Probabilistic Contact Estimation and Impact Detection for State Estimation of Quadruped Robots
By Marco Camurri, Maurice F. Fallon, S. Bazeille, A. Radulescu, Victor Barasuol, Darwin G. Caldwell, Claudio Semini. 2017
124 citations recorded by the source corpus.
Subfields: Biomedical Engineering, Civil and Structural Engineering
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Biomedical Engineering
- Sangbae Kim
- Gerardo Bledt
- Patrick M. Wensing
- Darwin G. Caldwell
- Jake Reher
- Wen-Loong Ma
- Aaron D. Ames
- Benjamin Katz
In Civil and Structural Engineering
Citations in the corpus
- Learning quadrupedal locomotion over challenging terrain (2020, neutral): “L = i∈dim(X\contactstates) ( m i − m i gt ) 2 ─ 2 i 2 + log( i ) (7)”
- Contact Model Fusion for Event-Based Locomotion in Unstructured Terrains (2018, background): “Camurri et al. [6] used approximate inverse-dynamics-based forces as inputs to a contact probability prior for determining when a foothold was secure enough for use in base-velocity estimation.”
- Dynamic Walking with Compliance on a Cassie Bipedal Robot (2019, methodology): “with assumed knowledge of the contact surface has been used in a mixed integer Quadratic Program (QP) [26] for handling contacts, and others have looked at predicting covariance values for contact velocities through contact force [5].”
- Heuristic Planning for Rough Terrain Locomotion in Presence of External Disturbances and Variable Perception Quality (2018, methodology): “hy W ext 2R6 rather than W ext 2F6 [49] 25The twist (i.e. 6D spatial velocity) is usually computed by a state estimator, which merges Inertial Measurement Unit (imu), encoder and force/torque sensors [19]. 26It is well known that it is impossible to distinguish between a CoM offset and an external w”