For years researchers have been
developing molecular imaging techniques that visualize hormonally active breast cancer cells — specifically those testing positive for human epidermal growth factor receptor 2 (HER2).
Scientists are taking medical imaging research and drug discovery to a new level by
developing a molecular imaging system that combines several advanced technologies for all - in - one imaging of both tissue models and live subjects, say presenters at the 2015 Annual Meeting of the Society of Nuclear Medicine and Molecular Imaging (SNMMI).
Not exact matches
Xiaoyuan Chen, Ph.D., Chief of the Laboratory of
Molecular Imaging and Nanomedicine at NIBIB, and his team attempted to solve this problem by
developing a radiotracer that could identify prostate cancer at all stages.
Ralf Jungmann, Ph.D., an alumnus of Harvard's Wyss Institute for Biologically Inspired Engineering and currently a Professor at the Ludwig Maximilian University (LMU) and the Max Planck Institute (MPI) of Biochemistry in Germany and Wyss Institute Core Faculty member Peng Yin, Ph.D., have been
developing DNA - PAINT, a powerful
molecular imaging technology that involves transient DNA - DNA interactions to accurately localize fluorescent dyes with super-resolution.
The breakthrough came with a new
imaging technique, dual - resonance - frequency - enhanced electrostatic force microscopy (DREEM), which was
developed by University of North Carolina at Chapel Hill chemist and co-author Dorothy Erie, former UNC and NC State postdoctoral researchers Dong Wu and Parminder Kaur, and was featured earlier this year in
Molecular Cell.
For several years, the «
Molecular Imaging» research group at the FMP led by physicist Leif Schröder has been
developing new MRI methods that rely on just such a «flux compensator» and has demonstrated the impressive potential of this method.
Richards - Kortum's work brings together nanotechnology,
molecular imaging, and microfabrication to address global health challenges by
developing low - cost medical technologies — such as a portable microendoscope to diagnose and treat cervical cancer — for use on the ground in low - resource settings around the world.
Researchers have
developed a fast and practical
molecular - scale
imaging technique that could let scientists view never - before - seen dynamics of biological processes involved in neurodegenerative diseases such as Alzheimer's disease and multiple sclerosis.
Specifically, the
imaging agents
developed in the laboratory for use in fluorescence
molecular tomography, are now even being translated into the clinic for human diagnostic applications.
One of several applications
developed by Automated
Molecular Imaging Group at The Scripps Research Institute.
As part of its continuing commitment to growing the practice of nuclear medicine and
molecular imaging and therapy worldwide, SNMMI leadership works diligently to
develop strategic alliances with key regional nuclear medicine organizations to assist these groups in expanding the scope and quality of nuclear medicine outside the United States.
Finally, the HZI will help
develop in vivo
imaging technologies to characterize (i) vaccine biodistribution and persistence, and (ii) cellular and
molecular changes at the injection site and in draining lymphoid tissues, helping to refine the use of animal models.
Imaging dynamic
molecular signaling by the Cdc42 GTPase within the
developing CNS.
Abstract: •
Imaging method shows nanomaterial forming in real time, for first time • «As close to useful
molecular LEGOs as I've seen,» William Dichtel says • Dichtel is a pioneer in
developing useful porous polymers
Importantly, the
molecular imaging models that are
developed can be employed to accelerate the discovery of targets and drugs for therapeutic intervention, and biomarkers that could be used for early diagnosis.
We are
developing a broad range of advanced fluorescence - based
imaging technologies to assay the functions of the involved
molecular machinery non-invasively, automate
imaging to address all its
molecular components, and computationally process image data to extract biochemical and biophysical parameters.
In the field of nanomedicine, CEA - Léti has
developed, over the past 9 years, a growing expertise in
molecular optical
imaging based on fluorescence
imaging, and on nanocarriers for drug delivery.
We have now
developed a gentle light - sheet - based microscope for high - throughput
imaging of mouse oocytes and embryos to enable systematic
molecular analysis of meiosis and early embryonic mitosis (figure 1).
The SNMMI Future Leaders Academy training focuses on setting a clear plan for increasing leadership abilities by
developing the necessary skills and organizational expertise to enhance performance and ultimately evolve into a leader both within the nuclear medicine and
molecular imaging community and the society.
I am also
developing various
imaging and
molecular sequencing methods for tracking genes, molecules, and cells to understand how cancer cells arise and evolve.
The team will continue to
develop and test an
imaging - based biomarker that can be used in a clinical setting to enable us to understand the
molecular changes to the ganglion cells, so we can detect the disease very early on.