A Computational Model of Hybrid Trunk-like Robots for Synergy Formation in Anticipation of Physical Interaction
Biomimetics,
Год журнала:
2025,
Номер
10(1), С. 21 - 21
Опубликована: Янв. 2, 2025
Trunk-like
robots
have
attracted
a
lot
of
attention
in
the
community
researchers
interested
general
field
bio-inspired
soft
robotics,
because
trunk-like
arms
may
offer
high
dexterity
and
adaptability
very
similar
to
elephants
potentially
quite
superior
traditional
articulated
manipulators.
In
view
practical
applications,
integration
hydrostatic
segment
with
hard-articulated
segment,
i.e.,
hybrid
kinematic
structure
elephant’s
body,
is
probably
best
design
framework.
It
proposed
that
this
should
occur
at
conceptual/cognitive
level
before
being
implemented
specific
technologies,
including
related
control
paradigms.
The
modeling
approach
based
on
passive
motion
paradigm
(PMP),
originally
conceived
for
addressing
degrees
freedom
problem
highly
redundant,
structures.
shown
can
be
naturally
extended
from
redundant
hyper-redundant
structures,
structures
include
hard
component.
PMP
model
force-based,
not
motion-based,
it
characterized
by
two
main
computational
modules:
Jacobian
matrix
chain
compliance
maps
generalized
force
fields
into
coordinated
gestures
whole-body
model.
how
modulation
used
synergy
formation
process,
which
coordinates
nature
body
and,
same
time,
preparation
trunk
tip
stable
physical
interaction
environment,
agreement
impedance–control
concept.
Язык: Английский
Neural Simulation of Actions for Serpentine Robots
Опубликована: Июнь 24, 2024
Neural
or
mental
simulation
of
actions
is
a
powerful
tool
for
allowing
cognitive
agents
to
develop
Prospection
Capabilities
that
are
crucial
learning
and
memorizing
key
aspects
challenging
skills.
In
previous
studies
we
developed
an
approach
based
on
the
animation
redundant
human
Body
Schema
Passive
Motion
Paradigm
(PMP).
this
paper
show
can
be
easily
extended
hyper-redundant
serpentine
robots
as
well
hybrid
configurations
where
robot
functionally
integrated
with
traditional
skeletal
infrastructure.
A
model
analyzed
in
detail
showing
it
incorporates
spatio-temporal
features
discovered
biomechanical
biological
hydrostats
like
elephant
trunk
octopus
tentacles.
It
proposed
such
generative
internal
basis
architecture
appropriate
robots,
independent
underlying
design
control
technologies.
Although
robotic
have
received
lot
attention
last
decades,
great
majority
research
activities
been
focused
actuation/sensorial/material
technologies
support
hyperredundant
soft
related
methodologies.
The
level
analysis
has
limited
motion
planning,
without
addressing
synergy
formation
metal
time
travel.
This
contribution
on.
Язык: Английский