In this paper, we introduce two pieces of activity-sensing furniture
using networked capacitive sensors. CapTable and CapShelf are two
example applications for activity detection and context acquisition
realized with the CapSensing Toolkit. Both instances are representatives
of a greater class of scenarios where networked sensing can compete
with other technologies. CapTable is a simple wooden table equipped
with capacitive sensors. Hand and body motion can be tracked above
and around the table with high resolution. Additionally, conductive
and non- conductive objects can be tracked and discriminated. The
same features apply to CapShelf, a shelf that can monitor where people
are reaching, and partially track the amount of items still in the
shelf. We argue, that capacitive sensors provide huge benefits for
real-world, privacy-sensitive, and unobtrusive data acquisition and
implicit human-computer interaction.
%0 Conference Paper
%1 conference09
%A Wimmer, R.
%A Kranz, M.
%A Boring, S.
%A Schmidt, A.
%B Proc. Fourth International Conference on Networked Sensing Systems
INSS '07
%D 2007
%K CapShelf, CapTable, acquisition acquisition, activity activity-sensing capacitive context data detection, distributed furniture, human-computer interaction, networked recognition, sensors, unobtrusive
%P 85--88
%R 10.1109/INSS.2007.4297395
%T CapTable and CapShelf - Unobtrusive Activity Recognition Using Networked
Capacitive Sensors
%X In this paper, we introduce two pieces of activity-sensing furniture
using networked capacitive sensors. CapTable and CapShelf are two
example applications for activity detection and context acquisition
realized with the CapSensing Toolkit. Both instances are representatives
of a greater class of scenarios where networked sensing can compete
with other technologies. CapTable is a simple wooden table equipped
with capacitive sensors. Hand and body motion can be tracked above
and around the table with high resolution. Additionally, conductive
and non- conductive objects can be tracked and discriminated. The
same features apply to CapShelf, a shelf that can monitor where people
are reaching, and partially track the amount of items still in the
shelf. We argue, that capacitive sensors provide huge benefits for
real-world, privacy-sensitive, and unobtrusive data acquisition and
implicit human-computer interaction.
@inproceedings{conference09,
abstract = {In this paper, we introduce two pieces of activity-sensing furniture
using networked capacitive sensors. CapTable and CapShelf are two
example applications for activity detection and context acquisition
realized with the CapSensing Toolkit. Both instances are representatives
of a greater class of scenarios where networked sensing can compete
with other technologies. CapTable is a simple wooden table equipped
with capacitive sensors. Hand and body motion can be tracked above
and around the table with high resolution. Additionally, conductive
and non- conductive objects can be tracked and discriminated. The
same features apply to CapShelf, a shelf that can monitor where people
are reaching, and partially track the amount of items still in the
shelf. We argue, that capacitive sensors provide huge benefits for
real-world, privacy-sensitive, and unobtrusive data acquisition and
implicit human-computer interaction.},
added-at = {2011-05-31T14:51:31.000+0200},
author = {Wimmer, R. and Kranz, M. and Boring, S. and Schmidt, A.},
biburl = {https://www.bibsonomy.org/bibtex/2621128d40ce8ec030a505dcec5128cd1/matthias.kranz},
booktitle = {Proc. Fourth International Conference on Networked Sensing Systems
INSS '07},
doi = {10.1109/INSS.2007.4297395},
interhash = {8d88ecc918f15ba3cfefa723e1409a66},
intrahash = {621128d40ce8ec030a505dcec5128cd1},
keywords = {CapShelf, CapTable, acquisition acquisition, activity activity-sensing capacitive context data detection, distributed furniture, human-computer interaction, networked recognition, sensors, unobtrusive},
pages = {85--88},
timestamp = {2011-05-31T14:51:33.000+0200},
title = {CapTable and CapShelf - Unobtrusive Activity Recognition Using Networked
Capacitive Sensors},
year = 2007
}