44,99 €
inkl. MwSt.
Versandkostenfrei*
Versandfertig in über 4 Wochen
payback
22 °P sammeln
  • Broschiertes Buch

This book describes a new approach, named Variometric Approach for Displacements Analysis Stand-alone Engine (VADASE), originally designed to detect in real-time the 3D displacements of a GNSS receiver. VADASE is based upon a so called variometric algorithm able to retrieve in real-time the displacements of a unique receiver, with accuracies ranging from few centimeters up to a couple of decimeters. Eventually, VADASE was appointed as an effective contribution to GPS Seismology. First, the state of the art of GPS Seismology and the advantages and limitations that GNSS receivers can bring about…mehr

Produktbeschreibung
This book describes a new approach, named Variometric Approach for Displacements Analysis Stand-alone Engine (VADASE), originally designed to detect in real-time the 3D displacements of a GNSS receiver. VADASE is based upon a so called variometric algorithm able to retrieve in real-time the displacements of a unique receiver, with accuracies ranging from few centimeters up to a couple of decimeters. Eventually, VADASE was appointed as an effective contribution to GPS Seismology. First, the state of the art of GPS Seismology and the advantages and limitations that GNSS receivers can bring about with respect to seismology instruments are presented. Further, a review of the main applications that benefit from high-rate GNSS data availability is given, with an insight on earthquake and tsunami early warning systems. Then, the book illustrates VADASE functional model and the results obtained in several scenarios simulated by a Spirent GNSS data simulator. Importantly, receiver displacements achieved for real earthquakes by VADASE are assessed with respect to those obtained by the most used strategies in GPS Seismology (i.e. Precise Point Positioning and Differential Positioning).
Autorenporträt
Gabriele Colosimo received a M.Sc. in Environmental Engineering in 2008 at "Sapienza" University of Rome. Then, he enrolled in a Ph.D. degree in Geodesy at the same University and developed a new algorithm for real-time GNSS Seismology. He successfully defended his final Thesis in February 2012 and continued working in GNSS research field.