50results about "Testing radioactive materials" patented technology

The present invention relates to an electronic, integrated, nose and tongue device, which can be stationary or portable (movable) and is designed for real-time monitoring and analyzing information about liquid substances of any kind, as well as toxic, flammable, choking, radioactive and/or polluting gases present in the air or water, which is achieved by the use of artificial intelligence algorithms capable of classifying and training the system so as to recognize the different sign patterns sent by the electronic nose and the electronic tongue. Embodiments described herein can be used in outdoor conditions and complicated areas or connected to water treatment systems, such as those used in electro-coagulation, wherein such a device may be connected to the inlet piping of the treatment systems and can determine how much energy must be used by the electro-coagulators according to the contamination degree of the water.

An automated microprocessor-controlled monitoring system for the sampling and analysis of environmental contamination has independent multiple sample chambers 47, 48. The sample chambers are populated with multiple analytical sensors 59, 60, 61, Multiple water level sensors 49, 50, 135 located in the sample chambers are capable of determining the volume of sample, or standard, introduced into the individual sample chambers. The monitoring system is standardized with independent calibration modules 7L 80, 89 to support the analytical sensors in the sample chambers. This configuration of a monitoring system allows a “plug and play” configuration with all analytical sensors capable of standardization. The system anticipates the incorporation of future sensing methodologies through its flexible design. The disclosed system is capable of operating multiple pumps 17, 18, 19 and measuring the water levels 30, 31, 32 in multiple monitoring wells 36, 37, 38 allows for the automated acquisition of data for slug, aquifer, and tracer tests. Other embodiments are described and illustrated.

The invention relates to a device for measuring the volume of a sample, that comprises two cavities formed in a same block, pressure sensors (3, 4) mounted on the block and surrounded by a radiation shield (28) and connected to the sample chamber (1) by curved ducts. A temperature sensor (25) is also added. The apparatus can be used for measuring the volume of radioactive samples by gas expansion in an expansion chamber (2) without the radiations damaging the pressure sensors (3, 4) while allowing for the correction of temperature-rise effects.

This disclosure provides a system and method for inspecting a component. The device can have a detector positioning system coupled to a detector and operable to move the detector within five degrees of freedom. The device can have an emitter positioning system operably coupled to the emitter and operable to move the emitter in three dimensions. The device can move the detector to a reference point above the component, the reference point being separated by a radius (ρ) on the applicate axis from an inspection point on the component. The controller can also receive at least one input from a display, and command the detector to a detector position within a spherical dome centered on the reference point based on the at least one input.

Embodiments of the present invention relate to microfluidic devices and systems comprising such devices for use in the determination of sample characteristics. Certain embodiments relate to methods for determining one or more characteristics of a sample comprising a compound for in vivo use. Aptly, certain embodiments of the present invention relate to devices and methods for assessing radiopharmaceuticals and their suitability for administration to a patient in need thereof.

The system for automatic determination of the density of an object (100) comprises:

• • an apparatus (2) to determine a significant dimension (x) of said object (100),
  • an apparatus (30) to determine the intensity (I) of a photon beam attenuated by passing through said object (100),
  • an acquisition, processing and analysis apparatus (200),
  • means (70, 72, 80, 82, 84, 86, 88) of transporting the object (100),
  • first means (74, 76, 78) of adjusting the position of the object (100),
  • second means (90, 92, 94, 96, 98) of adjusting the position of the object (100).

The method for using the system described above includes steps to calibrate components of apparatuses 2 and 30, and steps to actually determine the significant dimension of objects (100), that are done on each object (100) in said set of objects.

A circumferential sampling tool for obtaining samples from an interior wall of a tube has a cylindrical body, a shaft disposed in the cylindrical body, a first cutter, a second cutter being disposed at an angle to first cutter, a third cutter, and a fourth cutter being disposed at an angle to the third cutter. The first, second, third and fourth cutters are operatively connected to the shaft for rotation therewith. Each of the cutters is movable radially between a retracted and an extended position in response to rotation of the shaft in order to obtain samples from the tube. A method of obtaining samples from an interior wall of a tube is also disclosed.

The present invention relates to monolithic bodies, uses thereof and processes for the preparation thereof. Certain embodiments of the present invention relate to the use of a monolithic body in the preparation of a radioactive substance, for example a radiopharmaceutical, as part of a microfluidic flow system and a process for the preparation of such a monolithic body.

A technique and device to determine the spectrum of electromagnetic radiation in a certain range of wavelengths comprising: splitting said radiation into more than one beam; let these beams counter-propagate in a Sagnac-type ring interferometer; and imprinting a wavelength-dependent angular tilt onto the wavefront of each beam by at least one dispersive element which preferably is a transmission grating or grism; and re-combining the multiple beams on a detector that exhibits spatial resolution and can therefore resolve the fringes formed by interference; and perform the mathematical operations to determine the spectrum of said radiation from the obtained interferogram, wherein the dispersive element is mounted on a stage providing linear and/or rotational movement.

Information is obtained from a storage container that houses hazardous or potentially harmful waste. A sensor device is inserted into the container to allow a sensor using a sensor well to extend into the container. The sensor collects information on the conditions of the waste. The sensor well extends through a hole for a filter that vents gasses or vapors from the container. The sensor device also includes a housing with circuitry to perform the sensing as well as transmit and receive signals. In this manner, the sensor device transmits signals with information about the materials within the container for remote monitoring.

The disclosure relates to a manufactured composition, material or device comprising at least two different nonradioactive isotope atoms. Each nonradioactive isotope atom is present in an amount sufficient to increase the total amount of the nonradioactive isotope atom above the total amount found in the manufactured composition, material or device in the absence of adding the nonradioactive isotope atom to increase said total amount. The ratio(s) of the at least two nonradioactive isotopes in the manufactured composition, material or device are measurably different than the ratio(s) found in the manufactured composition, material or device in the absence of adding the nonradioactive isotope atom to increase said total amount.

The invention provides automatic detection and cleaning equipment for building materials, which relates to the field of building detection equipment. The detection equipment includes a base plate, the base plate and the limit plate are fixedly connected by spring wires, the limit plate cylinder is provided at the lower end of the limit plate, the feeding conveying port is provided at the upper end of the base plate, and the first rack rod is provided at the upper end of the feeding conveying port. There is a control lever on one side of the first frame rod, a screening port on the side of the feeding port, a conveying track on the upper end of the screening port, a translation detector on the surface of the transporting track, and a brush cylinder inside the building material testing box. , the lower end of the building material detection box is equipped with a control device, the inside of the control device is equipped with a detector, and the surface of the control device is equipped with an indicator light, which solves most of the detection equipment in the current market mentioned above. Carelessness in the process leads to problems in the work, waste of energy and financial resources for repairs, unqualified products will cause radiation damage to the body of the staff, and will cause radiation damage to people.

The invention discloses a uranium tailings radon precipitation test device under electric field effect. The test device comprises an insulation reaction tank for filling a sample in dispersion; a voltage loading device for providing on-load voltage for the sample is arranged on the insulation reaction tank, a heating tank for heating the sample in the insulation reaction tank is arranged at the outer of the insulation reaction tank in a sleeve manner; a data collection system and a pressure supply system for providing air pressure for the internal space of the insulation reaction tank are arranged on the insulation reaction tank. A more concise and safer brand-new method is provided for the test of precipitation condition of the radon under the effect of different DC or AC voltages, temperatures, and air pressure, and the theoretical basis and application value are provided for the radon-reduction and radon-controlling of the uranium tailings stacked at an earth surface tailings pond.