Pages that link to "Item:Q656980"

The following pages link to The potential for practical improvements in cancer diagnostics by mathematically-optimized magnetic resonance spectroscopy (Q656980):

Displaying 26 items.

• The fast Padé transform for noisy magnetic resonance spectroscopic data from the prostate: potential contribution to individualized prostate cancer care (Q282178) (← links)
• Mathematically-optimized magnetic resonance spectroscopy in breast cancer diagnostics: implications for personalized cancer medicine (Q283219) (← links)
• Quantification by the fast Padé transform of magnetic resonance spectroscopic data encoded at 1.5 T: implications for brain tumor diagnostics (Q283806) (← links)
• Improving the diagnostic yield of magnetic resonance spectroscopy for pediatric brain tumors through mathematical optimization (Q335919) (← links)
• Padé optimization of noise-corrupted magnetic resonance spectroscopic time signals from fibroadenoma of the breast (Q500709) (← links)
• Iterative averaging of spectra as a powerful way of suppressing spurious resonances in signal processing (Q511910) (← links)
• In vivo magnetic resonance spectroscopy for ovarian cancer diagnostics: quantification by the fast Padé transform (Q511911) (← links)
• Unequivocal disentangling genuine from spurious information in time signals: clinical relevance in cancer diagnostics through magnetic resonance spectroscopy (Q552033) (← links)
• Mathematical modeling of an NMR chemistry problem in ovarian cancer diagnostics (Q926945) (← links)
• Magnetic resonance spectroscopy with high-resolution and exact quantification in the presence of noise for improving ovarian cancer detection (Q1930502) (← links)
• A meta-analysis of studies using MR spectroscopy for evaluating suspicious lesions after radiation therapy of primary brain tumors (Q1930504) (← links)
• Survival of radiation-damaged cells via mechanism of repair by pool molecules: the Lambert function as the exact analytical solution of coupled kinetic equations (Q2014805) (← links)
• Repair of irradiated cells by Michaelis-Menten enzyme catalysis: the Lambert function for integrated rate equations in description of surviving fractions (Q2014806) (← links)
• High-resolution at 3\,T for in vivo derivative NMR spectroscopy in medical diagnostics of ovarian tumor: exact quantification by shape estimations (Q2065662) (← links)
• In vitro proton magnetic resonance spectroscopy at 14\,T for benign and malignant ovary. II: Signal processing by the parametric fast Padé transform (Q2157583) (← links)
• \textit{In vivo} derivative NMR spectroscopy for simultaneous improvements of resolution and signal-to-noise-ratio: case study, glioma (Q2230717) (← links)
• Unequivocal resolution of multiplets in MR spectra for prostate cancer diagnostics achieved by the fast Padé transform (Q2271185) (← links)
• Automatic self-correcting in signal processing for magnetic resonance spectroscopy: noise reduction, resolution improvement and splitting overlapped peaks (Q2334494) (← links)
• Decisive role of mathematical methods in early cancer diagnostics: optimized Padé-based magnetic resonance spectroscopy (Q2385366) (← links)
• Synergism of spectra averaging and extrapolation for quantification of in vivo MRS time signals encoded from the ovary (Q2399213) (← links)
• Visualizing hidden components of envelopes non-parametrically in magnetic resonance spectroscopy: phosphocholine, a breast cancer biomarker (Q2402942) (← links)
• Review of recent applications of the conventional and derivative fast Padé transform for magnetic resonance spectroscopy (Q2419162) (← links)
• Resolution enhancement as a key step towards clinical implementation of Padé-optimized magnetic resonance spectroscopy for diagnostic oncology (Q2443857) (← links)
• Mechanistic description of survival of irradiated cells: repair kinetics in Padé linear-quadratic or differential Michaelis-Menten model (Q2443869) (← links)
• Inverse problem for reconstruction of components from derivative envelope in ovarian MRS: citrate quartet as a cancer biomarker with considerably decreased levels in malignant vs benign samples (Q2696359) (← links)
• Magnetic resonance guided high intensity focused ultrasound -- mathematical modeling of an innovative, state of the art technology for cancer therapy (Q2817558) (← links)