mhurhangee/patent-ind-claim-en huggingface dataset:
A composite panel assembly comprising: first and second elastic membranes ; and a structure having a first side and a second side that is opposite the first side, the first side mounted to the first elastic membrane, the second side mounted to the second elastic membrane, the structure comprising: a first honeycomb layer with partition walls defining resonance cavities , the resonance cavities of the first honeycomb layer covered by the first elastic membrane along the first side of the structure; a second honeycomb layer with partition walls defining resonance cavities , the resonance cavities of the second honeycomb layer covered by the second elastic membrane along the second side of the structure; and a plurality of necks disposed between and connecting the first and second honeycomb layers, each neck defining a respective channel that is fluidly connected to a corresponding one of the resonance cavities of the first honeycomb layer and a corresponding one of the resonance cavities of the second honeycomb layer. first and second elastic membranes ; and a structure having a first side and a second side that is opposite the first side, the first side mounted to the first elastic membrane, the second side mounted to the second elastic membrane, the structure comprising: a first honeycomb layer with partition walls defining resonance cavities , the resonance cavities of the first honeycomb layer covered by the first elastic membrane along the first side of the structure; a second honeycomb layer with partition walls defining resonance cavities , the resonance cavities of the second honeycomb layer covered by the second elastic membrane along the second side of the structure; and a plurality of necks disposed between and connecting the first and second honeycomb layers, each neck defining a respective channel that is fluidly connected to a corresponding one of the resonance cavities of the first honeycomb layer and a corresponding one of the resonance cavities of the second honeycomb layer. a first honeycomb layer with partition walls defining resonance cavities , the resonance cavities of the first honeycomb layer covered by the first elastic membrane along the first side of the structure; a second honeycomb layer with partition walls defining resonance cavities , the resonance cavities of the second honeycomb layer covered by the second elastic membrane along the second side of the structure; and a plurality of necks disposed between and connecting the first and second honeycomb layers, each neck defining a respective channel that is fluidly connected to a corresponding one of the resonance cavities of the first honeycomb layer and a corresponding one of the resonance cavities of the second honeycomb layer.
An optical apparatus comprising, a light source and a diffractive lens having a diffractive surface for diffracting light from the light source , the diffractive surface comprises a plurality of areas defined by a plurality of steps, characterized in that a blaze wavelength λ B of the diffractive lens is within a wavelength spectral range of the light source ; when the wavelength spectral range of the light source is defined by a range 2Δλ with a spectral intensity that is 1/e 2 of a spectral intensity of a peak wavelength, the optical path difference between adjacent areas of the plurality of areas is equal to or more than λ B 2 /Δλ with respect to the blaze wavelength λ B ; an envelope enveloping the steps on the diffractive surface has an on-axis curvature different from an on-axis curvature of a surface opposing the diffractive surface; and a diffractive lens power component of the diffractive surface has a sign identical to a sign of power of the whole diffractive lens .
A closed container comprising a folded sheetlike composite ; wherein the folded sheetlike composite a) surrounds an interior of the container, and b) comprises, as mutually superposed layers, i) a carrier layer , ii) a barrier layer , and iii) an inner polymer layer ; wherein the closed container comprises a body and a fold-over excess ; wherein the body and the fold-over excess adjoin one another at a fold ; wherein the fold-over excess is joined to the body via a thermoplastic layer A between fold-over excess and body ; wherein the carrier layer is cardboard or paper; characterized in that the thermoplastic layer A - comprises a polyvinyl acetal in a proportion of at least 40% by weight, based on the weight of the thermoplastic layer A , and - superimposes the body over more than 0%, and up to 15% of its surface area remote from the interior . wherein the folded sheetlike composite a) surrounds an interior of the container, and b) comprises, as mutually superposed layers, i) a carrier layer , ii) a barrier layer , and iii) an inner polymer layer ; a) surrounds an interior of the container, and b) comprises, as mutually superposed layers, i) a carrier layer , ii) a barrier layer , and iii) an inner polymer layer ; i) a carrier layer , ii) a barrier layer , and iii) an inner polymer layer ; wherein the closed container comprises a body and a fold-over excess ; wherein the body and the fold-over excess adjoin one another at a fold ; wherein the fold-over excess is joined to the body via a thermoplastic layer A between fold-over excess and body ; wherein the carrier layer is cardboard or paper; characterized in that the thermoplastic layer A - comprises a polyvinyl acetal in a proportion of at least 40% by weight, based on the weight of the thermoplastic layer A , and - superimposes the body over more than 0%, and up to 15% of its surface area remote from the interior . - comprises a polyvinyl acetal in a proportion of at least 40% by weight, based on the weight of the thermoplastic layer A , and - superimposes the body over more than 0%, and up to 15% of its surface area remote from the interior .
Relaxin or an analog, a fragment or a variant thereof for use in a method for treating a stiffened joint, the method comprising administering to the subject in need thereof an effective amount of relaxin or an analog, a fragment or a variant thereof, such that the stiffened joint in the subject is treated; wherein the analog, fragment or variant retains the biological activity of relaxin, i.e., the ability to treat the stiffened joint.
A magnetic-field measuring device having: an elongate magnetic material (46, 48; 146; 246; 346; 446; 46, 48; 46, 48) formed of a solid or liquid having magnetic anisotropy, or a composite of said solid and liquid; an electrically conductive body (42, 44; 42; 42; 42; 442; 42, 44; 42, 44) disposed adjacent to said magnetic material, so as to give said magnetic material a current-induced magnetic-field vector having a component in a direction perpendicular to a longitudinal direction of said magnetic material; and a coil to detect a magnetic field generated by said magnetic material, wherein said magnetic material is magnetized in an arbitrary direction perpendicular to its longitudinal direction when an external magnetic field (Bmes) is not applied to said magnetic material or when only a magnetic field not having a component in its longitudinal direction is applied to said magnetic material, and is magnetized in a direction having the component in said longitudinal direction when the external magnetic field having the component in the longitudinal direction of said magnetic material is applied to said magnetic material, characterised in that a direction of magnetization of said magnetic material is aligned with a specific direction perpendicular to the longitudinal direction of said magnetic material when the magnetic material is sufficiently given said current-induced magnetic-field vector, and said magnetic-field measuring device is configured to intermittently apply an electric current (Ie) to said electrically conductive body, and detect an electromotive force (Ecoil) generated by said coil while the electric current is applied to said electrically conductive body and while the electric current is not applied to the electrically conductive body.
A pharmaceutical dry powder composition suitable for pulmonary delivery comprising an amount of microparticles of rapamycin, and particles of a carrier, wherein the microparticles of rapamycin have a mass median aerodynamic diameter (MMAD) of from 0.5 to 6 microns.
Sensor arrangement for tracking a solar collector assembly, the sensor arrangement comprising a housing ; said housing comprising an inclination sensor and a camera ; said sensor arrangement comprising a shadow receiver ; said shadow receiver being arranged and adapted to receive the full shadow of a solar system's receiver tube; wherein the camera and the shadow receiver are arranged such that the camera may sense the full width of the receiver tube's shadow on the shadow receiver ; and wherein • the shadow receiver is attached to and extends from the housing , or • the shadow receiver is only partly contained in but extends from the housing . a housing ; said housing comprising an inclination sensor and a camera ; said sensor arrangement comprising a shadow receiver ; said shadow receiver being arranged and adapted to receive the full shadow of a solar system's receiver tube; wherein the camera and the shadow receiver are arranged such that the camera may sense the full width of the receiver tube's shadow on the shadow receiver ; and wherein • the shadow receiver is attached to and extends from the housing , or • the shadow receiver is only partly contained in but extends from the housing . • the shadow receiver is attached to and extends from the housing , or • the shadow receiver is only partly contained in but extends from the housing .
A spectral computed tomography imaging system , comprising: a radiation source configured to emit x-ray radiation; a detector array configured to detect x-ray radiation and generate contrast-enhanced multi-energy spectral projection data; characterized in that it further comprises: a memory configured to store a virtual non-contrast image enhancing module that includes computer executable instructions including a neural network trained to produce image quality enhanced virtual non-contrast images, wherein the neural network is trained with training contrast-enhanced multi-energy spectral projection data generated from a spectral scan and training non-contrast-enhanced images generated from a non-contrast-enhanced scan; and a processor configured to process the contrast-enhanced multi-energy spectral projection data with the trained neural network to produce the image quality enhanced virtual non-contrast images. a radiation source configured to emit x-ray radiation; a detector array configured to detect x-ray radiation and generate contrast-enhanced multi-energy spectral projection data; characterized in that it further comprises: a memory configured to store a virtual non-contrast image enhancing module that includes computer executable instructions including a neural network trained to produce image quality enhanced virtual non-contrast images, wherein the neural network is trained with training contrast-enhanced multi-energy spectral projection data generated from a spectral scan and training non-contrast-enhanced images generated from a non-contrast-enhanced scan; and a processor configured to process the contrast-enhanced multi-energy spectral projection data with the trained neural network to produce the image quality enhanced virtual non-contrast images. a memory configured to store a virtual non-contrast image enhancing module that includes computer executable instructions including a neural network trained to produce image quality enhanced virtual non-contrast images, wherein the neural network is trained with training contrast-enhanced multi-energy spectral projection data generated from a spectral scan and training non-contrast-enhanced images generated from a non-contrast-enhanced scan; and a processor configured to process the contrast-enhanced multi-energy spectral projection data with the trained neural network to produce the image quality enhanced virtual non-contrast images.
A leakage flow control system for a turbine comprising: a first rotor blade with a first tip shroud; a second rotor blade with a second tip shroud , the second rotor blade positioned downstream of the first rotor blade in the direction of a mainstream flow through the turbine; a first diaphragm that forms a partition between pressure stages in a turbine casing of the turbine; a first extension ring coupled to the first diaphragm and positioned adjacent to the first tip shroud , the first extension ring and the first tip shroud forming a first gap therebetween, through which a tip leakage jet flows during operation; a tip balance slit formed at least partially in the first diaphragm , the tip balance slit being in communication with the first gap for receiving the tip leakage jet therefrom and forming a downstream path for the tip leakage jet , which extends from the first rotor blade to the second rotor blade ; and a tip balance slit outlet in communication with the tip balance slit and/or a chamber at an end of the tip balance slit , the tip balance slit outlet configured to reintroduce the tip leakage jet to the mainstream flow near the second rotor blade , wherein the tip balance slit outlet is at least partially angled against the mainstream flow and configured to swirl the flow of the tip leakage jet onto the second tip shroud of the second rotor blade to minimize windage losses, to put positive work into the second tip shroud , and to provide a steam blanketing effect. a first rotor blade with a first tip shroud; a second rotor blade with a second tip shroud , the second rotor blade positioned downstream of the first rotor blade in the direction of a mainstream flow through the turbine; a first diaphragm that forms a partition between pressure stages in a turbine casing of the turbine; a first extension ring coupled to the first diaphragm and positioned adjacent to the first tip shroud , the first extension ring and the first tip shroud forming a first gap therebetween, through which a tip leakage jet flows during operation; a tip balance slit formed at least partially in the first diaphragm , the tip balance slit being in communication with the first gap for receiving the tip leakage jet therefrom and forming a downstream path for the tip leakage jet , which extends from the first rotor blade to the second rotor blade ; and a tip balance slit outlet in communication with the tip balance slit and/or a chamber at an end of the tip balance slit , the tip balance slit outlet configured to reintroduce the tip leakage jet to the mainstream flow near the second rotor blade , wherein the tip balance slit outlet is at least partially angled against the mainstream flow and configured to swirl the flow of the tip leakage jet onto the second tip shroud of the second rotor blade to minimize windage losses, to put positive work into the second tip shroud , and to provide a steam blanketing effect.
A forest trailer for transporting agricultural or forestry goods comprising - a central longitudinal beam , - at least one axle mounted in supporting relationship on the longitudinal beam , and - a fixing platform suitable for fixing and carrying a crane , wherein the longitudinal beam extends with a continuous cross-section at least from the fixing platform to the at least one axle , characterised in that the longitudinal beam functions as a fixing platform , wherein fixing of the crane to the fixing platform is effected by way of a screw connection and in the region of the fixing platform the longitudinal beam is of a multi-layer structure or is provided with a thickening for reinforcing the longitudinal beam and the continuous cross-section of the longitudinal beam is substantially unchanged over the length of the longitudinal beam , wherein the longitudinal beam is of a cross-sectional shape having at least four, five, six, seven and so forth corners. - a central longitudinal beam , - at least one axle mounted in supporting relationship on the longitudinal beam , and - a fixing platform suitable for fixing and carrying a crane ,
Power supply device for providing an output voltage and an output current , wherein the power supply device has a first operating state and a second operating state , comprising: a measuring arrangement for detecting a current amplitude of the output current of the power supply device ; and a signal generator for generating the output voltage and the output current , wherein the signal generator is configured to reduce a voltage amplitude of the output voltage of the power supply device in the first operating state of the power supply device to transition into the second operating state , if the detected current amplitude falls below a first current threshold value , and wherein the signal generator is configured to increase a voltage amplitude of the output voltage of the power supply device in the second operating state of the power supply device to transition to the first operating state , if the detected current amplitude exceeds a second current threshold value , characterized in that the signal generator is configured to reduce the voltage amplitude of the output voltage of the power supply device in the first operating state after an adjustable or pre-stored first delay time interval has elapsed, and the signal generator is configured to increase the voltage amplitude of the output voltage of the power supply device in the second operating state after a pre-stored second delay time interval has elapsed after detecting the exceeding of the second current threshold value of the current amplitude. a measuring arrangement for detecting a current amplitude of the output current of the power supply device ; and a signal generator for generating the output voltage and the output current , wherein the signal generator is configured to reduce a voltage amplitude of the output voltage of the power supply device in the first operating state of the power supply device to transition into the second operating state , if the detected current amplitude falls below a first current threshold value , and wherein the signal generator is configured to increase a voltage amplitude of the output voltage of the power supply device in the second operating state of the power supply device to transition to the first operating state , if the detected current amplitude exceeds a second current threshold value , characterized in that the signal generator is configured to reduce the voltage amplitude of the output voltage of the power supply device in the first operating state after an adjustable or pre-stored first delay time interval has elapsed, and the signal generator is configured to increase the voltage amplitude of the output voltage of the power supply device in the second operating state after a pre-stored second delay time interval has elapsed after detecting the exceeding of the second current threshold value of the current amplitude.
A refrigerator , comprising: a refrigerator body, and at least one door body configured to close the refrigerator body, the at least one door body comprises: a front panel , a rear panel , and side panels respectively connected to the front panel and the rear panel to form a foaming space, the front panel being made of a metal material; the front panel is provided with a plurality of irregular run-through accommodating holes , each of which is in a predetermined shape; a display unit arranged in the foaming space and partially embedded in the accommodating holes ; and a control unit configured to control the display unit to be in a light-emitting state or a normal display state; characterized in that the display unit comprises: a light-transmissive plate embedded in the accommodating holes , and an LED light guide plate corresponding to the light-transmissive plate and configured to provide a light source to the display unit; the light-transmissive plate is made of a light-transmissive material; a front surface of the light-transmissive plate away from the rear panel smoothly transitions with a front surface of the front panel ; the light-transmissive plate comprises a light-transmissive portion which is embedded in and completely matched with the accommodating holes , and a first fixing member integrally formed with the light-transmissive portion and configured to detachably connect to the front panel; the light-transmissive portion is exposed on the outer surface of the accommodating holes , and is provided with a light-transmissive film having the same color as the front panel . a front panel , a rear panel , and side panels respectively connected to the front panel and the rear panel to form a foaming space, the front panel being made of a metal material; the front panel is provided with a plurality of irregular run-through accommodating holes , each of which is in a predetermined shape; a display unit arranged in the foaming space and partially embedded in the accommodating holes ; and a control unit configured to control the display unit to be in a light-emitting state or a normal display state; characterized in that the display unit comprises: a light-transmissive plate embedded in the accommodating holes , and an LED light guide plate corresponding to the light-transmissive plate and configured to provide a light source to the display unit; the light-transmissive plate is made of a light-transmissive material; a front surface of the light-transmissive plate away from the rear panel smoothly transitions with a front surface of the front panel ; the light-transmissive plate comprises a light-transmissive portion which is embedded in and completely matched with the accommodating holes , and a first fixing member integrally formed with the light-transmissive portion and configured to detachably connect to the front panel; the light-transmissive portion is exposed on the outer surface of the accommodating holes , and is provided with a light-transmissive film having the same color as the front panel .
A method for dynamically adjusting a combustion heater having one or more burners , the method comprising: receiving in-heater data defining current operating conditions of the combustion heater; determining available airflow at each burner within the combustion heater based on the in-heater data; generating a fuel-pressure trip setting based on the available airflow at each burner; and, controlling the combustion heater according to the fuel-pressure trip setting. receiving in-heater data defining current operating conditions of the combustion heater; determining available airflow at each burner within the combustion heater based on the in-heater data; generating a fuel-pressure trip setting based on the available airflow at each burner; and, controlling the combustion heater according to the fuel-pressure trip setting.