal, the driving signal having a higher power than the data signal; and a luminaire comprising a modulateable light source, wherein the modulateable light source is configured to be driven by the driving signal, thereby to produce modulated light; wherein the driver apparatus is positioned adjacent to or within the luminaire .
Spacer parts carrying element provided for being mounted on a pedestal for raising a surface, which carrying element comprises a plate having an upper face and a lower face , said spacer parts being placed on the upper face in such a manner as to extend upwards as from this upper face, said lower face being provided with a set of legs provided for gripping into an opening applied in a carrying surface of the pedestal, said legs of said set being applied around a perforation extending from the upper towards the lower face, characterised in that each leg comprises a base part and a head part connected among each other by an intermediate part , the head part having a width (L1) inferior to the one (L2) of the base part, the head part having a width superior to the one (L3) of the intermediate part, the head part extending along a border of a space extending in an extension of the perforation.
A method for preparing a lithium iron phosphate nanopowder, comprising the steps of: (a) preparing a mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a glycerol solvent which is a non-aqueous solvent; and (b) putting the mixture solution into a reactor and heating to prepare the lithium iron phosphate nanopowder under pressure conditions of 1 bar to 10 bar, wherein Step (b) is performed at a temperature range of 150°C to 290°C, and wherein Step (b) is performed for 1 to 72 hours. (a) preparing a mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a glycerol solvent which is a non-aqueous solvent; and (b) putting the mixture solution into a reactor and heating to prepare the lithium iron phosphate nanopowder under pressure conditions of 1 bar to 10 bar,
Electrical heating system comprising a heater and an attachment for dissipating heat, wherein the attachment comprises a contact body and also a hollow body , with an outer face , which is connected to the contact body , wherein the contact body and the hollow body form at least one cavity , wherein the contact body of the attachment comprises a contact face for producing a connection to the heater , and the attachment for dissipating heat by way of the contact surface of the contact body is connected fixedly to the heater , characterised in that the contact face of the contact body is connected by a welded connection, by a soldered connection or by an adhesive connection to a flat surface of the heater .
A method for diagnosing preeclampsia or a preeclampsia-related condition in a subject, said method comprising the steps of (a) measuring the amount of IGFBP-7 (Insulin-like Growth Factor Binding Protein 7) in a sample from the subject, and (b) comparing the measured amount of the biomarker to a reference. (a) measuring the amount of IGFBP-7 (Insulin-like Growth Factor Binding Protein 7) in a sample from the subject, and (b) comparing the measured amount of the biomarker to a reference.
A paperboard structure comprising: a paperboard substrate having a first major surface and a second major surface ; a barrier coating layer on the first major surface of the paperboard substrate; the barrier coating layer comprising a barrier coating binder and a barrier coating pigment at a first binder to pigment ratio of at least 1:2, by weight; a top coat on the surface of the barrier coating layer, the top coat (54; 54') comprising a top coat binder and a top coat pigment at a second binder to pigment ratio ranging from 1:1 to 1:10, by weight wherein the barrier coating layer is positioned between the paperboard substrate and the top coat; and a heat-sealable barrier coating layer on the second major surface of the paperboard substrate, wherein the heat-sealable barrier coating layer comprises binder and pigment. a paperboard substrate having a first major surface and a second major surface ; a barrier coating layer on the first major surface of the paperboard substrate; the barrier coating layer comprising a barrier coating binder and a barrier coating pigment at a first binder to pigment ratio of at least 1:2, by weight; a top coat on the surface of the barrier coating layer, the top coat (54; 54') comprising a top coat binder and a top coat pigment at a second binder to pigment ratio ranging from 1:1 to 1:10, by weight wherein the barrier coating layer is positioned between the paperboard substrate and the top coat; and a heat-sealable barrier coating layer on the second major surface of the paperboard substrate, wherein the heat-sealable barrier coating layer comprises binder and pigment.
A sealing sheet for a back surface of a solar cell comprising only one polyester film, wherein the polyester film comprises the layer A/the layer B, or the layer A/the layer B/the layer C described below, wherein the polyester film has whiteness of 50 or more, the average reflectance of 50 to 95% in the range of a wavelength of 400 to 800 nm, an acid value of polyester constituting the polyester film of 1 to 50 eq/ton, and the thickness of 150 to 380 μm, wherein the whiteness is evaluated with the method as described in paragraph and the average reflectance is evaluated with the method as described in paragraph , and a multilayer structure in which the layer A is disposed as one outermost layer, the thickness of the layer A is 3 to 30% of the thickness of the whole polyester film, the thickness of the layer B is 20% or more of the thickness of the whole polyester film, and the content of inorganic fine particles in the whole polyester film is 0.7 to 10% by mass, wherein the inorganic fine particles are titanium dioxide mainly consisting of a rutile type, wherein: Layer A: a polyester resin layer in which the content of the inorganic fine particles is 13 to 35% by mass Layer B: a polyester resin layer in which the content of the inorganic fine particles is 0 to 8% by mass, which is the smallest among the contents of the inorganic fine particles in the layer A, the layer B and the layer C Layer C: a polyester resin layer in which the content of the inorganic fine particles is 0.4 to 10% by mass. Layer A: a polyester resin layer in which the content of the inorganic fine particles is 13 to 35% by mass Layer B: a polyester resin layer in which the content of the inorganic fine particles is 0 to 8% by mass, which is the smallest among the contents of the inorganic fine particles in the layer A, the layer B and the layer C Layer C: a polyester resin layer in which the content of the inorganic fine particles is 0.4 to 10% by mass.
A roller body for a hydrostatic rolling tool , wherein the roller body is rotatable about an axis of rotation (R), which runs through a centre (Z) of the roller body , wherein the roller body has a central axis (L) extending perpendicular to the axis of rotation (R) and running through the centre (Z) of the roller body , wherein the roller body has a machining region with a machining profile line formed in the cross-section of the roller body for rolling machining of the workpiece, wherein the machining profile line comprises a first machining arc and a second machining arc , wherein the first machining arc extends around a first machining centre point (M4a) and the second machining arc extends around a second machining centre point (M4b), characterised in that the two machining centre points (M4a, M4b) are arranged offset relative to one another and relative to the centre (Z) of the roller body . wherein the roller body is rotatable about an axis of rotation (R), which runs through a centre (Z) of the roller body , wherein the roller body has a central axis (L) extending perpendicular to the axis of rotation (R) and running through the centre (Z) of the roller body , wherein the roller body has a machining region with a machining profile line formed in the cross-section of the roller body for rolling machining of the workpiece, wherein the machining profile line comprises a first machining arc and a second machining arc , wherein the first machining arc extends around a first machining centre point (M4a) and the second machining arc extends around a second machining centre point (M4b), characterised in that the two machining centre points (M4a, M4b) are arranged offset relative to one another and relative to the centre (Z) of the roller body .