Ai Toys

AI-POWERED
SMART
DEVICES

Child voice recognition tuned on PF-STAR corpus, wake word at sub-1mW, TFLite Micro INT8 quantized models, MobileNetV2 edge vision, EN 71 / ASTM F963 toy safety, and COPPA-compliant data architecture — built at consumer price points.

sub-1 mW
Wake Word Detection Power Budget
INT8
TFLite Micro Quantized Inference
EN 71 / ASTM F963
Toy Safety Standard Support
CHALLENGE

The Engineering Problem

AI Toys Fail in Three Ways — Bad AI, Bad Safety, Bad Price Points

Cloud voice APIs mean 2-second latency, no offline operation, and persistent audio streaming that fails COPPA. Real conversational toys require on-device wake word at sub-1mW so the microphone always listens without draining the battery, and local intent classification fast enough that children — who have zero patience for loading spinners — stay engaged.

Children's speech has higher F0, greater formant variability, and more disfluency — models trained on adult corpora hit 40–60% WER on 5-year-old speech. Proper child ASR requires PF-STAR corpus training data, per-age-band fine-tuning, and noise robustness for a living room, not an anechoic chamber.

EN 71 and ASTM F963 define bite force, pull force, edge radii, flammability, and electrical clearance requirements that constrain hardware design from the beginning — not at the testing phase. These must be architected in, not retrofitted at certification time.

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What's Inside

AI Toy & Smart Device Categories We Build

From conversational companions to robotic kits — custom AI electronics across the interactive toy and consumer smart device spectrum.

01

Voice & Conversational Toys

02

Computer Vision Toys

03

Robotic & Programmable Toys

04

Educational Smart Devices

05

Interactive Plush & Companions

06

AR & Mixed Reality Toy Platforms

07

Kids Smart Home Devices

08

Kids Activity & Fitness Wearables

Engineering capabilities
Engineering Capabilities
AI Toy Engineering Capabilities

Child Voice Recognition

Wake word detection using DS-CNN at sub-1mW draw, child-optimized ASR trained on PF-STAR and CMU Kids corpora, per-age-band fine-tuning, and noise-robust acoustic models for living room environments.

TFLite Micro Edge Inference

TensorFlow Lite Micro INT8 quantized model deployment, CMSIS-NN kernel acceleration on Arm Cortex-M, operator fusion for latency reduction, and memory footprint optimization for MCUs under 512KB SRAM.

Computer Vision at Toy Cost

MobileNetV2 and EfficientDet-Lite SSD inference on Kendryte K210 / Espressif ESP32-S3 / NXP i.MX RT, camera pipeline design, and model pruning for target accuracy/latency/cost tradeoffs.

EN 71 & ASTM F963 Safety Design

Toy safety requirements translated into hardware constraints — bite force test preparation for input devices, pull force margins on tethered components, sharp edge radius control, and UL94 V0 material qualification.

COPPA-Compliant Architecture

On-device audio processing to avoid persistent cloud audio streaming, minimal data collection architecture, parental consent mechanism design, and FTC COPPA compliance documentation support.

Play-Session Battery Engineering

Dynamic power state management for AI-active vs. standby modes, sub-1mW always-on listening, and battery sizing for 2+ hour active play sessions — critical for parent purchase decisions.

BOM Cost Engineering

Consumer electronics require aggressive BOM cost targets — $8–15 hardware cost for a $40 retail toy. We design for target BOM from the first architecture review, choosing between MCU+NPU options based on capability-per-dollar.

BLE & Wi-Fi Companion App Integration

BLE 5.0 GATT profile design for companion app connectivity, parental control and monitoring features, OTA firmware update architecture, and App Store/Play Store app hardware specification.

SPECS
Voice & Conversation

Conversational Voice Toys

On-Device Child Speech AI · No Cloud Required

Sub-1mW wake word detection via DS-CNN on child speech data achieves >95% accuracy at <1% false positive in living room noise — entirely on-device, zero cloud. Post-wake intent classification handles 200–500 categories on a second model. Procedural audio library variation creates conversational richness without TTS hardware cost. Wake-to-response in under 500ms.

Technical Specifications
Wake Word Detection Accuracy (Children's Speech)
>95%
Wake → Response Latency
<500 ms
Always-Listening Power Draw
sub-1 mW
SPECS
Computer Vision

Computer Vision Toys & Robotics

Edge Vision at Consumer Cost

MobileNetV2 SSD on a $4 NPU module delivers 15 fps object detection — sufficient for color tracking, face recognition, and gesture control. INT8 quantization holds model size to <1MB and inference to <100ms. For robotic toys, the vision pipeline feeds line following, obstacle avoidance, and target tracking directly into the motion control system.

Technical Specifications
Real-Time Object Detection on MCU+NPU
15 fps
INT8 Inference Latency (MobileNetV2)
<100 ms
Quantized Model Flash Footprint
<1 MB
SPECS
Safety & Compliance

Toy Safety & COPPA Compliance

EN 71 · ASTM F963 · COPPA 16 CFR 312

EN 71 Part 1 bite force, pull force, and compression criteria are geometry and material constraints that must be designed in — not external tests applied to a finished product. We map every EN 71 and ASTM F963 requirement to a specific hardware decision at project kickoff. COPPA keeps AI inference on-device and minimizes cloud data flows, so compliance is structural rather than procedural.

Technical Specifications
EU Toy Safety Compliance
EN 71 Pts 1/2/3
US Toy Safety Standard
ASTM F963-23
AI Inference — No Audio Cloud Streaming
On-Device
Why Ankh Innovations
Why Ankh
WHY

Why Engineering Teams Choose Ankh

01

AI That Works on Kids

We've solved the child speech recognition problem — not by using a cloud API, but by understanding the phonetic characteristics of children's speech and training models accordingly. Our toys work for a 4-year-old, not just a 34-year-old.

02

Toy Safety Built In

EN 71 and ASTM F963 requirements are designed into hardware from the first CAD sketch — not bolted on at certification time. We've been through the testing process and know exactly which design choices prevent failure.

03

Consumer Price Point Engineering

We understand that a toy with a $60 BOM doesn't sell at retail. Every architecture decision is made with the cost target in mind. We've hit $12 BOM targets for sophisticated AI toy hardware.

04

Privacy by Design

COPPA compliance isn't a policy question — it's a hardware and firmware architecture question. We design the data flows to never create a compliance problem in the first place.

Field Results
Case study
Voice Toy

Conversational Learning Companion

The Challenge

A toy company needed an offline conversational learning companion for ages 3–6 — EN 71/ASTM F963 first-pass certification, no cloud voice processing, and battery life parents wouldn't complain about.

The Solution

On-device pipeline: DS-CNN wake word at sub-1mW → 400-intent classifier → phonics audio library with procedural variation. Child ASR tuned on PF-STAR per age band.

Results
  • 96.2% wake word accuracy on 4-year-old test panel
  • EN 71 and ASTM F963 passed first submission
  • 38-month battery life in typical use pattern (2×AA)
Case study
Vision Robot

Programmable Vision Robot Kit

The Challenge

An educational robotics brand needed real-time on-device vision in a programmable robot kit at a $40 retail price — COPPA compliant, BLE companion app, zero persistent cloud media storage.

The Solution

$4 NPU module running MobileNetV2 INT8 at 15 fps for object/color recognition and line following. Block-based BLE programming app. All AI inference on-device — no media leaves the device.

Results
  • 15 fps real-time object recognition on $4 NPU module
  • COPPA compliant — zero persistent cloud media storage
  • $14.20 BOM at 50K unit volume

Let's Make It Magical.

Whether you're building a conversational AI companion, a computer vision robot kit, or a connected consumer device — we engineer the hardware and on-device AI that makes play genuinely intelligent.

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