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This is the fourth Special Issue in Pharmaceuticals within the last six years dealing with aspects of radiopharmaceutical sciences. It demonstrates the significant interest and increasing relevance to ameliorate nuclear medicine imaging with PET or SPECT, and also radiotherapeutical procedures.Numerous targets and mechanisms have been identified and have been under investigation over the previous years, covering many fields of medical and clinical research. This development is well illustrated by the articles in the present issue, including 13 original research papers and one review, covering a broad range of actual research topics in the field of radiopharmaceutical sciences.
n/a --- pretargeting --- radioiodination --- neurodegeneration --- phosphoramidon --- GRPR --- molecular imaging --- allosteric modulator --- radiosynthesis --- separation --- ?-CIT. --- PET/CT imaging --- technetium-99m --- gastrin-releasing peptide receptor --- metabotropic glutamate receptor subtype 5 --- glutamate --- oncogenic fusions --- Fusarinine C --- hypoxia --- tirapazamine (TPZ) --- 68Ga --- sentinel lymph node --- 99mTc-radioligand --- iodine-131 --- electrophilic radioiodination --- 4-dioxide (BTDO) --- minigastrin --- ceftriaxone --- tropomyosin receptor kinase --- carbonic anhydrase IX --- ABP688 --- NPY(Y1)R --- MMPEP --- radiosensitizer --- neprilysin-inhibition --- radiochemistry --- girentuximab --- benzotriazine-1 --- gallium-68 --- cholecystokinin-2 receptor --- tumor targeting --- radioimmunotherapy --- salivary gland uptake --- metabolic stability --- tumor hypoxia --- multimerization --- oxidizing agent --- neuroinflammation --- gastrin-releasing peptide --- dextran --- carbon-11 --- peptide heterodimers --- apparent molar activity --- radiometals --- microglia --- rituximab --- [18F]FMISO --- [11C]meta-hydroxyephedrine --- Iodo-Gen® --- mannose --- 177Lu-radiopharmaceuticals --- azomycin nucleosides --- breast cancer --- click chemistry --- small animal imaging --- SR 4317 --- benzotriazine-1-monoxide (BTMO) --- bombesin --- prostate cancer --- Chloramine T --- 99mTc-radiopharmaceuticals --- ketamine --- PSMA-617 --- positron emission tomography --- hydrazinonicotinic acid (HYNIC) --- renal cell carcinomas --- [18F]PSS232 --- PET --- endoradiotherapy
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Positron emission tomography (PET) and single-photon emission computed tomography (SPECT) are in vivo molecular imaging methods which are widely used in nuclear medicine for diagnosis and treatment follow-up of many major diseases. These methods use target-specific molecules as probes, which are labeled with radionuclides of short half-lives that are synthesized prior to the imaging studies. These probes are called radiopharmaceuticals. The use of PET and SPECT for brain imaging is of special significance since the brain controls all the body’s functions by processing information from the whole body and the outside world. It is the source of thoughts, intelligence, memory, speech, creativity, emotion, sensory functions, motion control, and other important body functions. Protected by the skull and the blood–brain barrier, the brain is somehow a privileged organ with regard to nutrient supply, immune response, and accessibility for diagnostic and therapeutic measures. Invasive procedures are rather limited for the latter purposes. Therefore, noninvasive imaging with PET and SPECT has gained high importance for a great variety of brain diseases, including neurodegenerative diseases, motor dysfunctions, stroke, epilepsy, psychiatric diseases, and brain tumors. This Special Issue focuses on radiolabeled molecules that are used for these purposes, with special emphasis on neurodegenerative diseases and brain tumors.
Research & information: general --- Biology, life sciences --- SV2A --- SV2B --- SV2C --- microPET --- [18F]UCB-H --- epilepsy --- PBIF --- distribution volume --- blocking assay --- preclinical imaging --- Alzheimer’s disease (AD) --- network measure --- graph theory --- brain network --- positron emission tomography (PET) --- persistent homology --- Phosphodiesterase 2A (PDE2A) --- Positron Emission Tomography (PET) --- Benzoimidazotriazine (BIT) --- fluorinated --- Mouse Liver Microsomes (MLM) --- cyclic nucleotide phosphodiesterase --- PDE2A radioligand --- nitro-precursor --- fluorine-18 --- in vitro autoradiography --- PET imaging --- opioid receptors --- positron emission tomography --- radiotracers --- μOR-, δOR-, κOR- and ORL1-ligands --- movement disorders --- pain --- drug dependence --- GBM --- biomarkers --- Sigma 1 --- Sigma 2 --- PD-L1 --- PARP --- IDH --- Alzheimer’s disease --- Parkinson’s disease --- β-amyloid plaques --- neurofibrillary tangles --- α-synucleinopathy --- diagnostic imaging probes --- orexin receptors --- PET --- radiotracer --- imaging --- alpha 7 --- nicotinic acetylcholine receptors --- nAChR --- autoradiography --- amino acid --- FET --- FACBC --- FDOPA --- immunoPET --- molecular imaging --- glioma --- brain metastases --- adenosine A2A receptor --- rotenone-based mouse model --- [18F]FESCH --- two-step one-pot radiosynthesis
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Positron emission tomography (PET) and single-photon emission computed tomography (SPECT) are in vivo molecular imaging methods which are widely used in nuclear medicine for diagnosis and treatment follow-up of many major diseases. These methods use target-specific molecules as probes, which are labeled with radionuclides of short half-lives that are synthesized prior to the imaging studies. These probes are called radiopharmaceuticals. The use of PET and SPECT for brain imaging is of special significance since the brain controls all the body’s functions by processing information from the whole body and the outside world. It is the source of thoughts, intelligence, memory, speech, creativity, emotion, sensory functions, motion control, and other important body functions. Protected by the skull and the blood–brain barrier, the brain is somehow a privileged organ with regard to nutrient supply, immune response, and accessibility for diagnostic and therapeutic measures. Invasive procedures are rather limited for the latter purposes. Therefore, noninvasive imaging with PET and SPECT has gained high importance for a great variety of brain diseases, including neurodegenerative diseases, motor dysfunctions, stroke, epilepsy, psychiatric diseases, and brain tumors. This Special Issue focuses on radiolabeled molecules that are used for these purposes, with special emphasis on neurodegenerative diseases and brain tumors.
SV2A --- SV2B --- SV2C --- microPET --- [18F]UCB-H --- epilepsy --- PBIF --- distribution volume --- blocking assay --- preclinical imaging --- Alzheimer’s disease (AD) --- network measure --- graph theory --- brain network --- positron emission tomography (PET) --- persistent homology --- Phosphodiesterase 2A (PDE2A) --- Positron Emission Tomography (PET) --- Benzoimidazotriazine (BIT) --- fluorinated --- Mouse Liver Microsomes (MLM) --- cyclic nucleotide phosphodiesterase --- PDE2A radioligand --- nitro-precursor --- fluorine-18 --- in vitro autoradiography --- PET imaging --- opioid receptors --- positron emission tomography --- radiotracers --- μOR-, δOR-, κOR- and ORL1-ligands --- movement disorders --- pain --- drug dependence --- GBM --- biomarkers --- Sigma 1 --- Sigma 2 --- PD-L1 --- PARP --- IDH --- Alzheimer’s disease --- Parkinson’s disease --- β-amyloid plaques --- neurofibrillary tangles --- α-synucleinopathy --- diagnostic imaging probes --- orexin receptors --- PET --- radiotracer --- imaging --- alpha 7 --- nicotinic acetylcholine receptors --- nAChR --- autoradiography --- amino acid --- FET --- FACBC --- FDOPA --- immunoPET --- molecular imaging --- glioma --- brain metastases --- adenosine A2A receptor --- rotenone-based mouse model --- [18F]FESCH --- two-step one-pot radiosynthesis
Choose an application
Positron emission tomography (PET) and single-photon emission computed tomography (SPECT) are in vivo molecular imaging methods which are widely used in nuclear medicine for diagnosis and treatment follow-up of many major diseases. These methods use target-specific molecules as probes, which are labeled with radionuclides of short half-lives that are synthesized prior to the imaging studies. These probes are called radiopharmaceuticals. The use of PET and SPECT for brain imaging is of special significance since the brain controls all the body’s functions by processing information from the whole body and the outside world. It is the source of thoughts, intelligence, memory, speech, creativity, emotion, sensory functions, motion control, and other important body functions. Protected by the skull and the blood–brain barrier, the brain is somehow a privileged organ with regard to nutrient supply, immune response, and accessibility for diagnostic and therapeutic measures. Invasive procedures are rather limited for the latter purposes. Therefore, noninvasive imaging with PET and SPECT has gained high importance for a great variety of brain diseases, including neurodegenerative diseases, motor dysfunctions, stroke, epilepsy, psychiatric diseases, and brain tumors. This Special Issue focuses on radiolabeled molecules that are used for these purposes, with special emphasis on neurodegenerative diseases and brain tumors.
Research & information: general --- Biology, life sciences --- SV2A --- SV2B --- SV2C --- microPET --- [18F]UCB-H --- epilepsy --- PBIF --- distribution volume --- blocking assay --- preclinical imaging --- Alzheimer’s disease (AD) --- network measure --- graph theory --- brain network --- positron emission tomography (PET) --- persistent homology --- Phosphodiesterase 2A (PDE2A) --- Positron Emission Tomography (PET) --- Benzoimidazotriazine (BIT) --- fluorinated --- Mouse Liver Microsomes (MLM) --- cyclic nucleotide phosphodiesterase --- PDE2A radioligand --- nitro-precursor --- fluorine-18 --- in vitro autoradiography --- PET imaging --- opioid receptors --- positron emission tomography --- radiotracers --- μOR-, δOR-, κOR- and ORL1-ligands --- movement disorders --- pain --- drug dependence --- GBM --- biomarkers --- Sigma 1 --- Sigma 2 --- PD-L1 --- PARP --- IDH --- Alzheimer’s disease --- Parkinson’s disease --- β-amyloid plaques --- neurofibrillary tangles --- α-synucleinopathy --- diagnostic imaging probes --- orexin receptors --- PET --- radiotracer --- imaging --- alpha 7 --- nicotinic acetylcholine receptors --- nAChR --- autoradiography --- amino acid --- FET --- FACBC --- FDOPA --- immunoPET --- molecular imaging --- glioma --- brain metastases --- adenosine A2A receptor --- rotenone-based mouse model --- [18F]FESCH --- two-step one-pot radiosynthesis --- SV2A --- SV2B --- SV2C --- microPET --- [18F]UCB-H --- epilepsy --- PBIF --- distribution volume --- blocking assay --- preclinical imaging --- Alzheimer’s disease (AD) --- network measure --- graph theory --- brain network --- positron emission tomography (PET) --- persistent homology --- Phosphodiesterase 2A (PDE2A) --- Positron Emission Tomography (PET) --- Benzoimidazotriazine (BIT) --- fluorinated --- Mouse Liver Microsomes (MLM) --- cyclic nucleotide phosphodiesterase --- PDE2A radioligand --- nitro-precursor --- fluorine-18 --- in vitro autoradiography --- PET imaging --- opioid receptors --- positron emission tomography --- radiotracers --- μOR-, δOR-, κOR- and ORL1-ligands --- movement disorders --- pain --- drug dependence --- GBM --- biomarkers --- Sigma 1 --- Sigma 2 --- PD-L1 --- PARP --- IDH --- Alzheimer’s disease --- Parkinson’s disease --- β-amyloid plaques --- neurofibrillary tangles --- α-synucleinopathy --- diagnostic imaging probes --- orexin receptors --- PET --- radiotracer --- imaging --- alpha 7 --- nicotinic acetylcholine receptors --- nAChR --- autoradiography --- amino acid --- FET --- FACBC --- FDOPA --- immunoPET --- molecular imaging --- glioma --- brain metastases --- adenosine A2A receptor --- rotenone-based mouse model --- [18F]FESCH --- two-step one-pot radiosynthesis
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