Andere Kunden interessierten sich auch für
![Motion and Sensing in Electrosensory Systems]( "Motion and Sensing in Electrosensory Systems")
Motion and Sensing in Electrosensory Systems51,99 €![Speed and Deep Measurements from Motion blurred Images]( "Speed and Deep Measurements from Motion blurred Images")
Speed and Deep Measurements from Motion blurred Images32,99 €![Motion Data Mining and Activity Recognition]( "Motion Data Mining and Activity Recognition")
Motion Data Mining and Activity Recognition51,99 €![State Based Motion Transitions Using Framespace Interpolation]( "State Based Motion Transitions Using Framespace Interpolation")
State Based Motion Transitions Using Framespace Interpolation51,99 €![Design and Implementation of a Controller for a Laser Tracking System]( "Design and Implementation of a Controller for a Laser Tracking System")
Design and Implementation of a Controller for a Laser Tracking System57,99 €![Feature-Based Human Tracking]( "Feature-Based Human Tracking")
Feature-Based Human Tracking51,99 €![Motion Analysis Using GPS]( "Motion Analysis Using GPS")
Motion Analysis Using GPS44,99 €
This research introduces a stochastic framework for
evaluating and comparing the expected performance of
sensing systems for interactive computer graphics.
Incorporating models of the sensor devices and
expected user motion dynamics, this framework enables
complementary system- and measurement-level hardware
information optimization, independent of algorithm
and motion paths. The approach for system-level
optimization is to estimate the asymptotic position
and/or orientation uncertainty at many points
throughout a desired working volume or surface, and
to visualize the results graphically. This global
performance estimation can provide both a
quantitative assessment of the expected performance
and intuition about how to improve the type and
arrangement of sources and sensors, in the context of
the desired working volume and expected scene
dynamics. Using the same model components required
for these system-level optimization, the optimal
sensor sampling time can be determined with respect
to the expected scene dynamics for measurement-level
optimization.
evaluating and comparing the expected performance of
sensing systems for interactive computer graphics.
Incorporating models of the sensor devices and
expected user motion dynamics, this framework enables
complementary system- and measurement-level hardware
information optimization, independent of algorithm
and motion paths. The approach for system-level
optimization is to estimate the asymptotic position
and/or orientation uncertainty at many points
throughout a desired working volume or surface, and
to visualize the results graphically. This global
performance estimation can provide both a
quantitative assessment of the expected performance
and intuition about how to improve the type and
arrangement of sources and sensors, in the context of
the desired working volume and expected scene
dynamics. Using the same model components required
for these system-level optimization, the optimal
sensor sampling time can be determined with respect
to the expected scene dynamics for measurement-level
optimization.