mhurhangee/ep-ind-claims huggingface dataset:
A Sb-Te-based alloy sintered sputtering target having a Sb content of 10 to 60 at%, a Te content of 20 to 60 at%, optionally further containing: one or more types of elements selected from Ga, Ti, Au, Pt, Pd, Bi, B, C, Mo and Si in an amount of 30 at% or less; and/or one or more types of elements selected from Ga, Ti, Au, Pt, Pd, Bi, B, C, Mo and Si as oxides; and/or oxides of one or more types of elements selected from Mg, Al, Si, Ti, Cu, Y, Zr, Nb, Hf, Ta, Ce and Cd in an amount of 0.1 to 5 mol%, the remainder being one or more types of elements selected from Ag, In and Ge and unavoidable impurities, wherein an average grain size of oxides is 0.5 μm or less and an average content of oxygen in the target is 1500 to 2500 wtppm. one or more types of elements selected from Ga, Ti, Au, Pt, Pd, Bi, B, C, Mo and Si in an amount of 30 at% or less; and/or one or more types of elements selected from Ga, Ti, Au, Pt, Pd, Bi, B, C, Mo and Si as oxides; and/or oxides of one or more types of elements selected from Mg, Al, Si, Ti, Cu, Y, Zr, Nb, Hf, Ta, Ce and Cd in an amount of 0.1 to 5 mol%,
A device for treating a breathing-related sleep disorder of a subject, the device comprising at least a first actuator, and a control unit, wherein the first actuator is configured for external mechanical contact with the subject, wherein the actuator is arranged on a holder in the form of a neck belt, wherein the control unit is configured to control the first actuator to provide at least one burst of a first primary vibration, during a burst duration which starts at the turning on of the actuator and stops at the turning off of the actuator, and wherein the first primary vibration has one or several frequencies, or a frequency varying, within an operative frequency range contained in a range from 5 Hz to 1000 Hz, in order for the device to generate a shear wave inside the body of the subject, wherein the primary vibration has a frequency content spanning a delivered frequency band contained in, or overlapping, the operative frequency range contained in a range from 5 Hz to 1000 Hz, and wherein the delivered frequency band spans at least 10 Hz. wherein the first actuator is configured for external mechanical contact with the subject, wherein the actuator is arranged on a holder in the form of a neck belt, wherein the control unit is configured to control the first actuator to provide at least one burst of a first primary vibration, during a burst duration which starts at the turning on of the actuator and stops at the turning off of the actuator, and wherein the first primary vibration has one or several frequencies, or a frequency varying, within an operative frequency range contained in a range from 5 Hz to 1000 Hz, in order for the device to generate a shear wave inside the body of the subject, wherein the primary vibration has a frequency content spanning a delivered frequency band contained in, or overlapping, the operative frequency range contained in a range from 5 Hz to 1000 Hz, and wherein the delivered frequency band spans at least 10 Hz.
A multifunctional support bracket, characterized in comprising: a main body; a spherical base, arranged on an upper part of the main body, having a spherical concave shape with an upward-facing opening, and provided with a cooperation member for being fixedly connected to a spherical-bottomed ball head; a flat-bottomed platform, having one side face detachably fixed to the opening of the spherical base through the cooperation member, and having the other side face provided with a connection member for being fixedly connected to a flat-bottomed ball head; characterized by a plurality of fastening members, provided on the flat-bottomed platform and disposed around the center of the flat-bottomed platform, for abutting against the flat-bottomed ball head, wherein the axis of each of the fastening members intersects the axis of the flat-bottomed platform at a point on the upper side of the flat-bottomed platform. a main body; a spherical base, arranged on an upper part of the main body, having a spherical concave shape with an upward-facing opening, and provided with a cooperation member for being fixedly connected to a spherical-bottomed ball head; a flat-bottomed platform, having one side face detachably fixed to the opening of the spherical base through the cooperation member, and having the other side face provided with a connection member for being fixedly connected to a flat-bottomed ball head; characterized by a plurality of fastening members, provided on the flat-bottomed platform and disposed around the center of the flat-bottomed platform, for abutting against the flat-bottomed ball head, wherein the axis of each of the fastening members intersects the axis of the flat-bottomed platform at a point on the upper side of the flat-bottomed platform.
Rotational absorber device for scrubbing an absorbate from a gas, the device comprising a housing having a gas inlet, a gas outlet, an absorbent liquid inlet and means for providing a sustained flow of absorbent liquid to the absorbent liquid inlet, and an absorbent liquid outlet; a rotor mounted for rotation in said housing and connecting to the inlets and outlets, the rotor comprising a plurality of scrubbing channels extending axially and parallel to a common rotation axis, wherein the channels are circumferentially enclosed by walls over an entire axial length of the rotor between the absorbent liquid inlet and the absorbent liquid outlet; wherein the device further comprises means for rotating the rotor causing the absorbent liquid fed to the rotor to be at least partly separated from the gas fed to the rotor, and exit the rotor in the form of absorbent liquid droplets that are propelled radially outwards with respect to a central axis of rotation of the rotor towards the absorbent liquid outlet where the absorbent liquid is discarded.
A method comprising: providing for operation of a mobile device in accordance with a first level of functionality having a first number of inputs that are operable, the first level of functionality being a locked mode of the mobile device; providing for operation of the mobile device in accordance with a second level of functionality having a second number of inputs that are operable, the second level of functionality being an unlocked mode of the mobile device; providing for operation of a mobile device in accordance with a third level of functionality having a third number of inputs that are operable, the third level of functionality being a locked mode of the mobile device, wherein the third number of inputs is greater than the first number of inputs; receiving an input while operating in accordance with the first level of functionality; if the input is of a first type, causing operations to change from being conducted in accordance with the first level of functionality to being conducted in accordance with the third level of functionality by enabling some, but not all, available sensors of the mobile device, wherein the third level of functionality includes functions that are not available or not used in the second level of functionality; and if the input is of a second type that is different to the first type, causing operations to change from being conducted in accordance with the first level of functionality to being conducted in accordance with the second level of functionality. providing for operation of a mobile device in accordance with a first level of functionality having a first number of inputs that are operable, the first level of functionality being a locked mode of the mobile device; providing for operation of the mobile device in accordance with a second level of functionality having a second number of inputs that are operable, the second level of functionality being an unlocked mode of the mobile device; providing for operation of a mobile device in accordance with a third level of functionality having a third number of inputs that are operable, the third level of functionality being a locked mode of the mobile device, wherein the third number of inputs is greater than the first number of inputs; receiving an input while operating in accordance with the first level of functionality; if the input is of a first type, causing operations to change from being conducted in accordance with the first level of functionality to being conducted in accordance with the third level of functionality by enabling some, but not all, available sensors of the mobile device, wherein the third level of functionality includes functions that are not available or not used in the second level of functionality; and if the input is of a second type that is different to the first type, causing operations to change from being conducted in accordance with the first level of functionality to being conducted in accordance with the second level of functionality.
A non-natural, monomeric, soluble, mammalian MHC class I chain-related molecule comprising an α1-α2 platform domain attached to a targeting motif, wherein the α1-α2 platform domain is at least 80% identical to a native α1-α2 platform domain of a human MICA, selected from the group consisting of SEQ ID NOs: 1-6 and 13, or MICB protein, selected from the group consisting of SEQ ID NOs: 7-12, and wherein the α1-α2 platform domain binds an NKG2D receptor, wherein the targeting motif comprises a MIC α3 domain and more than one heterologous peptide, wherein the heterologous peptides are inserted into the MIC α3 domain within one or more solvent-exposed loops, wherein the solvent-exposed loops correspond to amino acids positions 190-199 or 250-258 of the α3 domain of a MICA or MICB protein selected from the group consisting of SEQ ID NOs: 1-13 and wherein the heterologous peptides direct the binding of the targeting motif to one or more target molecules on one or more target cells, thereby delivering the attached α1-α2 platform domain to the target cell.
A nuclear density gauge for measuring the density of a sample construction material, the nuclear density gauge comprising: (a) a radiation source positioned for emitting radiation into a sample construction material; (b) a radiation detector positioned apart from the radiation source and being operable to produce a signal representing an energy level of detected radiation, wherein the radiation source is a gamma radiation source and the radiation detector is an energy-selective gamma radiation detector; and (c) means for performing a material property calculation function, said means configured to calculate a value associated with the density of the sample construction material based upon the signal produced by the radiation detector, wherein the signal representing an energy level of detected radiation represents a predetermined portion of an energy spectrum of the detected radiation, and wherein the means for performing the material property calculation function is configured to calculate the value associated with the density of the sample material based upon the predetermined portion of the energy spectrum of the detected radiation. (a) a radiation source positioned for emitting radiation into a sample construction material; (b) a radiation detector positioned apart from the radiation source and being operable to produce a signal representing an energy level of detected radiation, wherein the radiation source is a gamma radiation source and the radiation detector is an energy-selective gamma radiation detector; and (c) means for performing a material property calculation function, said means configured to calculate a value associated with the density of the sample construction material based upon the signal produced by the radiation detector,
A phacoemulsification system for treating an ocular condition at a surgical site, comprising: a hand-graspable body; an irrigation system carried on the hand-graspable body and configured to convey an irrigation fluid for injection from a distal end of the hand-graspable body to the surgical site; and an aspiration system carried on the hand-graspable body and configured to convey an aspiration fluid into the distal end of the hand-graspable body from the surgical site, the aspiration system comprising: an aspiration motor, characterized in that it also comprises: an impeller pump comprising an impeller chamber, and a flexible impeller rotatably disposed in the impeller chamber and coupled to and rotatably driven by the aspiration motor, the flexible impeller being arranged to aspirate fluid and emulsified lens tissue from the surgical site. a hand-graspable body; an irrigation system carried on the hand-graspable body and configured to convey an irrigation fluid for injection from a distal end of the hand-graspable body to the surgical site; and an aspiration system carried on the hand-graspable body and configured to convey an aspiration fluid into the distal end of the hand-graspable body from the surgical site, the aspiration system comprising: an aspiration motor, characterized in that it also comprises: an impeller pump comprising an impeller chamber, and a flexible impeller rotatably disposed in the impeller chamber and coupled to and rotatably driven by the aspiration motor, the flexible impeller being arranged to aspirate fluid and emulsified lens tissue from the surgical site. an impeller pump comprising an impeller chamber, and a flexible impeller rotatably disposed in the impeller chamber and coupled to and rotatably driven by the aspiration motor, the flexible impeller being arranged to aspirate fluid and emulsified lens tissue from the surgical site.
An automatic control device for the handles of plastic bags disposed in stacks comprising at least one video camera adapted to capture the image of at least one of said stacks of bags, and processing means adapted to process the pixels of the image captured by the at least one video camera to obtain a faithful geometrical reproduction of the stack; characterised in that: - the at least one video camera is adapted to capture the image of said at least one stack of bags in the position of the handles; - the processing means are adapted to reconstruct the outline of the handles to measure the width of the handles and to assess whether the measured width of the handles comes within a pre-set range of tolerance, wherein said automatic control device further includes film guide devices, disposed upstream of the bag forming unit, said film guide devices being controlled by said means for processing the image captured by said video camera. - the at least one video camera is adapted to capture the image of said at least one stack of bags in the position of the handles; - the processing means are adapted to reconstruct the outline of the handles to measure the width of the handles and to assess whether the measured width of the handles comes within a pre-set range of tolerance,
Sanitary fitting comprising - a fitting body that can be mounted on a washstand, - a mixing device arranged in the fitting body, wherein the mixing device comprises at least one water input (3, 4) on its lower side and one water output on its upper side, - a water outlet connected to the water output of the mixing device, - a soap pump and - a soap outlet connected to the soap pump, wherein the soap pump is arranged within the fitting body above the mixing device and the soap pump is arranged in the fitting body is such a way that the soap pump can be replaced from the upper side of the fitting body. - a fitting body that can be mounted on a washstand, - a mixing device arranged in the fitting body, wherein the mixing device comprises at least one water input (3, 4) on its lower side and one water output on its upper side, - a water outlet connected to the water output of the mixing device, - a soap pump and - a soap outlet connected to the soap pump,
A system for providing nebulized fluid to a ventilated patient, comprising: a ventilator and a breathing circuit (88,89,90,91), a vibratory aerosolization element having a first face, a second face and a plurality of apertures therethrough; an interface for depositing fluid on the first face of the aerosolization element; a controller configured to control vibration of the vibratory aerosolization element according to an operation program, characterized in that: the interface is configured to receive a nebule in such a manner that fluid from the nebule may be deposited on the first face of the aerosolization element, the nebule including an identification marker; the controller is configured to read the identification marker on the nebule, with the operation program used by the controller to control vibration of the vibratory aerosolization element being based on the information read from the identification marker on the nebule; and wherein the controller may be configured to vibrate the vibratory aerosolization element during a selected interval of a breathing cycle. a ventilator and a breathing circuit (88,89,90,91), a vibratory aerosolization element having a first face, a second face and a plurality of apertures therethrough; an interface for depositing fluid on the first face of the aerosolization element; a controller configured to control vibration of the vibratory aerosolization element according to an operation program, characterized in that: the interface is configured to receive a nebule in such a manner that fluid from the nebule may be deposited on the first face of the aerosolization element, the nebule including an identification marker; the controller is configured to read the identification marker on the nebule, with the operation program used by the controller to control vibration of the vibratory aerosolization element being based on the information read from the identification marker on the nebule; and wherein the controller may be configured to vibrate the vibratory aerosolization element during a selected interval of a breathing cycle. the interface is configured to receive a nebule in such a manner that fluid from the nebule may be deposited on the first face of the aerosolization element, the nebule including an identification marker; the controller is configured to read the identification marker on the nebule, with the operation program used by the controller to control vibration of the vibratory aerosolization element being based on the information read from the identification marker on the nebule; and wherein the controller may be configured to vibrate the vibratory aerosolization element during a selected interval of a breathing cycle.
A method for protecting a heat dissipation fan of a projecting device, characterized by comprising: when the projecting device is in a working state, real-time obtaining fall-related information when the projecting device is falling; determining fall state information of the heat dissipation fan according to the fall-related information of the projecting device; when the fall state information of the heat dissipation fan is in a falling state and the heat dissipation fan is in a working state, terminating an operation of the heat dissipation fan. when the projecting device is in a working state, real-time obtaining fall-related information when the projecting device is falling; determining fall state information of the heat dissipation fan according to the fall-related information of the projecting device; when the fall state information of the heat dissipation fan is in a falling state and the heat dissipation fan is in a working state, terminating an operation of the heat dissipation fan.
Sabot having a push-pull function, the sabot comprising a plurality of sabot segments (1.1, 1.2, 1.3) adjoining one another in a circumferential direction, which sabot segments each have a front part in a firing direction as a push part, and a rear part in the firing direction as a pull part, between which front part and rear part a pressure flange is located, the sabot having a rear end opposite the firing direction and a front end in the firing direction, the sabot being designed at the rear end opposite the firing direction in such a way that a low degree of flexural rigidity is achieved at this end, in that the end is approximately cylindrical and is formed with a thinner wall thickness of the relevant rear part of the sabot segments (1.1, 1.2, 1.3) than further forward in the firing direction at the relevant rear part of the sabot segments (1.1, 1.2, 1.3), andcharacterized in that the rear part and the front part have recesses (5, 6) in the sabot segments (1.1, 1.2, 1.3), which recesses are delimited in the peripheral direction by struts (8, 9) extending in the firing direction, the struts (8, 9) extending between the rear end opposite the firing direction and the pressure flange, and between the front end in the firing direction and the pressure flange.
An intravascular measuring system comprising: a guidewire; an intravascular sensor delivery device comprising: a lumen adapted to slidably receive the guidewire; a first sensor adapted to measure blood pressure and generate a first signal representative of the blood pressure; and a second sensor, comprising an electrode arrangement, adapted to measure a cross-sectional area of a surrounding anatomical structure and generate a second signal representative of the cross-sectional area; an injection device adapted to inject a fluid having a known conductivity into the anatomical structure; and a processor adapted to receive the first signal from the first sensor and the second signal from the second sensor; characterized in that the intravascular sensor delivery device further comprises a movable sheath adapted to cover and uncover the electrode arrangement. a guidewire; an intravascular sensor delivery device comprising: a lumen adapted to slidably receive the guidewire; a first sensor adapted to measure blood pressure and generate a first signal representative of the blood pressure; and a second sensor, comprising an electrode arrangement, adapted to measure a a lumen adapted to slidably receive the guidewire; a first sensor adapted to measure blood pressure and generate a first signal representative of the blood pressure; and a second sensor, comprising an electrode arrangement, adapted to measure a cross-sectional area of a surrounding anatomical structure and generate a second signal representative of the cross-sectional area; an injection device adapted to inject a fluid having a known conductivity into the anatomical structure; and a processor adapted to receive the first signal from the first sensor and the second signal from the second sensor; characterized in that the intravascular sensor delivery device further comprises a movable sheath adapted to cover and uncover the electrode arrangement.