Preset

Off-Grid Mesh Communication

Out-of-the-box Meshtastic experience: T1000-E comes pre-flashed with Meshtastic firmware, eliminating the need to connect to a PC. Power on, pair over Bluetooth using the mobile app, and establish an off-grid ad-hoc mesh network for multi-node messaging, topology mapping, and location sharing.

Device	Purpose
SenseCAP T1000-E	Off-grid communication terminal and relay node with integrated LoRa radio, BLE, and GPS
Smartphone (iOS / Android)	Runs the official Meshtastic client, communicating with T1000-E over Bluetooth Low Energy

Power On & Pair via Mobile App

The device comes pre-loaded with Meshtastic firmware; no PC connection or flashing is required. Pair directly from the mobile app upon unboxing.

Wiring

Power On: Press and hold the front button on T1000-E for 3 seconds. The buzzer will beep and the LED will alternate blue and green, indicating the device is powered on and advertising over Bluetooth;
Download App: Search for and install the official Meshtastic app from the Apple App Store or Google Play / APKPure;
Scan for Device: Enable Bluetooth on your phone, launch the Meshtastic app, and open the device scanner;
Pair & Bind: Locate the entry named Meshtastic_xxxx in the list, tap to connect, and accept the Bluetooth pairing prompt;
Set Region & Node Name: Once connected, navigate to Settings → LoRa at the bottom, set Region to match your hardware's operating band (e.g., US for 915MHz, EU_868 for 868MHz, or CN for 470MHz), and optionally configure your node name under User settings.

Troubleshooting

Symptom	Fix
Device not discovered	Ensure button was held for 3s to turn on; if no LED lights, charge with magnetic cable for 30 minutes
Pairing rejected or timed out	Remove device from phone system Bluetooth settings, return to Meshtastic app and re-initiate pairing
Region Unset warning	You must select the correct country/regional LoRa frequency band in settings to enable radio transmission
Flashed custom firmware and want to restore	Connect magnetic cable to PC and reflash official firmware via flasher.meshtastic.org

Verify Off-Grid Messaging & Node Topology

Verify ad-hoc packet delivery and node topology with all external connectivity disabled.

Wiring

Dual-Node Loop (Recommended): If a second Meshtastic node (or a teammate phone paired to a compatible node) is available, verify that both units share the same region and default channel. Confirm incoming text appears on the receiving phone screen in real time.
Single-Node Baseline: If testing with a single unit, verify proper RF transmission via the on-air checkmark status, node beacon broadcasts, and offline GPS positioning.

Disconnect External Networks: Turn off Wi-Fi and Cellular Data on your phone to confirm complete off-grid operation;
Send Broadcast Message: In the Meshtastic app Messages view, select the default Primary Channel, type a test message (such as Hello Meshtastic from T1000-E), and tap send;
Confirm Delivery: A cloud or checkmark icon next to the message confirms the packet was broadcast over the air via the T1000-E LoRa radio; peer nodes (if present) will receive and display it;
Inspect Node List (Nodes): Tap Nodes in the navigation bar to inspect neighboring mesh nodes, signal-to-noise ratio (SNR), received signal strength (RSSI), and hop counts;
Off-Grid Map (Map): Tap Map to view self and peer node locations on the offline map once GPS lock is achieved outdoors.

Troubleshooting

Symptom	Fix
Message shows no delivery checkmark	Both nodes need the same region (Settings -> LoRa) and the same default channel. Check the region is set on the T1000-E.
Node list shows no neighbours	Neighbours appear only when a second node is within radio range; with a single node, verify the beacon and the on-air checkmark instead.
Map shows no position	GPS lock needs a clear view of the sky; test outdoors.

After Deployment

Your T1000-E is now an active node on the off-grid LoRa mesh, capable of kilometer-range emergency text messaging and location tracking without any base stations or cloud dependencies.

Preset

Vibration Anomaly & Device Alert

Add edge intelligence to mesh communication: mount T1000-E firmly onto rotating machinery, calibrate baseline on SenseCraft AI, and broadcast edge vibration alerts over Meshtastic to nearby nodes.

Device	Purpose
SenseCAP T1000-E	Mounted on machinery surface to capture 3-axis vibration, extract features, and emit mesh alerts
3M VHB 4910 Acrylic Tape	Ensures rigid contact with machinery surface to prevent high-frequency vibration damping
Magnetic USB Cable	Connects to PC for online operational calibration in SenseCraft AI Studio

Check or Flash Vibration Firmware (Optional)

If your T1000-E has not yet been loaded with vibration anomaly detection (VAD) algorithms, connect with the magnetic USB cable to flash; skip if already installed.

Wiring

Attach magnetic cable to pins on back of T1000-E and plug into PC USB port;
Select Meshtastic Off-Grid Broadcast below (default recommended) and click Deploy;
Device reboots automatically upon completion and enters calibration-ready mode.

Troubleshooting

Symptom	Fix
Device is not detected over USB	Seat the magnetic cable on the pins on the back of the T1000-E and use a data cable; charge-only cables expose no serial port.
Flashing does not start or is interrupted	Reconnect the cable, select Meshtastic Off-Grid Broadcast again and click Deploy. This step is optional if the firmware is already installed.

Rigid Surface Mounting

Vibration anomaly detection relies on rigid mechanical contact and true acoustic transmission. The sensor must be firmly adhered to the machinery before baseline calibration.

Mounting Requirements

Avoid Soft Foam: Never use soft sponge or foam double-sided tape, which dampens high-frequency micro-vibrations;
Recommended Medium: Use 3M VHB 4910 (0.5mm acrylic tape) or a high-strength magnetic base;
Mounting Position: Select a flat radial load surface on the motor, pump, or fan bearing housing free from grease and dirt;
Orientation: Press device firmly against the metal surface; connect magnetic cable to maintain power for calibration.

Troubleshooting

Symptom	Fix
Alarms trigger on normal operation or never trigger	Soft foam or sponge tape damps high-frequency vibration. Use 3M VHB 4910 or a magnetic base on a clean, grease-free flat surface.
Device was moved after calibration	The baseline is learned at the mounted position; repeat Step 3 after changing the mounting position.

Online Baseline Calibration on SenseCraft AI

With the device mounted, start the machinery and train the baseline model under steady, healthy operating conditions.

Wiring

Start the monitored machinery and verify it is running in a steady, healthy operational state;
Click Open Dashboard below to open SenseCraft AI Studio in your browser;
Click Connect, select the SenseCAP T1000-E serial port, and grant permission;
Observe real-time 3-axis acceleration waveforms. Once waveform features stabilize, click Start Learning / Train Baseline;
Upon calibration, model parameters are written back to internal non-volatile memory;
Critical Step: Click Disconnect in the web studio to release the serial port, then disconnect the magnetic cable to enter autonomous monitoring.

Troubleshooting

Symptom	Fix
T1000-E serial port is not listed after clicking Connect	Use a Chromium-based browser, connect the magnetic cable and grant the serial permission when prompted.
Learning does not start	Start the machinery first and wait until the 3-axis waveform is stable, then click Start Learning / Train Baseline.
Device cannot be reconnected later or does not enter monitoring	Click Disconnect in the web studio before unplugging the magnetic cable so the serial port is released.

Verify Off-Grid Alarm Broadcast

Verify the off-grid alert propagation loop after unplugging the cable.

Wiring

Enter Inspection State: After removing the cable, T1000-E enters low-power periodic vibration monitoring;
Simulate Anomaly: Induce a minor impact or eccentric vibration on the machinery (or lightly tap near the bearing housing);
Emit Alert: When the edge model detects deviation exceeding the calibrated baseline, it wakes the radio and encapsulates a vibration alert packet into the Meshtastic mesh;
Mobile Verification: On-site maintenance personnel open the Meshtastic app to receive the instant alert notification, device ID, and GPS coordinates.

Troubleshooting

Symptom	Fix
No alert reaches the phone	Confirm Step 3 finished, the cable is removed, and the phone is connected to a node on the same region and channel as in the first preset.
Impact does not trigger an alert	The alert fires only when vibration deviates from the calibrated baseline; use a stronger impact or eccentric load, or repeat Step 3.

After Deployment

You have completed the full loop from foundational off-grid mesh communications to autonomous edge device intelligence, achieving predictive maintenance alerts in harsh industrial environments without external network infrastructure.

Preset

Mesh to Home Assistant Central Map

Bridge Meshtastic off-grid mesh communications to Home Assistant via a USB-connected receiver node. Field T1000-E vibration tracker nodes report GPS positions and vibration anomaly alerts over the mesh network without cellular or Wi-Fi infrastructure, aggregated and visualized on a central Home Assistant map.

Prerequisites: The T1000-E used for vibration detection must have the VAD firmware flashed and baseline calibration completed (refer to Preset 2 Steps 1 and 3). If using the factory Meshtastic firmware directly, the device operates as a mobile GPS tracker and triggers an SOS alarm on the vibration sensor entity (binary_sensor.vibration_<node_id>) in Home Assistant while reporting position coordinates to the map.

Device	Purpose
SenseCAP T1000-E (Gateway Node)	Connected to host via USB data cable to receive mesh packets and forward over serial
SenseCAP T1000-E (Tracker Node)	Mounted on machinery to detect vibration anomalies and broadcast alerts with GPS coordinates
Host Machine	Runs Docker to host the Mesh-MQTT serial bridge container

Deploy Mesh-MQTT Serial Bridge

Bridges Meshtastic mesh packets from the USB receiver node to an MQTT broker, and publishes Home Assistant MQTT Discovery entities for live vibration alerting and GPS map tracking.

Wiring

Connect the receiving Meshtastic node (e.g. T1000-E in receiving mode or USB dongle) to a USB port on the host machine using a data cable;
Verify the serial port device path (typically /dev/ttyACM0 on Linux);
Enter your MQTT Broker details below and start deployment.

Troubleshooting

Symptom	Fix
Serial port `/dev/ttyACM0` not found	Verify USB cable connection and run `ls /dev/ttyACM*` on the host to check the device path.
Container health check failed	Ensure the USB receiver is plugged in and the MQTT broker is reachable. Run `docker logs vibration-mesh-bridge` for details.
Cannot connect to MQTT Broker	Verify broker IP address, port, and authentication credentials.

Deployment method

Deploy to this machine running Docker.

What you will be asked for(filled in the SenseCraft Solution app)

Target Host Address
IP address or hostname of the remote machine (for remote deployment).
SSH Password
SSH password for remote deployment.
Meshtastic Serial Port*default /dev/ttyACM0
Serial port path of the connected Meshtastic USB receiver node.
MQTT Broker Host*default 127.0.0.1
IP address or hostname of your MQTT Broker (uses host network; 127.0.0.1 connects to host).
MQTT Port*default 1883
Port number for the MQTT Broker (default: 1883).
MQTT Username
Username for MQTT broker authentication (leave blank if not required).
MQTT Password
Password for MQTT broker authentication (leave blank if not required).

1 more with defaults you can keep

SSH Usernamedefault pi
SSH username for remote deployment.

Connect to Home Assistant (Optional)

Automatically configure the MQTT integration on your existing Home Assistant instance via its API. If your Home Assistant instance already has MQTT configured, you can skip this step.

Wiring

Ensure your Home Assistant instance is running and accessible on the local network;
Enter your Home Assistant URL and administrator credentials below;
Provide the MQTT broker address and credentials used by the Mesh-MQTT bridge;
Click Deploy to configure the MQTT integration on Home Assistant.

Troubleshooting

Symptom	Fix
Authentication failed	Check the Home Assistant administrator username and password.
Cannot reach Home Assistant	Ensure Home Assistant is running and the host and port (default 8123) are correct.
MQTT integration already exists	If MQTT is already configured in Home Assistant, skip this step.

Prepare and Mount T1000-E Vibration Tracker

Rigidly mount the T1000-E vibration tracker node onto the monitored industrial equipment to detect abnormal vibrations and broadcast alerts over the Meshtastic mesh.

Prerequisites: The T1000-E used for vibration detection must have the VAD firmware flashed and baseline calibration completed (refer to Preset 2 Steps 1 and 3). If using the factory Meshtastic firmware directly, the device operates as a mobile GPS tracker and triggers an SOS alarm on the vibration sensor entity (binary_sensor.vibration_<node_id>) in Home Assistant while reporting position coordinates to the map.

Wiring

Power On: Press and hold the button on the T1000-E tracker node for 3 seconds until it beeps and powers on;
Channel Configuration: Ensure the tracker node is set to the same LoRa frequency region and default channel as the receiving gateway node;
Rigid Mounting: Firmly adhere the T1000-E tracker node to a clean, flat surface on the motor, pump, or fan bearing housing using 3M VHB 4910 acrylic tape or a magnetic mount. Avoid soft foam tapes;
GPS Visibility: For physical map tracking, ensure the node has outdoor GPS line-of-sight, or relies on mesh broadcast coordinates.

Troubleshooting

Symptom	Fix
Tracker node not broadcasting	Verify power status and confirm the tracker node shares the same LoRa region and channel as the gateway.
Inaccurate or damped vibration readings	Avoid foam tape; use 3M VHB 4910 acrylic double-sided tape on a clean, degreased metallic surface.

View Central Map in Home Assistant

Open the Home Assistant map dashboard to monitor physical node positions and verify vibration anomaly alert status in real time.

Wiring

In the input fields below, confirm the Home Assistant host and port (default: 127.0.0.1:8123);
Click Open Dashboard to navigate directly to the Home Assistant Map view (/map);
Verify that the tracker node appears as device_tracker.vibration_<node_id> on the map with current GPS coordinates;
Tap near the monitored machinery or simulate vibration to trigger an alert, and verify the binary_sensor.vibration_<node_id> state changes to ON in Home Assistant.

Troubleshooting

Symptom	Fix
Tracker entity not appearing on map	Ensure the tracker node has obtained a GPS fix and broadcast at least one position packet. Check bridge logs with `docker logs vibration-mesh-bridge`.
Vibration sensor stays OFF during vibration	Check that the packet contains `VIBRATION_ALERT` or `ALARM`. Verify in the Meshtastic mobile app or bridge container stdout.
Map page does not open	Ensure Home Assistant is running on the specified host and port (default `http://127.0.0.1:8123`).

After Deployment

The Meshtastic to Home Assistant Central Map monitoring preset is now fully deployed. Edge vibration alerts and GPS locations from field T1000-E nodes are aggregated over the off-grid mesh and visualized centrally on your Home Assistant dashboard.

Industrial Vibration Anomaly Detection with T1000-E — Deployment Guide

Need help choosing hardware, or ready to deploy?

Off-Grid Mesh Communication

Power On & Pair via Mobile App

Verify Off-Grid Messaging & Node Topology

Vibration Anomaly & Device Alert

Check or Flash Vibration Firmware (Optional)

Rigid Surface Mounting

Mounting Requirements

Online Baseline Calibration on SenseCraft AI

Verify Off-Grid Alarm Broadcast

Mesh to Home Assistant Central Map

Deploy Mesh-MQTT Serial Bridge

Connect to Home Assistant (Optional)

Prepare and Mount T1000-E Vibration Tracker

View Central Map in Home Assistant