29 Results for 'scott reeder'                        
                        
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                    Technology
SYSTEM AND METHOD FOR MOTION-ROBUST MULTI-CONTRAST MAGNETIC RESONANCE IMAGING
            UW-Madison researchers have developed a method for motion-robust MRI with multiple contrasts, using a short temporal footprint, simple post-processing and optimized SNR. The method uses multiple conse...            
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            Scott Reeder, Diego Hernando Arribas, Daiki Tamada, Jiayi Tang | P250184US01
        
    Technology
Method for Water-Fat Separation and T2* Estimation in an MRI System Employing Multiple Fat Spectral Peaks and Fat Spectrum Self-Calibration
            NMR signal contributions from water and fat are separated using a model of the fat resonant frequency spectrum that has multiple resonant peaks. The relative frequencies of the multiple fat spectrum p...            
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            Scott Reeder, Huanzhou Yu | P08034US
        
    Technology
SYSTEM AND METHOD FOR QUANTITATIVE MAPPING WITH MAGNETIC RESONANCE IMAGING
            UW-Madison researchers have developed a novel clinical MRI method for quantitative T2 mapping. The new T2 mapping method uses RF-phase modulated dual echo steady-state sequence (DESS). T2 information ...            
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            Daiki Tamada, Scott Reeder | P210184US01
        
    Technology
            UW-Madison researchers have developed an automated process to accurately quantitate breast density using MR images.  The methods assess tissue properties within a region of interest (ROI) using chem...            
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            Scott Reeder, Roberta Strigel | P160101US01
        
    Technology
SYSTEM AND METHOD FOR CONFIDENCE MAPS FOR QUANTITATIVE MAPPING WITH MAGNETIC RESONANCE IMAGING
            Proton density fat fraction (PDFF) and R2* estimated using quantitative chemical shift-encoded MRI (CSE-MRI) are well-established quantitative biomarkers of liver fat content. As such, CSE-MRI methods...            
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            Scott Reeder, Daiki Tamada | P230397US01
        
    Technology
SYSTEM AND METHOD FOR DIFFUSION MAPPING USING PHASEMODULATED MAGNETIC RESONANCE IMAGING
            UW Researchers have developed a novel MRI diffusion mapping method using phase-based diffusion mapping (PBD.) The technique provides a novel way to measure the apparent diffusion coefficient (ADC) of ...            
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            Daiki Tamada, Scott Reeder | P220163US01
        
    Technology
Generalized Method For Mri Chemical Species Separation Using Arbitrary K-space Trajectories
            A method for producing images of a subject containing M spin species using a magnetic resonance imaging (MRI) system includes obtaining N k-space data matrices from N k-space data sets acquired with t...            
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            Scott Reeder | P07261US
        
    Technology
Improved Phantom for Iron and Fat Quantification MRI
            The ability to quantify fat concentration in the body has become increasingly important given the rise in obesity and related comorbidities. Likewise, the ability to quantify iron concentration is imp...            
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            Scott Reeder, Diego Hernando Arribas, Samir Sharma | P150328US01
        
    Technology
Improved Phantom for Quantitative Diffusion MRI
            Among numerous magnetic resonance imaging contrast mechanisms, the insights that diffusion-weighted MRI provides into microstructural tissue changes make it an excellent biomarker for detection and ev...            
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            Scott Reeder, Diego Hernando Arribas, Xiaoke Wang | P150322US01
        
    Technology
Robust Magnetic Field Map Estimation Improves MRI Fat-Water Separation
            In magnetic resonance imaging (MRI), the main magnetic field is symbolized B0. Accurately estimating a B0 field map is critical to distinguishing different chemical species like water and fat. If the ...            
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            Scott Reeder, Nathan Artz, Samir Sharma | P130370US01
        
    Technology
Clearer MRI Near Metallic Implants
            More than a million joint replacements were performed in the Unites States in 2012 and more than four million implant surgeries are expected in 2030. Such implants pose a challenge to magnetic resonan...            
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            Scott Reeder, Nathan Artz, Matthew Smith | P140004US01
        
    Technology
Fat- and Iron-Corrected T1 Mapping for Diagnosing Liver Disease
            Improved MRI methods are needed to diagnose nonalcoholic fatty liver disease (NAFLD), the most common cause of liver disease in the Western world. Promising studies have demonstrated the utility of Tl...            
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            Scott Reeder, Xiaoke Wang, Diego Hernando Arribas | P170169US01
        
    Technology
Highly Constrained Image Reconstruction for Magnetic Resonance Spectroscopy
            Magnetic resonance spectroscopy (MRS) is a technique that measures a subject’s nuclear magnetic resonance (NMR) to produce spectra of its tissue components.  In medical diagnosis and treatment, it ...            
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            Charles Mistretta, Scott Reeder, John Perry, Oliver Wieben | P06087US
        
    Technology
System And Method For Determining Patient Parameters Using Radio Frequency Phase Increments In Magnetic Resonance Imaging
            A system and method are provided for controlling a magnetic resonance imaging system to perform a gradient echo pulse sequence that includes varying a phase of an RF pulse of the gradient echo pulse s...            
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            Scott Reeder, Xiaoke Wang | P190216US01
        
    Technology
Magnetic Resonance Imaging of Metabolites
            In magnetic resonance imaging (MRI), tissue is scanned using magnetic fields that excite atoms and cause them to emit signals. These nuclear magnetic resonance (NMR) signals can be processed into an i...            
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            Scott Reeder | P06190US
        
    Technology
Removal of Chemical Shift Artifacts in Magnetic Resonance Images with Alternating Readout Gradients
            Magnetic resonance (MR) imaging technology is used to measure nuclear magnetic resonance (NMR) from various substances in human tissue to produce medical images for qualitative and quantitative assess...            
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            Scott Reeder | P06231US
        
    Technology
More Accurate Methods for Detecting and Quantifying Fat from Magnetic Resonance Images
            Quantifying the amount of fat in the liver is crucial for the detection of non-alcoholic fatty liver diseases including steatosis, fibrosis, cirrhosis and liver failure.  Accurate fat measurements ca...            
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            Scott Reeder, Huanzhou Yu | P07150US
        
    Technology
Magnetic Resonance Imaging Diffusion Weighted Preparatory Sequence to Remove Patient Motion Effects
            Magnetic resonance imaging (MRI) is used to measure nuclear magnetic resonance (NMR) from various substances in human tissue to produce medical images for qualitative and quantitative assessments.  T...            
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            Scott Reeder, Reed Busse, Jean Brittain | P07066US
        
    Technology
Water-Fat Signal Separation for Improved MRI Image Reconstruction
            Chemical shift-based multi-echo water-fat separation methods are used increasingly in MRI clinical applications to distinguish between water and fat nuclear magnetic resonance (NMR) signals. Water and...            
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            Scott Reeder, Huanzhou Yu | P090389US01
        
    Technology
Non-Invasive Magnetic Resonance Thermometry in the Presence of Water and Fat
            Nuclear magnetic resonance is the property of magnetic nuclei used in medical imaging techniques like MRI to produce images. The nuclear magnetic resonance of water is known to be dependent on tempera...            
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            Scott Reeder, Brian Soher | P07433US02
        
    Technology
Detecting Iron Overload with MRI
            Iron is an essential nutrient for the human body but is toxic in excess. Iron overload is a particular hazard to patients requiring regular blood transfusions. Treatment for patients with iron overloa...            
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            Scott Reeder, Diego Hernando Arribas | P120356US01
        
    Technology
High-Resolution R2 Mapping with Chemical Species Separation
            In magnetic resonance imaging (MRI), the amount of data required to reconstruct an image can be decreased using ‘partial k-space’ sampling. This type of sampling enables shorter breath-holds, redu...            
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            Scott Reeder, Diego Hernando Arribas, Valentina Taviani | P120316US01
        
    Technology
Accelerated MRI Scanning Using Spectral Sensitivity
            Magnetic resonance imaging (MRI) of metallic implants can be challenging because metal and surrounding tissue impact the main magnetic field differently. Such magnetic field inhomogeneities cause off-...            
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            Scott Reeder, Matthew Smith, Nathan Artz | P120310US01
        
    Technology
Eliminating Encoding Distortion in MRI for Clarity in the Presence of Metal
            Visualizing a body’s internal structures by MRI is an essential clinical practice. Yet acquiring images in the presence of metal, like the steel screws of an implant, remains challenging because of ...            
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            Scott Reeder, Nathan Artz | P120191US01
        
    Technology
Confidence Maps for MRI Parametric Mapping
            Magnetic resonance parametric mapping is a general framework for measuring important biomarkers. In the process, several images from the same field of view are obtained using different acquisition par...            
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            Scott Reeder, Diego Hernando Arribas | P120292US01