SD Beta v10.12 Release Notes
- Upgraded decision making framework for unprotected left turns
with better modeling of objects' response to ego's actions by
adding more features that shape the go/no-go decision. This
increases robustness to noisy measurements while being more
sticky to decisions within a safety margin. The framework also
leverages median safe regions when necessary to maneuver across
large turns and accelerating harder through maneuvers when
required to safely exit the intersection.
- Improved creeping for visibility using more accurate lane
geometry and higher resolution occlusion detection.
- Reduced instances of attempting uncomfortable turns through
better integration with object future predictions during lane
selection.
- Upgraded planner to rely less on lanes to enable maneuvering
smoothly out of restricted space
- Increased safety of turns with crossing traffic by improving the
architecture of the lanes neural network which greatly boosted
recall and geometric accuracy of crossing lanes.
- Improved the recall and geometric accuracy of all lane predictions
by adding 180k video clips to the training set.
- Reduced traffic control related false slowdowns through better
integration with lane structure and improved behavior with respect
to yellow lights.
- Improved the geometric accuracy of road edge and line
predictions by adding a mixing/coupling layer with the generalized
static obstacle network.
- Improved geometric accuracy and understanding of visibility by
retraining the generalized static obstacle network with improved
data from the autolabeler and by adding 30k more videos clips.
- Improved recall of motorcycles, reduced velocity error of close-by
pedestrians and bicyclists, and reduced heading error of
pedestrians by adding new sim and autolabeled data to the training
set.
- Improved precision of the "is parked" attribute on vehicles by
adding 41k clips to the training set. Solved 48% of failure cases
captured by our telemetry of 10.11.
- Improved detection recall of far-away crossing objects by
regenerating the dataset with improved versions of the neural
networks used in the autolabeler which increased data quality.
- Improved offsetting behavior when maneuvering around cars with
open doors.
- Improved angular velocity and lane-centric velocity for non-VRU
objects by upgrading it into network predicted tasks.
- Improved comfort when lane changing behind vehicles with harsh
deceleration by tighter integration between lead vehicles future
motion estimate and planned lane change profile.
- Increased reliance on network-predicted acceleration for all
moving objects, previously only longitudinally relevant objects.
- Updated nearby vehicle assets with visualization indicating when
a vehicle has a door open.
- Improved system frame rate +1.8 frames per second by removing
three legacy neural networks.
- Upgraded decision making framework for unprotected left turns
with better modeling of objects' response to ego's actions by
adding more features that shape the go/no-go decision. This
increases robustness to noisy measurements while being more
sticky to decisions within a safety margin. The framework also
leverages median safe regions when necessary to maneuver across
large turns and accelerating harder through maneuvers when
required to safely exit the intersection.
- Improved creeping for visibility using more accurate lane
geometry and higher resolution occlusion detection.
- Reduced instances of attempting uncomfortable turns through
better integration with object future predictions during lane
selection.
- Upgraded planner to rely less on lanes to enable maneuvering
smoothly out of restricted space
- Increased safety of turns with crossing traffic by improving the
architecture of the lanes neural network which greatly boosted
recall and geometric accuracy of crossing lanes.
- Improved the recall and geometric accuracy of all lane predictions
by adding 180k video clips to the training set.
- Reduced traffic control related false slowdowns through better
integration with lane structure and improved behavior with respect
to yellow lights.
- Improved the geometric accuracy of road edge and line
predictions by adding a mixing/coupling layer with the generalized
static obstacle network.
- Improved geometric accuracy and understanding of visibility by
retraining the generalized static obstacle network with improved
data from the autolabeler and by adding 30k more videos clips.
- Improved recall of motorcycles, reduced velocity error of close-by
pedestrians and bicyclists, and reduced heading error of
pedestrians by adding new sim and autolabeled data to the training
set.
- Improved precision of the "is parked" attribute on vehicles by
adding 41k clips to the training set. Solved 48% of failure cases
captured by our telemetry of 10.11.
- Improved detection recall of far-away crossing objects by
regenerating the dataset with improved versions of the neural
networks used in the autolabeler which increased data quality.
- Improved offsetting behavior when maneuvering around cars with
open doors.
- Improved angular velocity and lane-centric velocity for non-VRU
objects by upgrading it into network predicted tasks.
- Improved comfort when lane changing behind vehicles with harsh
deceleration by tighter integration between lead vehicles future
motion estimate and planned lane change profile.
- Increased reliance on network-predicted acceleration for all
moving objects, previously only longitudinally relevant objects.
- Updated nearby vehicle assets with visualization indicating when
a vehicle has a door open.
- Improved system frame rate +1.8 frames per second by removing
three legacy neural networks.