Edge AI Memory • Robots • Drones • IoT

Robots That LearnFrom Experience

Give autonomous systems persistent memory that strengthens with use. Hebbian learning on-device. No cloud. No network latency. Single binary runs offline on any controller.

~15MB binary<1μs graph ops100% offlineARM64 support coming

~15MB
Binary Size
<1μs
Graph Lookup
100%
Offline
RocksDB
Durable Storage

Why Robots Need Memory

Autonomous systems that remember outperform those that don't. Experience-based learning without cloud round-trips.

Without Memory

x
Repeats mistakes
Same failures over and over
x
No adaptation
Can't learn from environment
x
Cloud dependency
Network down = robot frozen

With Shodh Memory

+
Learns from errors
Remembers what failed and why
+
Pattern recognition
Hebbian learning strengthens successful patterns
+
100% offline
Runs on robot controller, no network

Experience-Based Learning

Robots remember what worked and what failed

Hebbian learning strengthens successful action patterns

100% Offline Operation

No cloud dependency, no network latency

Single ~15MB binary runs on ARM/x86 controllers

Real-Time Performance

Sub-millisecond graph operations

<1μs entity lookup, 55ms store with embedding

Air-Gapped Deployments

Defence, industrial, and secure environments

No external connections required

Python SDK for Robotics

Native PyO3 bindings. Same API as cloud, runs on your controller.

pip install shodh-memory
from shodh_memory import Memory

# Initialize on robot controller (fully offline)
memory = Memory(storage_path="./robot_memory")

# Record observations and outcomes
memory.remember(
    "Approach angle 45deg caused gripper slip on part X",
    memory_type="Error",
    tags=["gripper", "part_x", "angle"]
)

memory.remember(
    "Approach angle 30deg successful for part X",
    memory_type="Learning",
    tags=["gripper", "part_x", "angle"]
)

# Before next action, recall relevant experience
results = memory.recall("gripper approach angle part X", limit=5)
for mem in results:
    print(f"{mem['content']} (type: {mem['experience_type']})")

# Hybrid retrieval - semantic + graph associations
results = memory.recall("gripper failures", mode="hybrid", limit=10)

# ROS2 integration example
import rclpy
from rclpy.node import Node

class RobotMemoryNode(Node):
    def __init__(self):
        super().__init__('memory_node')
        self.memory = Memory(storage_path="/opt/robot/memory")

    def action_callback(self, msg):
        # Record action outcomes
        if msg.success:
            self.memory.remember(
                f"Action {msg.action} succeeded with params {msg.params}",
                memory_type="Learning"
            )
        else:
            self.memory.remember(
                f"Action {msg.action} failed: {msg.error}",
                memory_type="Error"
            )

    def plan_action(self, task):
        # Recall similar past experiences before planning
        experiences = self.memory.recall(task, limit=5)
        return experiences

Memory Types: Error (+0.25), Learning (+0.25), Decision (+0.30), Pattern (+0.20) - importance affects recall priority

Hebbian Learning: When memories are recalled together, their connection strengthens. 5+ co-activations = permanent edge.

Built For Real Deployments

Autonomous systems that learn and adapt in the field

Industrial Robots

Assembly robots that remember successful procedures, failed attempts, and quality issues

Example: Robot recalls that torque setting X caused failures on part type Y

Warehouse AGVs

Autonomous guided vehicles that learn optimal routes and remember obstacle locations

Example: AGV remembers that aisle 3 has frequent pedestrian traffic at 2pm

Autonomous Drones

Drones that remember flight patterns, weather conditions, and landing challenges

Example: Drone recalls that GPS signal is weak near building X

Agricultural Robots

Field robots that remember soil conditions, pest locations, and harvest timing

Example: Robot recalls that section B needs different treatment than section A

Edge Performance

Benchmarked on Intel i7-1355U, release build

OperationLatencyNotes
Entity Lookup<1μsARM64/x86
Remember (full)55-60msWith embedding
Recall (semantic)34-58msVector search
Recall (tags)~1msIndex lookup
3-hop Graph Walk32μsAssociation traversal
Hebbian Strengthen6μsSynapse update

Platform Support

Single binary for your target architecture

PlatformStatusUse Case
Linux x86_64ProductionIndustrial PCs, servers
Linux ARM64Coming Q1 2025Jetson, Raspberry Pi, drones
Windows x86_64ProductionDevelopment, industrial HMIs
macOS ARM64ProductionDevelopment (Apple Silicon)

ARM64 Support Coming Soon

We're actively working on ARM64 builds for Jetson, Raspberry Pi, and drone flight controllers. x86_64 builds work today on industrial PCs and server-class robot controllers.

Give Your Robots Memory

Experience-based learning. 100% offline. Single binary deployment.