| Year | Rank | Type | Title / Venue / Authors |
|---|---|---|---|
| 2026 | A* | conf |
AAAI
|
| 2026 | J | jnl |
CoRR
|
| 2025 | J | jnl |
CoRR
|
| 2025 | J | jnl |
CoRR
|
| 2025 | J | jnl |
IEEE Trans. Robotics
|
| 2025 | A | conf |
IROS
|
| 2025 | J | jnl |
CoRR
|
| 2025 | — | conf |
ICDL
|
| 2025 | J | jnl |
Robotics Auton. Syst.
|
| 2025 | J | jnl |
IEEE Trans. Robotics
|
| 2025 | — | conf |
ECMR
|
| 2024 | J | jnl |
Robotics Auton. Syst.
|
| 2024 | J | jnl |
IEEE Robotics Autom. Lett.
|
| 2024 | J | jnl |
CoRR
|
| 2024 | J | jnl |
GVDepth: Zero-Shot Monocular Depth Estimation for Ground Vehicles based on Probabilistic Cue Fusion.
CoRR
|
| 2024 | — | conf |
MFI
|
| 2024 | J | jnl |
CoRR
|
| 2024 | J | jnl |
Robotics Auton. Syst.
|
| 2023 | J | jnl |
CoRR
|
| 2023 | J | jnl |
CoRR
|
| 2023 | J | jnl |
CoRR
|
| 2023 | C | ed. |
IAS
|
| 2023 | A* | conf |
ICRA
|
| 2023 | J | jnl |
IEEE Trans. Robotics
|
| 2023 | J | jnl |
Sensors
|
| 2023 | — | conf |
ECMR
|
| 2023 | — | conf |
ECMR
|
| 2022 | C | conf |
IAS
|
| 2022 | J | jnl |
IEEE Robotics Autom. Lett.
|
| 2022 | J | jnl |
Robotics Auton. Syst.
|
| 2022 | J | jnl |
Appl. Soft Comput.
|
| 2022 | J | jnl |
Robotics Comput. Integr. Manuf.
|
| 2022 | J | jnl |
IEEE Trans. Syst. Man Cybern. Syst.
|
| 2022 | C | conf |
IAS
|
| 2022 | J | jnl |
CoRR
|
| 2022 | J | jnl |
IEEE Trans. Robotics
|
| 2022 | J | jnl |
Sensors
|
| 2021 | — | conf |
MIPRO
|
| 2021 | A* | conf |
ICRA
|
| 2021 | J | jnl |
CoRR
|
| 2021 | J | jnl |
CoRR
|
| 2021 | J | jnl |
Robotics Auton. Syst.
|
| 2021 | J | jnl |
Adv. Robotics
|
| 2021 | J | jnl |
CoRR
|
| 2021 | — | conf |
MIPRO
|
| 2021 | J | jnl |
IEEE Trans. Syst. Man Cybern. Syst.
|
| 2021 | C | conf |
IAS
|
| 2021 | J | jnl |
CoRR
|
| 2021 | — | conf |
ECMR
|
| 2021 | J | jnl |
CoRR
|
| 2021 | — | conf |
ICAR
|
| 2021 | — | conf |
MIPRO
|
| 2021 | J | jnl |
IEEE Signal Process. Lett.
|
| 2021 | J | jnl |
Adv. Robotics
|
| 2021 | — | conf |
ECMR
|
| 2021 | J | jnl |
CoRR
|
| 2021 | J | jnl |
CoRR
|
| 2021 | J | jnl |
IEEE Trans. Robotics
|
| 2021 | J | jnl |
Adv. Robotics
|
| 2020 | J | jnl |
IEEE Trans. Cybern.
|
| 2020 | — | conf |
MED
|
| 2020 | J | jnl |
CoRR
|
| 2020 | J | jnl |
CoRR
|
| 2020 | A* | conf |
ICRA
|
| 2020 | J | jnl |
Robotics Auton. Syst.
|
| 2019 | Misc | conf |
FLAIRS
|
| 2019 | J | jnl |
Robotics Auton. Syst.
|
| 2019 | J | jnl |
CoRR
|
| 2019 | A | conf |
IROS
|
| 2019 | J | jnl |
CoRR
|
| 2019 | — | conf |
ROBOT (1)
|
| 2019 | C | conf |
FUSION
|
| 2019 | J | jnl |
CoRR
|
| 2019 | J | jnl |
CoRR
|
| 2019 | — | conf |
ECMR
|
| 2019 | J | jnl |
CoRR
|
| 2018 | — | conf |
Computationally efficient dense moving object detection based on reduced space disparity estimation.
SyRoCo
|
| 2018 | J | jnl |
Computationally efficient dense moving object detection based on reduced space disparity estimation.
CoRR
|
| 2018 | J | jnl |
Int. J. Robotics Res.
|
| 2018 | J | jnl |
CoRR
|
| 2018 | — | conf |
SyRoCo
|
| 2018 | J | jnl |
Expert Syst. Appl.
|
| 2018 | J | jnl |
IEEE Trans. Syst. Man Cybern. Syst.
|
| 2018 | J | jnl |
J. Field Robotics
|
| 2018 | J | jnl |
CoRR
|
| 2018 | — | conf |
IDEAL (1)
|
| 2017 | — | conf |
ROBOT (1)
|
| 2017 | J | jnl |
CoRR
|
| 2017 | J | jnl |
Autom.
|
| 2017 | — | conf |
ECMR
|
| 2017 | J | jnl |
Robotics Auton. Syst.
|
| 2017 | — | conf |
ROBOT (2)
|
| 2017 | A | conf |
IROS
|
| 2017 | J | jnl |
CoRR
|
| 2017 | J | jnl |
IEEE Signal Process. Lett.
|
| 2017 | J | jnl |
CoRR
|
| 2017 | J | jnl |
CoRR
|
| 2017 | J | jnl |
IEEE Trans. Control. Syst. Technol.
|
| 2017 | A | conf |
IROS
|
| 2017 | C | conf |
FUSION
|
| 2016 | B | conf |
SMC
|
| 2016 | — | conf |
Humanoids
|
| 2016 | C | conf |
FUSION
|
| 2016 | C | conf |
FUSION
|
| 2016 | J | jnl |
Robotics Auton. Syst.
|
| 2016 | — | conf |
MIPRO
|
| 2015 | — | conf |
ROBOT (1)
|
| 2015 | J | jnl |
J. Autom. Reason.
|
| 2015 | B | conf |
SAS
|
| 2015 | J | jnl |
Int. J. Robotics Res.
|
| 2015 | — | conf |
ECMR
|
| 2015 | J | jnl |
IEEE Signal Process. Lett.
|
| 2014 | J | jnl |
Adv. Eng. Informatics
|
| 2014 | J | jnl |
Inf. Fusion
|
| 2014 | — | conf |
MIPRO
|
| 2014 | — | conf |
ICINCO (2)
|
| 2014 | C | conf |
FUSION
|
| 2014 | C | conf |
IAS
|
| 2014 | C | conf |
IAS
|
| 2014 | A* | conf |
ICRA
|
| 2014 | J | jnl |
IEEE Trans. Robotics
|
| 2014 | — | conf |
ICINCO (Selected Papers)
|
| 2013 | A | conf |
IROS
|
| 2013 | — | conf |
EUROCON
|
| 2013 | A | conf |
IROS
|
| 2013 | J | jnl |
CoRR
|
| 2013 | — | conf |
ICCE-Berlin
|
| 2013 | J | jnl |
Appl. Soft Comput.
|
| 2012 | — | ed. |
SyRoCo
|
| 2012 | A | conf |
IROS
|
| 2012 | — | conf |
SyRoCo
|
| 2012 | — | conf |
Comparison of Statistical Model-Based Voice Activity Detectors for Mobile Robot Speech Applications.
SyRoCo
|
| 2012 | J | jnl |
Ind. Robot
|
| 2012 | — | conf |
SyRoCo
|
| 2012 | — | conf |
SyRoCo
|
| 2012 | C | conf |
CCA
|
| 2012 | — | conf |
SyRoCo
|
| 2011 | — | conf |
MIPRO
|
| 2011 | — | conf |
MIPRO
|
| 2011 | — | conf |
MIPRO
|
| 2011 | — | conf |
ThEdu
|
| 2011 | — | conf |
ECMR
|
| 2011 | — | conf |
MIPRO
|
| 2011 | — | conf |
ECMR
|
| 2011 | C | conf |
ISPA
|
| 2011 | J | jnl |
Robotics Auton. Syst.
|
| 2011 | — | conf |
ICAT
|
| 2011 | J | jnl |
Robotics Auton. Syst.
|
| 2010 | — | conf |
ISR/ROBOTIK
|
| 2010 | — | conf |
ISR/ROBOTIK
|
| 2010 | J | jnl |
Robotics Auton. Syst.
|
| 2009 | J | jnl |
J. Comput. Inf. Technol.
|
| 2009 | — | conf |
CCA/ISIC
|
| 2009 | — | conf |
ECMR
|
| 2009 | — | conf |
ECMR
|
| 2009 | — | ed. |
ECMR
|
| 2008 | J | jnl |
Eng. Appl. Artif. Intell.
|
| 2008 | J | jnl |
Robotics Auton. Syst.
|
| 2007 | A* | conf |
ICRA
|
| 2007 | J | jnl |
IEEE Trans. Ind. Electron.
|
| 2007 | — | conf |
ICINCO-RA (2)
|
| 2005 | — | conf |
ISIC
|
| 2005 | C | conf |
CCA
|
| 2005 | J | jnl |
Eng. Appl. Artif. Intell.
|
| 2002 | — | conf |
ICECS
|
| 2002 | — | conf |
CDC
|
| 2002 | — | conf |
ICECS
|
| 2000 | — | conf |
IJCNN (1)
|
| 1998 | — | conf |
NC
|
| 1998 | — | conf |
NC
|