Separation systems containing a relatively long-lived parent radionuclide which produces a short-lived daughter in its decay scheme. The daughter can be periodically extracted (milked) by means of an appropriate eluting agent.
A metallic element with the atomic symbol Ir, atomic number 77, and atomic weight 192.22.
Isotopes that exhibit radioactivity and undergo radioactive decay. (From Grant & Hackh's Chemical Dictionary, 5th ed & McGraw-Hill Dictionary of Scientific and Technical Terms, 4th ed)
The production of an image obtained by cameras that detect the radioactive emissions of an injected radionuclide as it has distributed differentially throughout tissues in the body. The image obtained from a moving detector is called a scan, while the image obtained from a stationary camera device is called a scintiphotograph.
The measurement of visualization by radiation of any organ after a radionuclide has been injected into its blood supply. It is used to diagnose heart, liver, lung, and other diseases and to measure the function of those organs, except renography, for which RADIOISOTOPE RENOGRAPHY is available.
Imaging of a ventricle of the heart after the injection of a radioactive contrast medium. The technique is less invasive than cardiac catheterization and is used to assess ventricular function.

Performance of a 62Zn/62Cu generator in clinical trials of PET perfusion agent 62Cu-PTSM. (1/45)

The 62Zn/62Cu PET generator can be inexpensively produced and distributed from a single production site operating under typical good manufacturing practice guidelines. It therefore has the potential to greatly facilitate development of clinically practical PET. We report generator performance in a study in which 62Cu-pyruvaldehyde-bis(n4-methylthiosemicarbazone (PTSM) myocardial perfusion imaging is compared with 99mTc-sestamibi in the diagnosis of coronary artery disease. The 62Zn/62Cu generator is an improved version of a previously reported system that employs automated synthesis of 62Cu-PTSM. With this approach, the cumbersome step of 18C purification has been eliminated. METHODS: The 62Zn (9.3 h half-life) parent isotope is prepared by proton bombardment of natural copper at 33 MeV. A typical target irradiated with 37.5 microA/h is delivered by 12:00 PM on the day it is to be processed. Purified 62Zn obtained from the target is loaded onto the generator column in 2 mol/L HCl. The generator is eluted using an internal three-channel peristaltic pump, which delivers 2.25 mL eluant (1.8 mol/L NaCl, 0.2 mol/L HCl) through the generator column to elute the 62Cu in 40 s. The same pump simultaneously pumps an equal volume of buffer (0.4 mol/L NaOAc) and 1 mL ligand solution (2 ppm PTSM, 2% EtOH) passing it through a septum into a 35-cc syringe preloaded with 28 mL sterile water. This solution is thoroughly mixed by agitation of the syringe and injected as a bolus through a 0.2 microm filter. The generator is eluted twice before shipping, providing quality assurance samples, and shipped to the clinical site by overnight delivery. Complete quality assurance testing is performed the evening before the generator reaches the clinical site. RESULTS: A total of 34 generators have been produced and shipped to 2 clinical sites for a phase III Food and Drug Administration study. The load activity on the generators at 8:00 AM the day of clinical use was 1.7+/-0.2 GBq (46.7+/-5.6 mCi), and yield was 72%+/-16%. Breakthrough of 62Zn was undetectable by high-purity germanium spectroscopy for all units. Radiochemical purity was 95.4%+/-2.4%. Volume delivered, pH, sterility, and bacterial endotoxin tests yielded passing results on all generators. The entire process of generator production, from target receipt to generator shipment, took less than 6 h and cost approximately $1000, including shipping charges and cyclotron cost. A total of 68 patients were injected with 2 62Cu-PTSM doses, with a mean injected activity of 0.8+/-0.2 GBq (20.5+/-5.3 mCi) with no adverse side effects. CONCLUSION: Results of this work confirm that the 62Zn/62Cu generator is an easily produced, transportable, and inexpensive source of PET radiopharmaceuticals, which can expand the field of clinical PET imaging by providing radiopharmaceuticals to sites not associated with cyclotrons.  (+info)

Simple new method for effective concentration of 188Re solutions from alumina-based 188W-188Re generator. (2/45)

(188)Re is a useful generator-produced radioisotope currently under evaluation for a variety of therapeutic applications, including bone pain palliation and intravascular radiation therapy. Because the (188)W parent is available only in a relatively low specific activity (<0.15-0.19 GBq/mg) from reactor irradiation of enriched (186)W, relatively large volumes of 0.9% saline (>15 mL) are required for elution of the (188)Re daughter from traditional alumina-based (188)W-(188)Re generators. Because these large bolus volumes result in solutions with a relatively low specific volume activity of (188)Re (<1 GBq/mL for the 18.5-GBq generator), the availability of effective methods for eluent concentration is important. Our new approach is based on the use of 0.3 mol/L ammonium acetate as a representative salt of a weak acid instead of saline for generator elution. METHODS: After generator elution, the ammonium acetate generator eluent (15-20 mL) is passed through a tandem IC-H Plus cation (Dowex-H)-anion (QMA Light) column system. Exchange of ammonium cations with hydrogen ions on the cation column forms an acetic acid solution containing perrhenate anions from which the macroscopic levels of the acetate anion of the eluent have been effectively removed. Because perrhenic acid is fully dissociated at this pH, the QMA Light column specifically traps the (188)Re-perrhenate, which is subsequently eluted with a low volume (<1 mL) of saline. Concentration ratios greater than 20:1 are readily achieved with this method. RESULTS: A typical clinical-scale generator loaded with 19.2 GBq (188)W was used to validate the approach. Saline elution provided (188)Re in a 75%-80% yield. Although elution with 0.15 mol/L NH4OAc gave lower yields (55%-60%), use of 0.3 mol/L NH4OAc provided yields comparable with those of saline (70%-75%). (188)W parent breakthrough was not detected after passage of the bolus through the tandem concentration system. Bolus volumes of 15-20 mL, which initially contained as much as 11.1-14.8 GBq (188)Re, were readily concentrated to less than 1 mL saline using QMA Light cartridges. The generator was evaluated for more than 3 mo with no decrease in performance. CONCLUSION: This approach represents a simple, rapid, and effective method using inexpensive disposable components of concentrating solutions of (188)Re for preparation of therapeutic agents.  (+info)

Genotypes associated with virulence in environmental isolates of Vibrio cholerae. (3/45)

Vibrio cholerae is an autochthonous inhabitant of riverine and estuarine environments and also is a facultative pathogen for humans. Genotyping can be useful in assessing the risk of contracting cholera, intestinal, or extraintestinal infections via drinking water and/or seafood. In this study, environmental isolates of V. cholerae were examined for the presence of ctxA, hlyA, ompU, stn/sto, tcpA, tcpI, toxR, and zot genes, using multiplex PCR. Based on tcpA and hlyA gene comparisons, the strains could be grouped into Classical and El Tor biotypes. The toxR, hlyA, and ompU genes were present in 100, 98.6, and 87.0% of the V. cholerae isolates, respectively. The CTX genetic element and toxin-coregulated pilus El Tor (tcpA ET) gene were present in all toxigenic V. cholerae O1 and V. cholerae O139 strains examined in this study. Three of four nontoxigenic V. cholerae O1 strains contained tcpA ET. Interestingly, among the isolates of V. cholerae non-O1/non-O139, two had tcpA Classical, nine contained tcpA El Tor, three showed homology with both biotype genes, and four carried the ctxA gene. The stn/sto genes were present in 28.2% of the non-O1/non-O139 strains, in 10.5% of the toxigenic V. cholerae O1, and in 14.3% of the O139 serogroups. Except for stn/sto genes, all of the other genes studied occurred with high frequency in toxigenic V. cholerae O1 and O139 strains. Based on results of this study, surveillance of non-O1/non-O139 V. cholerae in the aquatic environment, combined with genotype monitoring using ctxA, stn/sto, and tcpA ET genes, could be valuable in human health risk assessment.  (+info)

Federal regulations and reimbursement for PET. (4/45)

OBJECTIVE: The regulatory and reimbursement environment for PET has changed significantly over the past several years. The Food and Drug Administration's (FDA) findings of the safety and efficacy of key PET drugs have been published, as well as guidelines for the applications to produce PET drugs. In addition, the national Medicare coverage policy for PET has been expanded, most recently with additional indications and coverage restrictions added as of July 2001. The payment rates under the new Hospital Outpatient Prospective Payment System (HOPPS) have been set for PET as well. This communication reviews these recent changes and discusses their impact on the development and operation of a PET center. After reading this article, the nuclear medicine technologist should be able to: (a) state the indications for the use of PET drugs that have been found to be safe and effective by the FDA; (b) detail the general procedures a PET drug production site would have to undertake to be in compliance with FDA regulations; (c) list specific studies that have been approved for payment by Medicare; and (d) describe billing codes used for PET scans. Clarification of regulatory and reimbursement issues is leading to rapid expansion of clinical PET. Keeping abreast of these changes will ensure the successful expansion of any nuclear medicine program to include PET services.  (+info)

An assessment of factors which influence the effectiveness of the modified in vivo technetium-99m-erythrocyte labeling technique in clinical use. (5/45)

This study assessed factors which may contribute to suboptimal image quality when the modified in vivo erythrocyte labeling technique is used with standard clinical 99mTc activities. For each assessment duplicate or triplicate blood specimens were withdrawn from > or = 10 patients, into syringes containing 700-900 MBq 99mTc as pertechnetate. After incubation the percent of 99mTc which was not bound to erythrocytes at blood re-injection time (%Unbound 99mTc), was measured and compared when one of four factors was varied. The most significant results, in descending order of measured effect were: [table: see text] Our data suggest that the requirements for optimal erythrocyte labeling with standard clinical 99mTc activities are: (A) Erythrocyte tinning time between 10 and 30 min; (B) blood volume > or = 3 ml; (C) blood incubation time > or = 20 min; and (D) Generator ingrowth time < or = 24 hr.  (+info)

Realizing the potential of the Actinium-225 radionuclide generator in targeted alpha particle therapy applications. (6/45)

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Direct radiolabeling of monoclonal antibodies with generator-produced rhenium-188 for radioimmunotherapy: labeling and animal biodistribution studies. (7/45)

The use of 188Re from an alumina-based 188W/188Re generator has been investigated for antibody radiolabeling. It was found that, with simple labeling techniques, 188Re can be used immediately after elution. The direct radiolabeling of intact antibodies with 188Re is described. Lyophilized antibody preparations have been reconstituted with 188Re taken directly from the generator at specific activities of up to 15 mCi of 188Re per mg of antibody. Radiolabeling yields of 90 to 98% have been obtained, with the incorporation rate being dependent upon time and the relative concentrations of the reagents. It was determined that the conjugates were immunoreactive and stable when challenged by serum in vitro, with 188Re-immunoglobulin G showing adequate resistance to reoxidation with no transfer of 188Re to serum protein. 188Re-antibody conjugates were shown to clear from the blood faster than the corresponding 131I-labeled antibody, giving rise to good tumor/nontumor ratios at 24 to 72 h postinjection, while serum samples taken from the animals have shown that the circulating 188Re remained bound to immunoglobulin G. The combination of the technologies of the 188W/188Re generator, the direct labeling methodology, and the use of single-vial lyophilized antibody makes the use of 188Re-radiolabeled monoclonal antibodies a simple and convenient method of cancer radioimmunotherapy with a beta-emitting radionuclide.  (+info)

Breaking America's dependence on imported molybdenum. (8/45)

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Radionuclide generators, also known as "radiogenic sources" or "generator systems," are devices that contain a parent radionuclide that decays into a daughter radionuclide. The parent nuclide has a longer half-life than the daughter nuclide and remains within the generator system, while the daughter nuclide is produced continuously through the decay process and can be extracted for use in medical imaging or therapeutic procedures.

The most common type of radionuclide generator used in nuclear medicine is the technetium-99m (^99m Tc) generator, which contains molybdenum-99 (^99 Mo) as the parent nuclide. Molybdenum-99 has a half-life of 66 hours and decays into technetium-99m, which has a half-life of only 6 hours. Technetium-99m emits gamma rays that can be detected by gamma cameras, making it useful for a wide range of diagnostic procedures such as bone scans, lung perfusion imaging, and myocardial perfusion imaging.

Radionuclide generators are typically used in hospitals and medical centers where they can provide a convenient and cost-effective way to produce small quantities of radionuclides for diagnostic or therapeutic purposes. The extracted daughter nuclide can be used immediately, reducing the need for complex shipping and handling procedures associated with other radioactive materials.

Iridium is not a medical term, but rather a chemical element with the symbol Ir and atomic number 77. It's a transition metal that is part of the platinum group. Iridium has no known biological role in humans or other organisms, and it is not used in medical treatments or diagnoses.

However, iridium is sometimes mentioned in the context of geological time scales because iridium-rich layers in rock formations are associated with major extinction events, such as the one that marked the end of the Cretaceous period 65 million years ago. The leading hypothesis for this association is that large asteroid impacts can create iridium-rich vapor plumes that settle onto the Earth's surface and leave a distinct layer in the rock record.

Radioisotopes, also known as radioactive isotopes or radionuclides, are variants of chemical elements that have unstable nuclei and emit radiation in the form of alpha particles, beta particles, gamma rays, or conversion electrons. These isotopes are formed when an element's nucleus undergoes natural or artificial radioactive decay.

Radioisotopes can be produced through various processes, including nuclear fission, nuclear fusion, and particle bombardment in a cyclotron or other types of particle accelerators. They have a wide range of applications in medicine, industry, agriculture, research, and energy production. In the medical field, radioisotopes are used for diagnostic imaging, radiation therapy, and in the labeling of molecules for research purposes.

It is important to note that handling and using radioisotopes requires proper training, safety measures, and regulatory compliance due to their ionizing radiation properties, which can pose potential health risks if not handled correctly.

Radionuclide imaging, also known as nuclear medicine, is a medical imaging technique that uses small amounts of radioactive material, called radionuclides or radiopharmaceuticals, to diagnose and treat various diseases and conditions. The radionuclides are introduced into the body through injection, inhalation, or ingestion and accumulate in specific organs or tissues. A special camera then detects the gamma rays emitted by these radionuclides and converts them into images that provide information about the structure and function of the organ or tissue being studied.

Radionuclide imaging can be used to evaluate a wide range of medical conditions, including heart disease, cancer, neurological disorders, gastrointestinal disorders, and bone diseases. The technique is non-invasive and generally safe, with minimal exposure to radiation. However, it should only be performed by qualified healthcare professionals in accordance with established guidelines and regulations.

Radionuclide angiography (RNA) is a type of nuclear medicine imaging procedure used to evaluate the heart's function, specifically the pumping ability of the lower chambers of the heart (the ventricles). It involves the use of radioactive material (radionuclide or radiopharmaceutical) that is injected into the patient's bloodstream. A special camera then captures images of the distribution and accumulation of this radioactive material within the heart, providing information about blood flow, ventricular function, and any potential abnormalities in the heart muscle.

During a RNA procedure, the radiopharmaceutical is usually injected into a vein in the patient's arm. As the tracer circulates through the bloodstream, it accumulates in the heart tissue. The gamma camera captures images of the distribution and accumulation of the radionuclide within the heart at different time points. These images are then used to assess various aspects of heart function, such as ejection fraction (the percentage of blood that is pumped out of the ventricles with each beat), wall motion abnormalities, and any potential areas of reduced blood flow or damage in the heart muscle.

Radionuclide angiography can be used to diagnose and monitor various cardiac conditions, including coronary artery disease, heart failure, cardiomyopathy, and valvular heart disease. It is a non-invasive procedure that does not require catheterization or the use of contrast agents, making it a safer alternative for patients with kidney problems or allergies to contrast materials. However, as with any medical procedure involving radiation exposure, the benefits of RNA must be weighed against the potential risks.

Radionuclide ventriculography (RVG), also known as multiple-gated acquisition scan (MUGA) or nuclear ventriculography, is a non-invasive diagnostic test used to evaluate the function and pumping efficiency of the heart's lower chambers (ventricles). The test involves the use of radioactive tracers (radionuclides) that are injected into the patient's bloodstream. A specialized camera then captures images of the distribution of the radionuclide within the heart, which allows for the measurement of ventricular volumes and ejection fraction (EF), an important indicator of cardiac function.

During the test, the patient lies on a table while the camera takes pictures of their heart as it beats. The images are captured in "gates" or intervals, corresponding to different phases of the cardiac cycle. This allows for the calculation of ventricular volumes and EF at each phase of the cycle, providing detailed information about the heart's pumping ability.

RVG is commonly used to assess patients with known or suspected heart disease, including those who have had a heart attack, heart failure, valvular heart disease, or cardiomyopathy. It can also be used to monitor the effectiveness of treatment and to evaluate changes in cardiac function over time.

In some cases a cyclotron is used to produce the parent radionuclide for a generator. Long-lived radionuclides which are ... IAEA (2009). Therapeutic radionuclide generators : 90Sr/90Y and 188W/188Re generators. Vienna: International Atomic Energy ... A radionuclide generator is a device which provides a local supply of a short-lived radioactive substance from the decay of a ... Use of a generator avoids the challenge of distributing short-lived radionuclides from the original production site (typically ...
Production of Long Lived Parent Radionuclides for Generators: 68Ge, 82Sr, 90Sr and 188W. ... Cyclotron Produced Radionuclides: Operation and Maintenance of Gas and Liquid Targets. Radioisotopes and Radiopharmaceuticals ... Cyclotron Produced Radionuclides: Guidance on Facility Design and Production of Fluorodeoxyglucose (FDG). ...
99m Tc Generator System for Production of Medical Radionuclide 99m Tc using a Neutron-activated 99 Mo and Zirconium Based ... Development of 99Mo/99mTc Generator System for Production of Medical Radionuclide 99mTc using a Neutron-activated 99Mo and ... Keywords 137Cs 99Mo/99mTc generator Adsorption capacity Cyclotron Decontamination Diffuse scattering Gamma irradiation Gamma ... The 99mTc produced from this new 99Mo/99mTc generator system attained the quality of 99mTc required for medical purposes. ...
Radionuclide generators contain a parent radionuclide that decays to produce a radioactive daughter. The parent is usually ... Synthetic radionuclides are deliberately synthesised using nuclear reactors, particle accelerators or radionuclide generators: ... At least another 60 radionuclides are detectable in nature, either as daughters of primordial radionuclides or as radionuclides ... On Earth, naturally occurring radionuclides fall into three categories: primordial radionuclides, secondary radionuclides, and ...
Production and purification of radionuclides. Generators: working knowledge, evaluation techniques, quality control. Technegas ... Basic concepts of radiation physics, radioactive decay, radionuclide production, interaction with matter, radiation detectors ...
Categories: Radionuclide Generators Image Types: Photo, Illustrations, Video, Color, Black&White, PublicDomain, ...
Carbon materials tailored for 225Ac/213Bi separation and their use in radionuclide generators Venue: KU Leuven, Aula Wolfspoort ...
DEVELOPMENT OF A 191-OS:191M-IR RADIONUCLIDE GENERATOR Role: Principal Investigator ...
... taking into account batch size and short radionuclide half-life. Furthermore, the price of 68Ge/68Ga generators should be ... Most of the FAPI radiotracers included in this systematic review were labeled with 68Ga obtained from a 68Ge/68Ga generator; ... To overcome these drawbacks, FAPI radiolabeling with the longer-lived radionuclide 18F was recently investigated [38]. Moreover ... On the other hand, the 68Ga activity obtained from a generator may be limited, ...
Machines, such as accelerators, radioisotope generators, and natural radionuclides may be considered sources. Some sources are ... The primary water, contained in one loop, travels through an additional heat exchanger (or steam generator) and produces steam ... Diesel-electric transmissions require access to oxygen for the diesel generator to charge the submarines batteries or drive ... A facility that generates electricity using a nuclear reactor as its heat source to provide steam to a turbine generator. ...
Work with radiation generators. For work with radiation generators (such as X-ray devices) you must apply to HSE for a ... Work with artificial radionuclides or naturally occurring radionuclides (processed for their radioactive, fissile or fertile ... More on work with radiation generators. Working in an atmosphere that contains radon. For work in an atmosphere containing ... Work with artificial or naturally occurring radionuclides. In the vast majority of cases you will need to apply for a ...
Experience with a licensed radiopharmacist eluting a radionuclide generator, preparation of radiopharmaceuticals, and safe ... evaluation of the radiation protection practices associated with radionuclide administration. * participation in 5 treatments ... radionuclide technique, radiopharmaceutical technique, radioprotection, and patient dosimetry. Training requires independent ...
Radionuclide Generator. *Machined lead. *Lead pour. Services / QC. *ISO certified. *CSA W59 compliant fabrication ...
Rhenium-188 (188Re), which is also conveniently generator-produced, like 99mTc, has great potential for radionuclide therapy ( ... generator-produced technetium-99m (99mTc) has been the most used radionuclide in routine nuclear medicine and is still the ... One milliliter of [99mTc]-pertechnetate (750-800 MBq), eluted from a 99Mo/99mTc generator (ELU III, IBA Molecular, Gif-sur- ... Rhenium-188: availability from the 188W/188Re generator and status of current applications. Curr Radiopharm (2012) 5:228-43. ...
... usually obtained from a tellurium-132 radionuclide generator; its clinical use has been supplanted by 131I and 123I. iodine- ...
Radionuclides and External-Beam Irradiation. Two radionuclides, 211At and 99mTc, were used for the internal irradiation. 211At ... The random generator from Matlab (Mathworks) was used to randomly locate the nuclides and choose the directions of radiation ... However, as no appreciable high radionuclide uptake was found in tissues that are known to enrich free radionuclides-for ... As the radionuclides have comparable particle ranges, an error in the geometry will affect the absorbed fraction in a similar ...
Because the radionuclides contained in PET-Tracers decay very fast, in most cases there will be no radioactivity left in the ... These so-called PET-Tracers are molecules containing a very short lived radionuclide which decays by emission of positrons. ... Currently two cyclotrons as well as Ge-68/Ga-68 generators are available at the CRP for the generation of radionuclides. "Ready ... Because the radionuclides contained in PET-Tracers decay very fast, in most cases there will be no radioactivity left in the ...
Device, Beam Limiting, Teletherapy, Radionuclide Class 2 IWD §892.5900. Generator, Orthovoltage, Therapeutic X-Ray Class 2 IYC ... Generator, Low Voltage, Therapeutic X-Ray Class 2 IYD §892.5900. Generator, Dermatological (Grenz Ray), Therapeutic X-Ray Class ... System, Radiation Therapy, Radionuclide Class 2 IWB §892.5750. ... Generator, High Voltage, X-Ray, Therapeutic Class 2 KPZ § ...
... by sorption on sulfonated carbon materials for use in an inverse 225Ac/213Bi radionuclide generator: Batch and column tests ...
... radionuclide generator, radiopharmaceutical precursor, and radiopharmaceutical preparation kit. ...
Finally, was signed a deal for the supply of radionuclide heat units (UHR) used as parts of radioisotope thermoelectric ... Radioisotope Thermoelectric Generator) parts for Chinas lunar exploration programme. ... generators to power equipment in Chinas space programme, for use in lunar exploration in particular. ...
We obtain radionuclides from the Cyclotron Facility of the PET Department, Warren Grant Magnuson Clinical Center and from ... Gallium-68 is obtained from a commercial Ge-68/Ga-68 generator. ... Zr-89 or Br-76 radionuclides. The staff also possesses ...
He also spent a year researching nuclear physics on accelerator-produced radionuclides, particularly neutron generators. ...
Rubidium generators or copper-62 ATSM will be used frequently for myocardial perfusion imaging, providing more accurate results ... This will be applicable to most antibodies that can be used for therapeutic purposes with Y-90 or other treatment radionuclides ... The future of radiolabeled antibodies with single-photon-emitting radionuclides is questionable at this time. I believe that Y- ... Rather than see PET replace SPECT and become the exclusive method for performing functional imaging with radionuclides, I would ...
Radionuclide production. • Generator systems. • In vitro- and in vivo-characterization of radiolabelled peptides and antibodies ... Mo/Tc-generator and use of kits including quality control and preclinical application. • Ge/Ga-generator and 68Ga- ...
MeV for radionuclides production. This review focuses on the recent developments of novel medical radionuclides produced by ... The production of the following medical radionuclides will be described based on available literature sources: Tc-99 m, I- ... More research is needed to make novel radionuclide cyclotron production available for the medical industry. ... Many unique novel radionuclides can be produced, especially parent radionuclides for the generators, like 68Ge or 82Sr. High ...
d) the label affixed to the generator or reagent kit contains information on the radionuclide, quantity, and date of assay; and ... e) the label affixed to the generator or reagent kit, or the leaflet or brochure which accompanies the generator or reagent kit ... i) the generator or reagent kit is to be manufactured, labeled and packaged in accordance with the federal Food, Drug and ... ii) the manufacture and distribution of the generator or reagent kit are not subject to the federal Food, Drug and Cosmetic Act ...
GTR : 68801850 radiopharmaceutical radioisotope, radionuclide generator * 8,91,06,972 - BRL *Aug 29, 2023 ... GTR : 68479714 supply of technetium generators 19gbq (ts99m) for november december 2023 for the needs of gauz rkod mz rt im. ... GTR : 66581400 supply of technetium generator for the nuclear medicine center of the la libertad hacvp care network ... GTR : 64562891 supply of technetium 99m generators for the needs of the research institute of cardiology of the tomsk national ...
Walid A. Metwally, Yumna Adel, Entesar Dalah, and Husam Al-Omari Utilizing, "Utilizing Neutron Generators in Boron Neutron ... Fatima E. Alzaabi, Bassam A. Khuwaileh, Walid A. Metwally, "An Exploratory Study for Radionuclide Dispersion in Water Resources ... Fatima E. Alzaabi, Bassam A. Khuwaileh, Walid A. Metwally, "An Exploratory Study for Atmospheric Radionuclide Dispersion and ... "Beam Studies in Gadolinium Neutron Capture Therapy Using Neutron Generators" Transactions of the American Nuclear Society, 123 ...

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