Abstract:
An encapsulatable life support mechanism (ELSM) for an analyzed animal, including: a cradle or bed adapted by means of size and shape to accommodate the animal; an anesthetization gas mask (AGM) characterized by a cup with conic cross section, comprising a plurality of apertures located at the outer circumference of the cup; a fluid supplying mechanism (FSM) in which the AGM is placed, the FSM is in a continuous fluid communication with (i) an anesthetization gas inlet positioned outside the ELSM and an outlet located within the ELSM; (ii) an air suction scavenging device positioned outside the ELSM and a mask and an air suction outlet located within the ELSM; and a plurality of (iii) air conditioning tubes; and an airtight shell enveloping the same. The airtight ELSM prevent leakage of anesthetization gas.
Abstract:
A magnetic shielding mechanism for preventing penetration of metallic objects through an aperture, towards the open bore of an magnetic resonance imaging device, where the magnetic field is maximized. The magnetic resonance imaging device produces a fringing magnetic field that decreases with increasing distance (L) from the aperture. The mechanism includes at least one magnet with a magnetic field. The mechanism is affixed at a distance from the aperture of magnetic resonance imaging device.
Abstract:
A standard of care protocol for preventing gossypiboma during surgery. The protocol including: selecting one or more surgical items from a group consisting of: non-metallic surgical items marked with detectable metal indicia; metallic surgical items; metallic surgical items marked with the detectable metal indicia; providing one or more metal detectors in connection with the selected at least one of the surgical items; and identifying, using at least one metal detector, detectable metal items in the patient.
Abstract:
The present invention discloses methods, gantry, and room's infrastructure for maneuvering a portable open-bore magnetic resonance device with no fringing of its magnetic field (MRD) from at least one first location towards at least one static patient placed at at least one second remote location. The gantry comprises a transporting mechanism; and, an open-bore MRD, interconnected to the gantry by at least one maneuverable member. The MRD, by means of the gantry, is transportable from the first location to the second remote location adjacent the static patient. The aperture of the MRD's open-bore, by means of said maneuverable member, is directable towards a defined spatially orientation facing the static patient.
Abstract:
A method and system are provided for providing values for control signals for a pulsed magnetic resonance spectrometer such as an NMR spectrometer or an MRI apparatus. The AC output(s) corresponding to a particular signal (e.g. a magnetization or gradient pulse or pulse sequence) originating from a source spectrometer is measured and stored by an independent control unit. The digital output of the independent control unit is then connected to the digital input of the control electronics of a target pulsed magnetic resonance spectrometer, the value of the digital output varied until the AC output(s) of the appropriate signal source of the target spectrometer matches that of the corresponding output(s) of the source spectrometer, corrected, if necessary, for differences in magnetic field strengths.
Abstract:
A docking-station useful for providing a neonate predefined, continuous, stabilized and non-interrupted life-support environmental conditions, comprising of: (i) a neonate incubator, having at least one first opening and a life support system, and (ii) an imaging-device, having a scanning chamber with at least one second opening. The docking-station is configured such that said neonate incubator first opening and said scanning chamber second opening are juxtapose-able so as to reversibly hermetically communicate; thereby providing said neonate predefined, continuous, stabilized, non-interrupted life-support environmental conditions during the entire process of scanning.
Abstract:
The present invention provides an MRI-based hazard screening system for detecting contaminating particles within or on the surface of an object, the system characterized by a. a sampling environment adapted for at least partially confining said object; said sampling environment is in fluid communication with at least one inlet and at least one fluid outlet; b. a fluid streamer for streaming a fluid, throughout said at least one inlet, towards said sampling environment where said fluid effectively interfaces said object; and further throughout said at least one outlet; c. an MRI device in fluid communication with said at least one outlet, adapted for providing an image of said particles streamed by said fluid thereby screening the presence of said particles within or on the surface of said object.
Abstract:
A non-destructive resonance (NDR) method of measuring and controlling an O2 fraction, a CO fraction, or a CO2 fraction in a gas process stream. The method includes: determining the resonance frequency of an off-line standard gas composition; scanning a predetermined characteristic parameter around the predetermined resonance frequency; plotting a first 3D chart to obtain a 3D vector; flowing gas through the NDR system; on-line scanning a corresponding on-line measured parameter around the resonance frequency, and recording the same; plotting a second 3D chart to obtain a 3D vector which precisely identifies the value of the second measured parameter; comparing a 3D standard first vector to the 3D measured second vector; and correlating between a relative characteristic parameter change and the change in the gas fraction.