PYGO DRAFT SPECIFICATIONS

Transcription

1 PYGO DRAFT SPECIFICATIONS SUMMARY Powerful CPU Five networks: WiFi, BLE, LoRa, LoRa (MESH) and Sigfox 1KM WiFi range MicroPython enabled Ultra-low power usage: a fraction compared to other connected microcontrollers Pymakr IDE supported Pylife Application with IFTTT style environment for light programming PyGo1 PyGo2 DESCRIPTION Non- cellular wearable device Cellular wearable device MECHANICAL Dimensions (H x W x L) 41 x 24 x 12.5 (mm) 41 x 24 x 12.5 (mm) Weight 24g 26g BATTERY Battery Type 420mAh LiPo 420mAh LiPo Battery Life up to 5 days depending on use up to 5 days depending on use Charging Wireless AirFuel Wireless AirFuel FEATURES OLED GPS Accelerometer Piezo touch screen sensing CONNECTIVITY Pymesh Cellular (CAT-M1 and NB1 only) LoRa Sigfox WiFi Up to 200 devices Not available including autoconnect to the ThingsNetwork Hardware capable but not switched on in first model. Can be switched on during deployment. Long range WiFi Up to 200 devices including autoconnect to the ThingsNetwork Hardware capable but not switched on in first model. Can be switched on during deployment. Long range WiFi

2 Bluetooth Including Bluetooth Low Energy (BLE) Including Bluetooth Low Energy (BLE) MICROCONTROLLER Espressif ESP32 SoC, dual processor and WiFi+Bluetooth (BLE) radio system on chip Network processor handles the WiFi/Bluetooth connectivity and network stacks Main processor is entirely free to run the user application SOFTWARE Pylife Application with IFTTT style environment for light programming MicroPython programmable for full applications have access to: 4MB of Flash memory for user storage Updating application using: UART and WiFi (telnet/ftp) MECHANICAL PyGo (without Accessories) Size: 41 x 24 x 12.5 mm Operating temperature: -20 to 85 degrees Celsius Internal LoRa/Sigfox antenna Internal Cellular antenna (PyGo2) Internal WiFi/Bluetooth antenna IP67 MEMORY 64 MBit RAM 8 MB Flash OLED Latest generation, energy efficient mono-colour glass OLED. Resolution: 128 x 36 pixels Glass size: x 9.9 mm Active Area: x 6.10 mm Accelerometer

3 Chip: BMA423 Latest generation triaxial, low-g acceleration sensor from Bosch ultra-small digital interfaces 2 bit digital resolution and embedded intelligence, allows low-noise measurement of accelerations in 3 perpendicular and thus senses wrist tilt, tab/double tab and enables plug n play step counting especially in wearable devices. Recommended for - Step-counting in wearable devices - Wake up display on wrist tilt - Low power user interaction by tab/double tab - Advanced gesture recognition - Activity recognition/tracking - Advanced power management for mobile devices - Tilt compensation for electronic compass GPS CXD5603GF from Sony Power consumption: 6 mw GPS/GLONASS/Galileo/BeiDou Sensitivity: Cold Start: -147dBm/Hot Start: -161dBm/Tracking: -161dBm POWER Battery LiPo 420mAh Chip: BQ51003 from TI Qi (WPC v1.2) Compliant Power Supply Highly Integrated Wireless Receiver Maximum charging current of 350mA at 2.5W of power maximum. SECURITY SHA, MD5, DES, AES (hardware accelerated) SSL/TLS support (up to TLS 1.2) WPA Enterprise security CERTIFICATIONS Enterprise grade means CE, FCC, IC, RCM as a minimum. Network certification is a given for longlifecycle IoT solutions to ensure stable connectivity. CE FCC LoRa Alliance certification LTE-M CAT M1/NB1 cellular

4 LORA An open source LPWAN communications technology that enables low cost private networking as well as shared network deployments. Specification Operating Frequencies 868 MHz (Europe) at +14dBm maximum 915 MHz (North and South America, Australia and New Zealand) at +20dBm maximum Very low power consumption radio transceiver: 10mA Rx, 28mA Tx LoRaWAN stack Class A and C devices LoRa Range Specification PyGo devices up to 12km LoRa Mesh Thread protocol OpenThread implementation as Full-Thread-Device (limited port) up to 256 Nodes inside a Mesh Network Mesh Network creating and healing automatically Routing traffic from/to Mesh to/from Wifi/BLE/Cellular CoaP client LTE-M CELLULAR NETWORKING LTE-M is the common description for the two GSMA specifications Category M1 and NB1. The latter is also referred to as NB-IoT or Narrowband IoT. This cellular communications technology leverages existing 4G infrastructure but offers differently configured services in relation to data throughput and network reach. LTE-M Specification One Single Chip for both Cat M1 and NB1 (Monarch by Sequans) Validated by Verizon Wireless, AT&T Wireless, SoftBank 3GPP Release 13 LTE Advanced Pro Supports narrowband LTE UE categories M1/NB1 Single chip 6.5 x 8.5 mm FC-CSP package Integrated baseband, RF, RAM memory, and power management Extended DRX and PSM features for long sleep duration use cases Programmable RF filtering for global band support in a single-sku design Proprietary Dynamic Power Management (DPM) technology for 10+ years operation

5 Optimized for half-duplex FDD (HD-FDD) operation, also supports full-duplex FDD (FD- FDD) Throughput: o LTE UE category M1 (1.4 MHz bandwidth) up to 300 kbps DL/375 kbps UL in HD- FDD, and 1 Mbps in FD-FDD o LTE UE category NB1 (200 khz bandwidth) up to 40 kbps DL/55 kbps UL in HD- FDD Single antenna system architecture Coverage enhancement methods Reduced Tx power class option Low power serial interfaces NB-IoT frequency Bands: NB-IoT Band Uplink Band Downlink Band B MHz MHz B MHz MHz B MHz MHz B MHz MHz B MHz MHz B MHz MHz B MHz MHz B MHz MHz B MHz MHz B MHz MHz B MHz MHz B MHz MHz B MHz MHz B MHz MHz B MHz MHz B MHz MHz B MHz MHz B MHz MHz CAT-M1 Frequency Bands LTE CAT M1 is low power cellular technology developed for the Internet of Things (IoT) and machine-to-machine (M2M) communications. It operates using existing LTE networks and does not have any specific LTE Frequency bands assigned to it (Unlike NB-IoT). LTE-M CAT M1 and NB1 network operator contenders include Verizon Wireless, Vodafone, T- Mobile, Deutsche Telekom, Telus, Telstra, Proximus, KPN, and Orange and various others across the world. POWER Peak power estimations:

6 TX current = 420mA RX current = 330mA Data Rates 300 kbps DL 375 kbps UL (LTE Cat M1 in 1.4 MHz, HD-FDD) 40 kbps DL 55 kbps UL (LTE Cat M2 in 200 khz, HD-FDD) WIFI The ESP32 gives up to 1km range (line of sight) WiFi which is great for all sorts of things b/g/n 16mbps. BLUETOOTH Bluetooth is a short range communications protocol, ideal for wearables and other close range applications. PyGo will support Bluetooth Low Energy and classic Bluetooth specification Compliant with Bluetooth v4.2 BR/EDR and BLE specification Class-1, class-2 and class-3 transmitter without external power amplifier Enhanced power control +10 dbm transmitting power NZIF receiver with -98 dbm sensitivity Adaptive Frequency Hopping (AFH) Standard HCI based on SDIO/SPI/UART High speed UART HCI, up to 4 Mbps BT 4.2 controller and host stack Service Discover Protocol (SDP) General Access Profile (GAP) Security Manage Protocol (SMP) Bluetooth Low Energy (BLE) ATT/GATT HID All GATT-based profile supported SPP-Like GATT-based profile BLE Beacon A2DP/AVRCP/SPP, HSP/HFP, RFCOMM CVSD and SBC for audio codec Bluetooth Piconet and Scatternet Soon to be released BLE Mesh profile So, when you add all that up, you'll get to a point where you are probably thinking...mesh. I can mesh that too... and you can! Espressif will release their BLE MESH to the general public soon, we hear.

7 SIGFOX It s a global IoT network primarily targeting businesses. Sigfox is available on the PyGo range but has not been configured or certified at the time of launch. Please note: These specifications may be subject to change without prior notification.