added heading and step detection to transition
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@@ -21,7 +21,7 @@ Within this work we present a simple yet efficient method that enables a particl
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We also use a novel approach for finding an exact estimation of the pedestrian's current position by using a rapid computation scheme of the kernel density estimation \cite{Bullmann-18}.
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Many historical buildings, especially bigger ones like castles, monasteries or churches, are built of massive stone walls and have annexes from different historical periods out of different construction materials.
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This leads to problems for methods using received signal strengths (RSS) from \docWIFI{} or Bluetooth, due to a high signal attenuation between different rooms.
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This leads to problems for methods using received signal strengths indications (RSSI) from \docWIFI{} or Bluetooth, due to a high signal attenuation between different rooms.
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Many unknown quantities, like the walls definitive material or thickness, make it expensive to determine important parameters, \eg{} the signal's depletion over distance.
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Additionally, most wireless approaches are based on a line-of-sight assumption.
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Thus, the performance will be even more limited due to the irregularly shaped spatial structure of such buildings.
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@@ -35,10 +35,10 @@ Clearly, this is contrary to most costumers expectations of a fast to deploy and
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In addition, this is not only a question of costs incurred, but also for buildings under monumental protection, not allowing for larger construction measures.
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To sum up, this work presents a smartphone-based localization system using a particle filter to incorporate different probabilistic models.
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We omit time-consuming approaches like classic fingerprinting or measuring the exact positions of access-points.
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We omit time-consuming approaches like classic fingerprinting or measuring the exact positions of access points.
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Instead we use a simple optimization scheme based on reference measurements to estimate a corresponding \docWIFI{} model.
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The pedestrian's movement is modeled realistically using a navigation mesh, based on the building's floorplan.
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A barometer based activity recognition enables going into the third dimension and problems occurring from multimodalities and impoverishment are taken into account.
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A barometer and accelerometer based activity recognition enables going into the third dimension and problems occurring from multimodalities and impoverishment are taken into account.
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The goal of this work is to propose a fast to deploy and low-cost localization solution, that provides reasonable results in a high variety of situations.
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Consequently, we believe that by utilizing our localization approach to such a challenging scenario, it is possible to prove those characteristics.
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